It should be noted that this raising of the rate of profit by means of a depreciation in the value of the constant capital, in other words, by a reduction of its expensiveness, is entirely independent of the fact whether the line of industry, in which this takes place, produces articles of luxury, necessities of life for the individual consumption of laborers, or means of production. This circumstance would be of material importance only in the case that it would be a question of the rate of surplus-value, which depends essentially on the value of labor-power, and consequently on the value of the customary necessities of the laborer. But in the present case the surplus-value and the rate of surplus-value have been assumed as given. The proportion of the surplus-value to the total capital, which determines the rate of profit, depends under these circumstances exclusively on the value of the constant capital, and in no way on the use-value of the elements of which this capital is composed.

A relative cheapening of the means of production does not, of course, exclude the absolute increase of their aggregate values. For the absolute scope of their application grows extraordinarily with the development of the productive power of labor and the parallel extension of the scale of production. The economies in the use of constant capital, from whatever point of view they may be considered, are the result, either exclusively of the fact that the means of production serve as co-operative materials for the combined laborers, so that the resulting economies appear as products of the social nature of directly productive labor itself; or, in part, of the fact that the productivity of labor is developed in those spheres which supply capital with means of production, and in that case these economies present themselves once more as products of the development of the productive forces of social labor, provided only that the total labor is compared with the total capital, and not simply with the laborers employed by the individual capitalist owning this particular constant capital. The difference in this case is merely that the capitalist takes advantage not only of the productivity of labor in his own establishment, but also of that in other establishments. Nevertheless, the capitalist presumes that the economies of his constant capital are wholly independent of his laborers and have nothing at all to do with them. On the other hand, the capitalist is always well aware that the laborer has something to do with the fact whether the employer buys much or little labor with the same amount of money (for this is the form in which this transaction between the laborer and the capitalist appears in the mind of the latter). The economies realized in the application of constant capital, this method of getting a certain result out of the means of production with the smallest possible expense, is regarded more than any other power inherent in labor as a peculiar gift of capital and as a method characteristic of the capitalist mode of production.

This conception is so much less surprising as it seems to be borne out by facts. For the conditions of capitalist production conceal the internal connection of things by the utter indifference, alienation, and expropriation practiced against the laborer in the matter of the material means in which his labor must be incorporated.

In the first place, the means of production constituting the constant capital represent only the money of the capitalist (just as the body of the Roman debtor represented the money of his creditor, according to Linguet). The laborer comes in contact with them only in the direct process of production, in which he handles them as use-values of production, as instruments of labor and materials of production. The increase or decrease of the value of these things are matters which affect his relation to the capitalist no more than the fact that he may be working up either copper or iron. Occasionally, however, the capitalist likes to profess a different conception of the matter, as we shall indicate later on. He does so whenever the means of production become dearer and thereby reduce his rate of profit.

In the second place, so far as these means of production in the capitalist process of labor are at the same time means of exploiting labor, the laborer is no more concerned in the relative dearness or cheapness of these means of exploitation than a horse is concerned in the dearness or cheapness of the bit and bridle by which it is steered.

In the third place, we have seen previously that the social nature of labor, the combination of the labor of a certain individual laborer with that of other laborers for a common purpose, stands opposed to that laborer and his comrades as a foreign power, as the property of a stranger which he would not care particularly to save if he were not compelled to economize with it. It is entirely different in the factories owned by the laborers themselves, for instance, in Rochdale.

It requires hardly any special mention, then, that the general interconnection of social labor, so far as it expresses the productivity of labor in one line of industry by a cheapening and improvement of the means of production in another line, and thereby a raising of the rate of profit, affects the laborers as a matter foreign to them and concerning only the capitalists, since they are the ones who buy and own these means of production. The fact that the capitalist buys the product of the laborers of another line of industry with the product of the laborers in his own line, and that he disposes of the product of the laborers of another capitalist by virtue of having appropriated the unpaid products of his own laborers, is mercifully concealed for him by the process of circulation and its attending circumstances.

This state of things is further complicated by the fact that these economies in the employment of constant capital assume the guise of being due to the peculiar nature of the capitalist mode of production, and to the special function of the capitalist in particular. The thirst for profits and the demands of competition tend toward the greatest possible cheapening of the production of commodities, just as production on a large scale first develops in its capitalistic form.

Capitalist production promotes on the one hand the development of the productive powers of social labor, and on the other it enforces economies in the employment of constant capital.

However, capitalist production does not stop at the alienation and expropriation of the laborer, the bearer of living labor, from his interest in the economical, that is to say, rational and thrifty, use of the material requirements of his labor. In conformity with its contradictory and antagonistic nature, capitalist production proceeds to add to the economies in the use of constant capital, and thus to the means of increasing the rate of profit, a prodigality in the use of the life and health of the laborer himself.

Since the laborer passes the greater portion of his life in the process of production, the conditions of this productive process constitute the greater part of the fundamental conditions of his vital activity, his requirements of life. Economies in these requirements constitute a method of raising the rate of profit, just as we observed on previous occasions that overwork, the transformation of the laborers into laboring cattle, constitutes a means of self-expanding capital, of speeding up the production of surplus-value. Such economies are: The overcrowding of narrow and unsanitary rooms with laborers, or, in the language of the capitalist, a saving in buildings; a crowding of dangerous machinery into one and the same room without means of protection against this danger; a neglect of precautions in productive processes which are dangerous to health or life, such as mining, etc.; not to mention the absence of all provisions to render the process of production human, agreeable, or even bearable, for the laborer. From the capitalist point of view, such measures would be quite useless and senseless. No matter how economical capitalist production may be in other respects, it is utterly prodigal with human life. And its saving in one direction is offset by a waste in another, owing to the distribution of its products through trade and the competitive method. Capitalism loses on one side for society what it gains on another for the individual capitalist.

Just as capital endeavors to reduce the direct application of living labor to necessary labor, and to abbreviate the labor required for the production of any commodity by the exploitation of the social productiveness of labor and thus to use as little living labor as possible, so it has also the tendency to apply this minimized labor under the most economical conditions, that is to say, to reduce the value of the employed constant capital to its minimum. While the value of commodities is determined by the necessary labor-time contained in them, not by all of the labor-time incorporated in them, it is the capital which gives reality to this determination and at the same time reduces continually the labor-time socially necessary for the production of a certain commodity. The price of that commodity is thereby lowered to its minimum, since every portion of the labor required for its production is reduced to its minimum.

It is necessary to make a distinction in the economies realized in the employment of constant capital. If the mass, and consequently the amount of the value, of the employed capital increases, it means primarily a concentration of more capital in one hand. Now, it is precisesly this greater mass in one hand, going hand in hand, as a rule, with an absolute increase but relative decrease of the number of employed laborers, which permits economies in constant capital. From the point of view of the individual capitalist the volume of the necessary investment of capital, especially of its fixed portion, increases. But compared to the mass of the worked-up materials and of the exploited labor the value of the invested capital relatively decreases.

This will now be briefly illustrated by a few examples. We begin at the end, with economies in the conditions of production which are at the same time the living conditions of the laborer.

II. Economies in the conditions of labor at the expense of the laborers.

Coal Mines. Neglect of the most indispensable Expenditures.

"Owing to the competition between the proprietors of coal mines, expenses are kept down to the minimum required for overcoming the most palpable physical difficulties; and owing to the competition among the miners, whose numbers generally exceed the demand, they are glad to expose themselves to considerable danger and to the most injurious influences for a wage which is little above that of the day laborers in the neighboring country districts, more especially since mining permits them to utilize their children profitably. This double competition is fully sufficient...to effect the operation of a large portion of the mines with the most imperfect drainage and ventilation; very often with badly built shafts, bad piping, incapable machinists, with badly planned and badly constructed galleries and tracks and this causes a destruction of life, limb, and health, the statistics of which would present an appalling picture." (First Report on Children's Employment in Mines and Collieries, etc., April 21, 1829, page 129.) About 1860, the average of fatal accidents in the English collieries amounted to 15 men per week. According to the report on Coal Mines Accidents (February 6, 1862), the total deaths from accidents during the ten years from 1852-61 amounted to 8,466. But the report itself admits that this number is far too low, because in the first years, when the inspectors had just been installed and their districts were far too large, a great many accidents and deaths were not reported. The very fact that the number of accidents has decreased since the installation of the inspectors, in spite of their insufficient numbers and limited powers, shows the natural tendencies of capitalist production. Still the number of the killed is very large. These sacrifices of human beings are mostly due to the groveling greed of the mine owners. Very often they had only one shaft dug, so that there was not only no effective ventilation but also no escape if this shaft became clogged.

Looking upon capitalist production in its details, aside from the process of circulation and the excrescences of competition, we find that it is very economical with materialized labor incorporated in commodities. But it is more than any other mode of production prodigal with human lives, with living labor, wasting not only blood and flesh, but also nerves and brains. Indeed, it is only by dint of the most extravagant waste of individual development that human development is safeguarded and advanced in that epoch of history which immediately precedes the conscious reorganisation of society. Since all the economies here mentioned arise from the social nature of labor, it is just this social character of labor which causes this waste of the lives and health of the laborers. The following question suggested by factory inspector B. Baker is characteristic in this respect: "The whole question is one for serious consideration, in what way this sacrifice of infant life occasioned by congregational labor can be averted?" (Report Fact., October 1863, page 157.)

Factories. Under this head belongs the disregard for all precautions for the security, comfort, and health of the laborers, also in the factories. A large portion of the bulletins of casualties enumerating the wounded and slain of the industrial army belong here (see the annual factory reports). Furthermore lack of space, ventilation, etc.

As late as October, 1855, Leonard Horner complained about the resistance of numerous manufacturers against the legal requirements concerning protective appliances on horizontal shafts, although the dangerous character of these shafts was continually proved by accidents, many of them fatal, and although the appliance for protection against this danger was neither expensive nor interfered with the work. (Rep. Fact., October, 1855, page 6.) In their resistance against this and other legal requirements, the manufacturers are ably seconded by the unpaid justices of the peace, who are themselves manufacturers or their friends, and who render their verdicts accordingly. What sort of verdicts those gentlemen rendered was revealed by Superior Judge Campbell, who said with reference to one of them, against which an appeal was made to him: "This is not an interpretation of an act of parliament, it is simply its abolition." (L. c., page 11.) Horner says in the same report that in many factories machinery is started up without warning the laborers. Since there is always something to look after, even when the machinery is at a standstill, there are always many hands and fingers busy on it, and accidents happen continually from the omission of a mere signal. (L. c., page 44.) The manufacturers of that period had formed a union opposing the factory legislation, the so-called "National Association for the Amendment of the Factory Laws" in Manchester, which collected, in March, 1855, more than 50,000 p.st. by an assessment of 2 shillings per horse-power. This sum was to pay for lawsuits of the members of the association against court proceedings instigated by factory inspectors, all cases of this kind being fought by the union. The issue was to prove that killing is no murder when done for profit. The factory inspector for Scotland, Sir John Kincaid, relates of a certain firm in Glasgow that it used the old iron of its factory to make protective appliances for all its machinery, the cost being 9 p.st. 1 shilling. If this firm had joined the manufacturers' union, it would have had to pay an assessment of 11 p.st. on its 110 horse powers. This would have been more than the cost of all its protective appliances. But the National Association had been organized in 1854 for the express purpose of opposing the law which prescribed such protection. The manufacturers had paid no attention whatever to this law during all the time from 1844 to 1854. At the instruction of Palmerston the factory inspectors then informed the manufacturers that the law would hence-forth be enforced. The manufacturers immediately founded their union. Many of its most prominent members were justices of the peace who were supposed to carry out this law. When the new Minister of the Interior, Sir George Grey, offered a compromise, in April, 1855, to the effect that the government would be content with practically nominal appliances for protection, the Association declined even this, with indignation. In various lawsuits, the famous engineer Thomas Fairbairn permitted the manufacturers to throw the weight of his name into the scale in favor of economies and in defense of the violated liberty of capital. The chief of factory inspectors, Leonard Horner, was persecuted and maligned by the manufacturers in every conceivable manner.

But the manufacturers did not rest until they had obtained a writ of the Queen's Bench, which interpreted the Law of 1844 to the effect that no protective appliances were prescribed for horizontal shafts installed more than seven feet above the ground. And finally they succeeded in 1856 in securing an act of parliament entirely satisfactory to them, by the help of the hypocrite Wilson Patten, one of those pious souls whose ostentatious religion is always ready to do dirty work for the knights of the money-bag. This act practically deprived the laborers of all special protection and referred them to the common courts for the recovery of damages in cases of accident by machinery (which amounted practically to a mockery, on account of the excessive cost of lawsuits). On the other hand, this act made it almost impossible for the manufacturers to lose a lawsuit, by providing in a very nicely worded clause for expert testimony. As a result, the accidents increased rapidly. In the six months from May to October, 1858, Inspector Baker reported an increase of accidents exceeding that of the preceding six months by 21%. He was of the opinion that 36.7% of these accidents might have been avoided. It is true, that the number of accidents in 1858 and 1859 was considerably below that of 1845 and 1846. It was 29% less, although the number of laborers had increased by 20% in the industries subject to inspection. But what was the reason for this? So far as the moot question was settled in 1865, it was due mainly to the introduction of new machinery which was provided with protective appliances from the start and to which the manufacturer did not object because they required no extra expense. A few laborers had also succeeded in securing heavy damages for their lost arms and having this sentence upheld even by the highest courts. (Rep. Fact., April 30, 1861, page 31, and April 1862, page 17.)

This may suffice to illustrate the economies in appliances by which life and limb of laborers (also children) are to be protected against dangers arising in the handling and operating of machinery.

Work in Closed Rooms. It is well known to what extent economies of space, and thus of buildings, crowd the laborers into narrow rooms. This is intensified by economies in appliances for ventilation. These two economies, coupled with an increase of the labor time, produce a large increase in the diseases of the respiratory organs, and consequently an increase of mortality. The following illustrations have been taken from the Reports on Public Health, 6th report, 1863. This report was compiled by Dr. John Simon, well-known from our volume I.

Just as the combination of co-operative labor permits the operation of machinery on a large scale, the concentration of means of production, and economies in their employment, so it is the co-operation of large numbers of laborers in closed rooms and under conditions determined by the ease of manufacture, not by the health of the laborer, which is on the one hand the source of increased profits for the capitalist and on the other the cause of the waste of the lives and health of the laborers, unless it is counteracted by a reduction of the hours of labor and by special precautions.

Dr. Simon formulates the following rule and backs it up with abundant statistics: "To the extent that the population of a certain district is made dependent upon co-operative labor in close rooms, to the same extent, other conditions remaining the same, increases the rate of mortality in that district through pulmonary diseases." (Page 23.) The cause of this is bad ventilation. "And there is probably in all England not a single exception from the rule that in every district, which has an important industry carried on in closed rooms, the increased mortality of its laborers suffices to color the mortality statistics of the entire district with a decided excess of pulmonary diseases." (Page 24.)

The mortality statistics of industries carried on in closed rooms, as examined by the Board of Health in 1860 and 1861, show the following facts: The same number of men between the ages of 15 and 55, having a rate of 100 deaths from consumption and other pulmonary diseases in English agricultural districts, has a rate of 163 deaths from consumption in Coventry, 167 in Blackburn and Skipton, 168 in Congleton and Bradford, 171 in Leicester, 182 in Leek, 184 in Macclesfield, 190 in Bolton, 192 in Nottingham, 193 in Rochdale, 198 in Derby, 203 in Salford and Ashton-under Lyne, 218 in Leeds, 220 in Preston, and 263 in Manchester. (Page 24.) The following table gives a still more convincing illustration.

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It shows the deaths from pulmonary diseases separately for both sexes, between the ages of 15 to 25, computed on every 100,000. The districts selected are those in which only the women are employed in the industry carried on in closed rooms, while the men are employed in all possible lines of work.

In the districts with silk-industries, in which the participation of men in factory work is greater, their death-rate is also higher. The death rate from consumption, etc., in both sexes reveals, according to the report, the atrocious sanitary conditions under which a large portion of our silk-industry is carried on." And this is the same silk-industry whose manufacturers, boasting of the exceptionally favorable and sanitary conditions in their establishments, demanded an exceptionally long labor-time for children under 13 years of age, and were granted permission in several instances. (Volume I, chapter X, 6.)

"None of the hitherto investigated industries will have presented a worse picture than that given by Dr. Smith of tailoring. The work rooms, he says, differ considerably in the matter of sanitation; but nearly all of them are overcrowded, badly ventilated, and to a high degree injurious to health...Such rooms are necessarily hot, as it is; but if the gas is lighted, for instance during a fog in the daytime, or in winter in the evening, the heat rises to 80 or even 90 degrees Fahrenheit (27 to 33 degrees C.) and causes a dripping perspiration and a precipitation of vapor on the glass panes, so that water is continually trickling down or dropping down from the skylight, and the laborers are compelled to keep some windows open, although they inevitably catch cold thereby.—He gives the following description of 16 of the most important shops of the West end of London: The largest cubic space alloted in these badly ventilated rooms to one laborer is 270 cubic feet; the smallest is 105 feet, the average being 156 feet per man. In a certain shop, which has a gallery running all around its sides and which receives light only from above, from 92 to 100 people are employed and a large number of gas jets lighted; the toilets are next door, and the room does not give above 150 cubic feet to each man. In another shop, which can be called only a dog kennel in a yard lighted from above and which can be ventilated only by one small window in the roof, from 5 to 6 people work in a room of 112 cubic feet per man." And "in these atrocious work rooms, described by Dr. Smith, the tailors work generally from 12 to 13 hours per day, and at certain periods work is continued for 14 to 16 hours." (Pages 25, 26, 28.)

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(Page 30.) It must be noted, and has in fact been noted by John Simon, the chief of the Medical Department, who issued the report, that the mortality of the tailors, typesetters, and printers of London, for the ages from 25 to 35 years, has been reported too low, because the London employers in both lines have a large number of young people (probably up to 30 years of age) from the country engaged as apprentices and "improvers," that is to say, men who are being trained. These increase the number of employed on which the deathrates of London are computed. But they do not contribute at the same rate to the number of deaths in London, because their stay there is only temporary. If they get sick during this period, they return to their homes in the country to get well, and if they die there, they are registered in their own district. This fact affects the earlier ages still more and renders the death-rate figures of London for these ages completely valueless as standards of industrial violations of sanitary laws. (Page 30.)

The case of the typesetters is similar to that of the tailors. In addition to lack of ventilation, poisoned air, etc., their condition is aggravated by night-work. Their regular working time lasts from 12 to 13 hours, sometimes from 15 to 16. "Great heat and suffocating air as soon as the gas is lighted....It is not a rare occurrence that the fumes of a foundry, or the smell of machinery or of cesspools, rise from lower floors and aggravate the evils of the upper floors. The hot air of the lower rooms heats the upper ones by warming the floors, and if the rooms are low and much gas is burned in them, it is a great nuisance. It is still worse in places where steam engines are installed in the lower rooms and fill the whole house with undesirable heat...In general it may be said that the ventilation is defective throughout and totally insufficient to remove the heat and the products of combustion of the gas after sundown, and that conditions in many shops, especially if they were formerly living rooms, are most deplorable." In some shops, particularly for weekly papers, where boys of 12 to 16 years are also employed, work is carried on almost uninterruptedly for two days and one night; while in other printing shops, which make a specialty of job work, the laborer does not get a rest even on Sunday, so that his days of work are 7 instead of 6 per week. (Page 26, 28.)

The milliners and dress makers occupied our attention also in volume I, chapter X, 3, so far as overwork was concerned. Their work rooms are described in the present report by Dr. Ord. Even if they are better during the day, they become overheated, foul, and unhealthy during the hours in which gas is burned. Dr. Ord found in 34 shops of the better sort that the average number of cubic feet per worker was as follows: "In four cases more than 500; in four other cases 400-500; in five cases 200-250; in four cases 150-200; and finally in nine cases only 100-150. Even the most favorable of these cases barely suffices for continued work, when the room is not perfectly ventilated...Even with good ventilation the workshops become very hot and stuffy after dark on account of the many gas jets needed." And here follows a remark of Dr. Ord concerning one of the minor workshops operated for the account of a middleman: "One room, containing 1,280 cubic feet; persons present, 14; space for every person, 91.5 cubic feet. The girls looked haggard and neglected. There wages were said to be from 7 to 15 sh. per week, aside from tea...The hours of labor from 8 A. M. to 8 P. M. The small room, in which these 14 persons were crowded together, was badly ventilated. There were two movable windows and a fireplace, which was, however, closed. There were no special appliances of any kind for ventilation." (Page 27).

The same report states with reference to the overwork of the milliners and dress makers: "The overworking of young women in fashionable millinery stores prevails only for about 4 months in that monstrous degree which has elicited on many occasions the momentary surprise and indignation of the public. But during these months work is as a rule continued in the shop for fully 14 hours per day, and on accumulated rush-orders for days from 17 to 18 hours." In other seasons work in the shop is carried on probably for 10 to 14 hours; those working at home are regularly engaged for 12 to 13 hours. In the making of ladies' cloaks, capes, shirts, etc., including work with a sewing machine, the hours passed in the common work room are fewer, generally not more than 10 to 12, but, says Dr. Ord, "the regular hours of labor in certain houses, at various times, are subject to considerable extension by means of extra paid overtime, and in others work is taken home in order to be finished after the regular working time. We may add that either one of these methods of over-work is often compulsory." (Page 28). John Simons remarks in a footnote to this page: "Mr. Redcliffe, the secretary of the Epidemiological Society, who had especially frequent opportunities to examine the health of milliners and dressmakers of the first firms, found among 20 girls who said of themselves that they were "quite well" only one in good health; the others showed different degrees of physical exhaustion, nervous debility, and numerous functional troubles arising therefrom. He names as causes, in the first instance, the length of the working hours, which he estimates at a minimum of 12 hours per day even in the dull season, and secondly, 'overcrowding and bad ventilation of workrooms, air poisoned by gas lights, insufficient or bad food, and lack of provision for domestic comfort.'"

The conclusion at which the chief of the English Board of Health arrived, is that "it is practically impossible for laborers to insist on that which is theoretically their first sanitary right: the right of having their common labor freed from all needless conditions injurious to health, so far as may lie in the power of their employer, and at his expense, whatever may be the work to be accomplished by them for their employer. And while the laborers themselves are actually not in a position to enforce this sanitary justice, neither can they expect any effective assistance from the officials responsible for the enforcement of the Nuisance Removal Acts, in spite of the presumable intention of the legislator." (Page 29.)—"There will no doubt be some small technical difficulties in the way of determining the lowest limit where the employers shall be subject to regulation. But...in principle the claim to the protection of health is universal. And in the interest of myriads of working men and working women, whose lives are needlessly stunted and shortened by the infinite physical ills caused by their occupations, I venture to express the hope that the sanitary conditions of labor will just as universally be placed under fitting legal protection; at least sufficiently to safeguard an effective ventilation of all closed work rooms, and to restrict as much as possible the particular unsanitary influences naturally inherent in every dangerous line of industry." (Page 63.)

III. Economies in the Generation of Power, Transmission of Power, and Buildings.

In his report for October, 1852, L. Horner quotes a letter of the famous engineer James Nasmyth of Patricrofit, the inventor of the steam hammer, which contains substantially the following statements.

The public is little acquainted with the immense increase of motive power obtained through such changes of system and improvements (of steam engines) as he is mentioning. The machine power of the district of Lancashire was for almost forty years under the pressure of timid and prejudiced traditions. But now the engineers have been happily emancipated. During the last 15 years, but particularly in the course of the last 4 years (since 1848) a few important changes have taken place in the operation of condense steam engines. The result was that the same machines accomplished far more work, and that the consumption of coal was considerably decreased at the same time. For many years, since the introduction of steam power in the factories of this district, the velocity which was considered safe for condense steam engines, was about 220 feet of piston lift per minute, that is to say, a machine with a piston lift of 5 feet was limited by regulation to 22 revolutions of the shaft. It was not considered appropriate to drive the machine faster. And since the entire installation was adapted to this velocity of 220 feet of piston lift per minute, this slow and senselessly restricted motion prevailed in the factories for many years. But finally, either through a lucky unfamiliarity with this regulation, or for better reasons of some daring innovator, a greater velocity was tried, and, since the result was very favorable, this example was followed by others. The machine was given full rein, as the saying was, and the main wheels of the transmission gear were changed in such a way that the steam engine could make 300 feet per minute and more, while the machinery was kept at its former speed. This acceleration of the steam engine had become general, because it had been demonstrated that more available power was gained from the same machine, and that the movements were much more regular on account of the greater impetus of the driving wheel. The same steam pressure and the same vacuum in the condenser produced more power by means of a simple acceleration of the piston lift. For instance, if by appropriate changes we can accomplish that a machine yielding 40 horse power with 200 feet per minute makes 400 feet with the same steam pressure and vacuum, we shall secure exactly double that power, and since the steam pressure and the vacuum are the same in both cases, the strain on the various individual parts of the machine, and thus the danger of accidents, will not materially increase with an increase of speed. The whole difference is that we consume more steam in comparison to the accelerated movement of the piston, or at least approximately so; and furthermore, there is a somewhat more rapid wear of the bearings, or friction parts, but this is hardly worth mentioning. But in order to obtain more power with the same machine by speeding up the piston, more coal must be burned under the same steam boiler, or a boiler of a larger volume of evaporation must be employed, in short, more steam must be generated. This was accomplished, and boilers with a greater volume were installed with the old "accelerated" machines. These accomplished consequently as much as 100% more work. About 1842, the extraordinarily cheap generation of power with steam engines in the mines of Cornwall began to attract attention. The competition in cotton spinning compelled the manufacturers to seek the main source of their profits in economies. The remarkable difference in the consumption of coal per hour and horse-power shown by the Cornish machines, and likewise the extraordinarily economical performances of the Woolf Double Cylinder Machines, brought the question of fuel into the foreground, also in Nasmyth's district. The Cornish and the double cylinder machines furnished one horse-power per hour for every 3½ or 4 pounds of coal, while the machines in the cotton districts generally consumed 8 or 12 pounds per horse-power an hour. Such a marked difference induced the manufacturers and machine builders of Nasmyth's district to accomplish by similar means just such extraordinary economies as were then the rule in Cornwall and France, where the high prices of coal had compelled the manufacturers to restrict this expensive branch of their business as much as possible. This led to some very important results. In the first place, many boilers, one-half of whose surface remained exposed to the cold outer air in the time of high profits, were then covered with thick layers of felt, or bricks and mortar, and other material, by which the radiation of the heat, which had been generated at such high cost, was prevented. Steam pipes were protected in the same way, and the cylinders were also surrounded by felt and wood. In the second place, high pressure came into use. Hitherto the safety-valve had been weighted only so slightly that it opened at 4, 6, or 8 pounds of steam pressure per square inch. Then it was discovered that considerable coal could be saved by raising the pressure to 14 or 20 pounds. In other words, the work of a factory was accomplished by a considerably lower consumption of coal. Those who had the means and the enterprise carried the system of increased pressure to its full extension and employed judiciously constructed steam-boilers, which furnished steam at a pressure of 30, 40, 60, or 70 pounds per square inch, which would have scared an engineer of the old school to death. But as the economic result of this increased steam-pressure soon made itself felt in the unmistakable form of so many pounds sterling, shillings, and pence, the high pressure boilers for condensing machines became very common. Those who carried out the reform radically used the Woolf machines, and this took place in most of the recently built machines. These were the Woolf machines with two cylinders, in one of which the steam from the boiler furnishes power by means of the excess of pressure over that of the atmosphere, whereupon, instead of escaping as formerly after each stroke of the piston into the open air, it passes into a low pressure cylinder of about four times the volume of the other and, after accomplishing there some more expansion, goes to the condenser. The economic result obtained by such a machine is the performance of one horse-power per hour for every 3½ or 4 pounds of coal, while the machines of the old style required from 12 to 14 pounds for this purpose. A clever device permitted the adaption of the Woolf system with double cylinders, that is to say, the high and low pressure machine, to already existing machines and thus the increase of their performance and at the same time a reduction in the consumption of coal. The same result was obtained during the last 8 or 10 years by a combination of a high pressure machine with a condensing machine in such a way that the steam used in the former passed into the latter and drove it. This system is useful for many purposes. It would not be easily possible to obtain any accurate statistics of the increased performances of the same identical steam-engines supplied with some or all of these new improvements. But it is certain that the same weight of steam machinery now performs 50% more service on an average, and that in many cases the same steam-engine, which yielded 50 horse-powers at the time of the limited speed of 220 feet per minute, yields now more than 100 horse-powers. The highly economical results of the employment of high pressure steam in condensing machines, and the far greater demands made upon the old machines for the purposes of business expansion, have led in the last three years to the introduction of pipe boilers, by which the cost of steam generation is again considerably reduced. (Rep. Fact., Oct., 1852, pages 23 to 27.)

What applies to power generating, also applies to power transmitting and working machinery. According to Redgrave's report, on page 58 of the above-cited document, the rapid steps made in the development of improvements in machinery during the last years have enabled the manufacturers to expand production without additional motive power. The more economical employment of labor has become necessary through the shortening of the working day, and in most well-managed factories means are always considered by which production may be increased, and expenses decreased. Redgrave has before him a calculation, which he owes to the courtesy of a very intelligent gentleman in his district, referring to the number and age of the laborers employed in his factory, the machines operated in it, and the wages paid from 1840 to date. In October, 1840, his firm employed 600 laborers, of whom 200 were less than 13 years old. In October, 1852, they employed only 350 laborers, of whom only 60 were less than 13 years old. The same number of machines, with very few exceptions, were in operation, and the same amounts were paid in wages, in both years...

These improvements of machinery do not show their full effects until they are used in new and judiciously built factories.

According to the testimony of a cotton spinner in the factory reports for 1863, page 110, great progress has been made in the building of factories in which such improved machinery is to be installed. In the basement of his factory he twines all his yarn, and for this purpose alone he installs 29,000 doubling spindles. In this room and in the shed alone he saves at least 10% in labor. This is not so much the result of improvements in the doubling system, as of the concentration of machinery under one gearing. He can drive the same number of spindles with one single driving shaft, and thus he saves from 60 to 80% for gearing as compared to other firms. This furthermore results in a great saving of oil, grease, etc. In short, with perfected installations in his factory and improved machinery he had saved at least 10% in labor, not to mention great economies in power, coal, oil, grease, transmission belts and shafts.

IV. Utilisation of the Excrements of Production.

With the advance of capitalist production the utilisation of the excrements of production and consumption is extended. We mean by the former the refuse of industry and agriculture, and by the latter either the excrements, such as issue from the natural circulation of matter in the human body, or the form in which objects of consumption are left after being used. Excrements of production, for instance in chemical industries, are such by-products as are wasted in production on a smaller scale; iron filings collected in the manufacture of machinery and carried back into the production of iron as raw material, etc. Excrements of consumption are the natural discharges of human beings, remains of clothing in the form of rags, etc. The excrements of consumption have the most value for agriculture. So far as their utilisation is concerned, the capitalist mode of production wastes them in enormous quantities. In London, for instance, they find no better use for the excrements of four and a half million human beings than to contaminate the Thames with it at heavy expense.

The raising of the price of raw materials naturally leads to the utilisation of waste products.

The general requirements for the re-employment of these excrements are: A great quantity of such excrements, such as is only the result of production on a large scale; improvements in machinery by which substances formerly useless in their prevailing form are given another useful in reproduction; progress of science, especially of chemistry, which discovers the useful qualities of such waste. It is true, that great economies of this sort are also observed in small agriculture carried on like gardening, for instance in Lombardy, southern China, and Japan. But on the whole the productivity of agriculture under this system is obtained by great prodigality in human labor-power, which is drawn from other spheres of production.

The so-called waste plays an important role in almost every industry. The factory report for December, 1863, mentions as one of the principal reasons why farmers in many parts of England and Ireland do not like to grow flax, or do so but rarely, the great waste occurring in the preparation of flax by small scutch-mills driven by water. The waste is relatively small in cotton, but very considerable in flax. Good treatment in soaking and mechanical scutching may reduce this disadvantage considerably. In Ireland flax is frequently scutched in a very slovenly manner, so that from 28 to 30% are lost. All this might be avoided by the use of better machinery. So much tow fell by the side in the preparation of flax that the factory inspector reports having heard it said of some of the scutching mills in Ireland that the laborers carry the waste home and burn it in their fire-places, although it is very valuable. (Page 140 of the above report.) We shall speak of cotton later, in discussing the fluctuations of prices of raw materials.

The wool industry was carried on more intelligently than the preparation of flax. The same report states on page 107 that it was formerly the custom to veto the preparation of waste wool and woolen rags for renewed use, but this prejudice has been entirely dropped so far as the shoddy trade is concerned, which has become an important branch of the wool district of Yorkshire. It is doubtless expected that the trade with cotton waste will soon occupy the same rank as a line of business meeting a long felt want. Thirty years previous to 1863, woolen rags, that is to say pieces of all-wool cloth, etc., were worth on an average about 4 p.st. 4 sh. per ton. But a few years before 1863 they had become worth as much as 44 p.st. per ton. And the demand for them had risen to such an extent that mixed stuffs of wool and cotton were also used, means having been found to destroy the cotton without injuring the wool. And thousands of laborers were employed in 1863 in the manufacture of shoddy, and the consumer benefited thereby, being enabled to buy cloth of good quality at very reasonable prices. The shoddy so rejuvenated constituted in 1862 as much as one-third of the entire consumption of wool in English industry, according to the factory report of October, 1862, page 81. The truth about the "benefit" for the "consumer" is that his shoddy clothes wear out in one-third of the time which good woolen clothes used to last, and become threadbare in one-sixth of this time.

The English silk industry moved on the same inclined plane. From 1839 to 1862 the consumption of genuine raw silk had somewhat decreased, while that of silk waste had doubled. By the help of improved machinery it was possible to make this otherwise rather worthless stuff into a silk useful for many purposes.

The most striking instance of the utilisation of waste was furnished by the chemical industry. It utilises not only its own waste in new ways, but also that of many other industries. For instance it converts the formerly almost useless gas-tar into aniline colors, alizarin, and more recently even into drugs.

This economy through the re-employment of excrements of production must be distinguished from economies through the prevention of waste, that is to say, the reduction of excrements of production to a minimum and the maximum utilisation at first hand of all raw and auxiliary materials required in production.

The reduction of waste depends in part on the quality of the machinery in use. Oil, soap, etc., are saved to the extent that the parts of a machine are constructed accurately and polished. This refers to auxiliary materials. In part, however, and this is the most important part, it depends on the quality of the employed machines and tools whether a large or small portion of raw material is converted into waste in the process of production. Finally it depends on the quality of the raw material itself. This in turn is conditioned on the development of the extract industry and agriculture producing the raw material (the progress of civilisation strictly so called), and on the improvement of processes through which the raw materials pass before their entry into manufacture.

"Parmentier proved that the art of grinding grain was very materially improved in France in recent times, for instance since the time of Louis XIV, so that the new mills, compared to the old, can make as high as twice as much bread from the same amount of grain. In fact, the annual consumption of an inhabitant of Paris was at first placed at 4 setiers of grain, then at 3, finally at 2, while nowadays it is only 1½ setier, or about 342 lbs. per capita....In the Perche, in which I lived for a long time, the crude mills of granite and trap rock have been rebuilt according to the rules of advanced mechanics as understood for the last 30 years. They have been provided with good mill stones from La Ferté, the grain has been ground twice, the milling sack has been given a circular motion, and the output of flour has increased by one-sixth for the same amount of grain. I can easily explain the enormous discrepancy between the daily consumption of grain among the Romans and among us. It is due simply to the imperfect method of milling and bread making. In this connection I must explain a peculiar fact mentioned by Pliny, XVIII, c. 20, 2:...'The flour was sold in Rome, according to quality, at 40, 48, or 96 as per modius.' These prices, so high in proportion to the contemporaneous prices of grain, are due to the imperfect state of the mills of that period, and the resulting heavy cost of milling." (Dureau de la Malle, Economie Politique des Romains. Paris, 1840, I, page 280.)

V. Economies Due to Inventions.

These economies in the utilisation of fixed capital, we repeat, are due to the application of the requirements of labor on a large scale, in short, are due to the fact that these requirements serve as the first conditions of direct co-operative and social production, a co-operation within the primary process of production. On the one hand, this is the indispensable requirement for the application of mechanical and chemical inventions without increasing the price of commodities, and this is always the first consideration. On the other hand, only production on a large scale permits those economies which are derived from co-operative productive consumption. Finally, it is only the experience of combined laborers which discovers the where and how of economies, the simplest methods of applying the experience gained, the way to overcome practical frictions in carrying out theories, etc.

Incidentally it should be noted that there is a difference between universal labor and co-operative labor. Both kinds play their role in the process of production, both flow one into the other, but both are also differentiated. Universal labor is scientific labor, such as discoveries and inventions. This labor is conditioned on the co-operation of living fellow-beings and on the labors of those who have gone before. Co-operative labor, on the other hand, is a direct co-operation of living individuals.

The foregoing is corroborated by frequent observation, to-wit:

1) The great difference in the cost of the first building of a new machine and that of its reproduction, on which see Ure and Babbage.

2) The far greater cost of operating an establishment based on a new invention as compared to later establishments arising out of the ruins of the first one, as it were. This is carried to such an extent that the first leaders in a new enterprise are generally bankrupted, and only those who later buy the buildings, machinery, etc., cheaper, make money out of it. It is, therefore, generally the most worthless and miserable sort of money-capitalists who draw the greatest benefits out of the universal labor of the human mind and its co-operative application in society.

CHAPTER VI.: THE EFFECT OF FLUCTUATIONS IN PRICE.

I. Fluctuations in the Price of Raw Materials, and their Direct Effects on the Rate of Profit.

THE assumption in this case, as in previous ones, is that no change takes place in the rate of surplus-value. This assumption is necessary in order that this case may be analysed in its pure state. However, it would be possible that a certain capital, whose rate of surplus-value remains unchanged, might employ an increasing or decreasing number of laborers, in consequence of contraction or expansion caused by fluctuations in the price of raw materials such as we are about to analyse here. In that case, the mass of surplus-value might vary, while the rate of surplus-value remained the same. Still, it will be convenient to set aside also such a case as a side-issue. If improvements of machinery and changes in the price of raw materials simultaneously influence either the number of laborers employed by a certain capital, or the level of wages, one has but to tabulate 1) the effect caused by the variations of constant capital in the rate of profit, and 2) the effect caused by variations in wages on the rate of profit. The result then becomes apparent of itself.

But in general, it should be noted here, as in previous cases: If variations take place, either in consequence of economies in the constant capital, or in consequence of fluctuations in the price of raw materials, they always affect the rate of profit, even though they may leave the wages, and therefore the mass and rate of surplus-value, untouched. They change the magnitude of the C in s' v/C, and thus the value of the whole fraction. It is therefore immaterial, in this case, in contradistinction to what we found to be the case in our analysis of surplus-value, in which sphere of production these variations take place, whether the lines of production affected by them produce articles of food for laborers, or constant capital for the production of such articles, or not. The deductions made here apply just as well if these variations occur in the production of articles of luxury, and by the production of articles of luxury I mean all production not serving for the reproduction of labor-power.

In the raw materials we include here also the auxiliary substances, such as indigo, coal, gas, etc. Furthermore, so far as machinery falls under this head, its own substance consists of iron, wood, leather, etc. Its own price is therefore affected by fluctuations in the prices of raw materials used in its construction. To the extent that its price is raised through fluctuations, either in the price of the raw materials of which it consists, or of the auxiliary substances consumed in its operation, the rate of profit is lowered. And vice versa.

In the following analysis it will be necessary to confine ourselves to fluctuations in the price of raw materials, not so far as they go to make up the raw materials of machinery serving as means of production, or as raw materials in auxiliary substances applied in the operation of machinery, but in so far as they are raw materials contributing to the process in which commodities are produced. We make only this remark: The wealth of nature in iron, coal, wood, etc., which are the principal elements used in the construction and operation of machinery, presents itself here as a natural fertility of capital and becomes an element in determining the rate of profit, independently of the highness or lowness of wages.

Since the rate of profit is represented by s/C, or s/(c+v), it is evident that everything which causes a variation of the magnitude of c, and thereby of C, must also bring about a variation in the rate of profit, even if s and v, and their mutual proportions, remain unaltered. Now, raw materials constitute one of the principal portions of constant capital. Even in industries which consume no raw material, in the strict meaning, it enters as auxiliary material, or as a component part of machinery, etc., and fluctuations in its price influence to that extent the rate of profit. If the price of raw material falls by the amount d, then s/C, or s/(c+v), become s/(C-d), or s/((c-d)+v), in other words, the rate of profit rises. On the other hand, if the price of raw material rises, then s/C, or s/(c+v), become s/(C+d), or s/((c+d)+v), in other words, the rate of profit falls. Other circumstances remaining unchanged, the rate of profit falls and rises, therefore, inversely as the price of raw material. This shows, among other things, how important the low price of raw material is for industrial countries, even if fluctuations in the price of raw materials were not accompanied by variations in the selling sphere of the product, that is to say, quite aside from the relation of demand to supply. It follows furthermore that foreign trade influences the rate of profit, even aside from its influence on wages through the cheapening of the necessities of life, for it affects the prices of raw or auxiliary materials consumed in industry or agriculture. It is due to the imperfect understanding of the nature of the rate of profit and its specific difference from the rate of surplus-value that economists (like Torrens) give a wrong explanation of the marked influence of the prices of raw material on the rate of profit, as demonstrated by experience, and that on the other hand economists like Ricardo, who cling to general principles, misapprehend the influence of such factors as the world's trade on the rate of profit.

We may realise, then, the great importance of the abolition or reduction of tariffs on raw materials for industry. Already the first rational development of the protective system made the utmost reduction of import duties on raw materials one of its cardinal principles. This, and the abolition of the duty on corn, was the main object of the English free traders, who took also, above all, care to have the duty on cotton abolished.

The use of flour in the cotton industry may serve as an illustration of the importance of a reduction in the price of an article, which, although not strictly raw material, is an auxiliary and, of course, at the same time one of the principal elements of food. As long ago as 1837, R. H. Greg 13 calculated that the 100,000 power looms and 250,000 hand looms then operated in the cotton mills of Great Britain consumed 41 million lbs. of flour in the smoothing of chains. To this was added a third of this quantity for bleaching and other processes. The total value of the flour so consumed was placed by him at 342,000 p.st. per year for the preceding ten years. A comparison with the prices of flour on the continent showed that the raise in the price of flour forced upon the manufacturers by the corn-laws amounted alone to 170,000 p.st. per year. For 1837, Greg estimated it at a minimum of 200,000 p.st., and he mentions the fact that one firm had to pay 1,000 p.st. more per year for flour. In consequence of this "Large manufacturers, careful and calculated business men, declared that 10 hours of labor per day would be enough, if the corn-laws were repealed." (Rep. Fact., Oct. 1848, page 98.) The corn-laws were repealed. Also the duties on cotton and other raw materials. But no sooner had this been accomplished than the opposition of the manufacturers to the Ten Hours Bill became more violent than ever. And when the ten hour day in factories nevertheless became a law soon after, the first result was an attempt to reduce wages all around.

The value of the raw materials and auxiliary substances passes entirely, and all at one time, into the value of the product in whose creation they are consumed, while the elements of fixed capital transfer their value only gradually to the product in proportion as they are worn away. It follows that the price of the product is influenced to a far higher degree by the price of raw materials than by that of fixed capital, although the rate of profit is determined by the total value of the capital, regardless of how much of this capital is consumed in the product. But it is evident—although we mention this merely incidentally, since we are still assuming that commodities are sold at their values, so that fluctuations of price caused by competition do not concern us here—that the expansion or restriction of the market depends on the price of the individual commodity and is inversely proportioned to the rise or fall of this price. For this reason we note in reality that a rise in the price of raw material is not accompanied by a corresponding rise of the price of the product, nor a fall in the price of the raw material by a corresponding fall of that of the product. Consequently the rate of profit falls lower in one case, and rises higher in the other, than it would if products were sold at their value.

Furthermore, the mass and value of the employed machinery grows with the development of the productivity of labor, but not in the same proportion as this productivity, in other words, not in the same proportion as the machine increases its output. Those lines of industry, which consume raw materials, so that the objects on which they expend their labor are themselves products of previous labor, express the growing productivity of labor precisely by the proportion in which a certain increased portion of raw material absorbs a definite quantity of labor. In other words, this increasing productivity is measured by the increasing amount of raw material converted into products, worked up into commodities, for instance, in one hour. To the extent, then, that the productivity of labor is developed, the value of raw material forms an ever growing component of the value of the product in commodities, not only because it passes wholly into them, but also because every aliquot part of the aggregate product contains an ever decreasing share of that portion which represents the wear of machinery and that other which represents newly added labor. In consequence of this falling tendency the other portion of value which represents raw material increases correspondingly, unless this growth is counterbalanced by a proportionate decrease in the value of the raw material due to a growing productivity of the labor required for its production.

Again, we know that the raw materials and auxiliary substances, the same as wages, form parts of the circulating capital and must be continually reproduced in their entirety through the sale of the product, while the machinery is renewed only to the extent that it wears out, a reserve fund being accumulated for that purpose. And it is not so essential that each individual sale should contribute its share to this reserve fund, so long as the total annual sales contribute their annual share. We see, then, once more that a rise in the price of raw material can curtail or clog the entire process of reproduction, since the price realised by the sale of the commodities may not suffice to reproduce all the elements of these commodities. Or, it may render a continuation of the process on a scale fitting for its technical basis impossible, so that either a portion of the machinery remains idle, or the whole machinery works only a part of the usual time.

Finally, the expense due to waste varies in direct proportion to the fluctuations in the price of raw material, rises and falls with them. Of course, there is a limit also in this case. In 1850 it was still reported, in the factory reports for April, 1850, page 17, that one source of considerable losses through the raising of the price of raw material would hardly be noticed by any one who is not a practical spinner, namely losses through waste. The reporting inspector had been informed that a rise in the price of cotton implied a greater rise in the expenses of the spinner than is indicated by the difference in price. The waste in the spinning of coarse yarns amounts to fully 15%. If this percentage causes a loss of ½ d. per lb. when cotton is worth 3½ d., then the loss increases to 1 d. per lb. as soon as cotton rises to 7 d. per lb. But when, as a result of the American Civil War, cotton rose to a height not equalled in almost a century, the report read differently. We learn from the factory reports of October, 1863, page 106, that the price then paid for cotton waste, and the return of the waste to the factory as raw material, offered some compensation for the difference in the loss through waste between Indian and American cotton. This difference amounted to 12½%. The loss in working up Indian cotton is 25%, so that really this cotton costs the spinner one-fourth more than he paid for it. The loss through waste was not so important while American cotton was quoted at 5 or 6 d. per lb., for it did not exceed ¾ d. per lb. But it became a matter for serious consideration, when cotton cost 2 sh. per lb. and the loss through waste amounted to 6d. 14

II. Appreciation, Depreciation, Release, and Tie-up of Capital.

The phenomena analysed in this chapter require for their full development the credit-system and competition on the world-market, the latter being the basis and vital element of capitalist production. These more concrete forms of capitalist production can be comprehensively presented only after the general nature of capital is understood. Moreover, such a presentation lies outside of the scope of this work and belongs in its eventual continuation. Nevertheless, the phenomena mentioned in the title of this chapter may be discussed at this stage in a general way. They are interrelated among themselves, and at the same time touch upon the rate and mass of profits. They are entitled to consideration right here for the further reason that they create the impression that not only the rate, but also the mass of profit—which is actually identical with the mass of surplus-value—could increase or decrease independently of the movements of surplus-value, whether it be its mass or its rate.

Are we to consider the release and tie-up of capital on one side, its appreciation or depreciation on the other, as different phenomena?

The question is first: What do we mean by the release and tie-up of capital? Appreciation and depreciation explain themselves. They do not signify anything but that a certain given capital grows or declines in value as a result of general economic conditions of some sort, for we do not discuss any particular fate of some individual capital. They indicate, in short, that the value of the capital invested in production rises or falls, aside from the question of its self-expansion by means of the surplus-labor employed by it.

By the tie-up of capital we mean that a certain portion of the total value of the product must be reconverted into the elements of constant and variable capital, if production is to proceed on the same scale. By the release of capital we mean that a portion of that part of the total value of the product which had to be reconverted into constant or variable capital up to a certain time becomes disposable and superfluous, provided production is to continue on the same scale. This release or tie-up of capital is different from the release or tie-up of revenue. If the annual surplus-value of a certain capital C is equal to x, then a reduction in the price of commodities consumed by the capitalists would suffice to procure the same enjoyments as before by means of x - a. In other words, a portion of the revenue equal to a is released, and may serve either for the extension of consumption or the reconversion into capital (for the purpose of accumulation). Vice versa, if x + a is needed in order to continue the same scale of living, then this scale must either be reduced or a portion of revenue equal to a and previously accumulated must be drawn upon as revenue.

The appreciation or depreciation may strike either the constant, or the variable capital, or both. In the case of the constant capital it may affect either the fixed, or the circulating portion, or both.

In the case of the constant capital we have to consider the raw materials and auxiliary substances, including half-wrought articles, all of which we comprise here under the term raw materials, furthermore, machinery and other fixed capital.

We referred in the preceding analysis especially to variations in the price, or the value, of raw materials, and to their influence on the rate of profit. And we announced the general law that, other circumstances remaining the same, the rate or profit is inversely proportioned to the value of the raw materials. This is unconditionally true of a capital newly invested in any business enterprise, where the investment of capital, that is to say the conversion of money into productive capital, is just taking place.

But aside from this capital in process of new investment, a large portion of the already functioning capital is engaged in the sphere of circulation, while another portion is busy in the sphere of production. One portion exists on the market in the shape of commodities waiting to be converted into money; another exists in the shape of money of some kind waiting to be reconverted into elements of production, finally, a third portion exists in the sphere of production, either in the primitive form of means of production (raw materials, auxiliary substances, half-wrought articles purchased on the market, machinery and other fixed capital), or as products in process of manufacture. The effect of appreciation or depreciation of any of these depends in a large measure on the relative proportions of these things. Let us leave aside, for the sake of simplicity, all fixed capital, and let us consider only that portion of constant capital which consists of raw materials, auxiliary substances, partly wrought articles, and commodities in the making or in a finished state.

If the price of raw material, for instance of cotton, rises, then the price of those cotton goods which were made while cotton was cheaper—both half-wrought articles like yarn, and finished goods like cotton fabric—rises along with that of the rest. So does the value of the cotton held in stock and waiting to be worked up and that of the cotton in process of being worked. This last-named cotton then represents by indirection more labor-time than was incorporated in it, and consequently it adds more value than its own original one to the product which it goes to make up, and more than the capitalist paid for it.

If, then, a rise in the price of raw materials finds on the market a considerable quantity of finished commodities, whatever may be the state of their perfection, the value of these commodities rises, and consequently the value of the existing capital is enhanced. The same is true for the supply of raw materials in the hands of the producers. This appreciation of value may indemnify the individual capitalist, or even an entire sphere of capitalist production, for the loss caused by a fall in the rate of profit incidental to a rise in the price of raw materials, or it may even more than make good that loss. Without entering into the details of the effects of competition, we may state for the sake of completeness that, in the first place, when the supplies of raw material held in stock are considerable, they tend to oppose a rise in the price of raw materials at the place where they are produced; and in the second place, when the half-wrought articles and finished goods press very heavily upon the market, they prevent the price of these things from rising in proportion to the price of their raw materials.

The reverse takes place when there is a fall in the price of raw materials. Other circumstances remaining the same, it increases the rate of profit. The commodities on the market, the articles in the making, and the supplies of raw material depreciate in value and thereby counteract the accompanying rise in the rate of profit.

The effect of a variation in prices of raw materials becomes so much more marked, the smaller a quantity of supplies exists in the sphere of production and on the market, for instance at the close of a business year, when great masses of raw materials are delivered anew, as happens in agriculture after the harvest.

We start in this entire analysis from the supposition that a rise or a fall in prices are the expressions of actual variations in value. But since we are here concerned in the effects of such variations in price on the rate of profit, it matters little what is at the bottom of them. The present statements apply just as well in the case that prices rise or fall, not on account of variations in value, but of the influence of the credit-system, competition, etc.

Seeing that the rate of profit is the expression of the excess of the value of the product over the value of the total capital advanced, a rise of the rate of profit due to a depreciation of the advanced capital would be accompanied by a loss in the value of capital. And a lowering of the rate of profit due to an appreciation of the advanced capital might be accompanied by gains.

As for the other portion of constant capital, such as machinery, and fixed capital in general, the appreciation of values taking place in them, and referring mainly to buildings, real estate, etc., they cannot be discussed without an understanding of the theory of ground rent, and do not belong in this chapter, for this reason. But they have a general importance for the question of depreciation.

There are, in the first place, constant improvements which lower relatively the use-value, and therefore the exchange-value, of existing machinery, factory equipments, etc. This process has a dire effect especially during the first epoch of newly introduced machinery, before it has reached a certain stage of maturity, when it becomes continually antiquated before it has had time to reproduce its own value. This is one of the reasons for the irrational prolongation of the working time customary at such periods, of working with day and night shifts, in order that the value of the machinery may be reproduced in a shorter time without having to place the figures for wear and tear too high. On the other hand, if a short period of effectiveness of machinery (its short term of life compared to anticipated improvements) is not compensated in this way, then it yields too much of its value to the product by moral wear, so that it cannot compete even against hand-labor. 15

When machinery, equipment of buildings, and fixed capital in general have reached a certain maturity, so that they remain unaltered in their basic construction, at least for an ordinary length of time, then a similar depreciation takes place in consequence of improvements in the methods of reproduction of this fixed capital. The value of machinery, etc., falls in that case, not because this machinery is rapidly crowded out and depreciated to a certain degree by new and more productive machinery, etc., but because it can be reproduced more cheaply. This is one of the reasons why large enterprises frequently do not flourish until they pass into the second hand, after their first proprietors have been bankrupted, so that their successors, who buy them cheaply, are enabled to begin with a smaller investment of capital at the very outset.

In the case of agriculture it is evident that the same causes which raise the price of the product or lower it must also raise or lower the value of capital, since this capital consists to a large degree of this product, such as grain, cattle, etc.

There still remains the variable capital for our consideration.

To the extent that the value of labor-power rises on account of a rise in the price of the means of existence required for its reproduction, or falls on account of a reduction of the value of these means of existence—and a rise or fall in the value of variable capital are but expressions of these two cases—a rise in surplus-value corresponds to such depreciation and a fall in surplus-value to such appreciation, assuming the length of the working-day to remain the same. But other circumstances—a release or tie-up of capital—may accompany such cases, and as we did not analyse them so far, we may briefly mention them now.

If wages fall in consequence of a depreciation of the value of labor-power (which may be accompanied even by a rise in the actual price of labor), then a portion of the capital hitherto invested in wages, is released. Variable capital is set free. For new investments of capital, this signifies a working with a higher rate of surplus-value. It takes less money than before to set in motion the same amount of labor, and in this way the unpaid portion of labor increases at the expense of the paid portion. But in the case of already invested capital not only the rate of surplus-value is raised, but a portion of the capital previously invested in wages is also released. It had been tied up until this time and formed a regular portion which had to be deducted from the proceeds of the product and advanced for wages, in order to perform the functions of variable capital, provided the business was to continue on its former scale. Now this portion becomes disposable and may be used for a new investment, either in the extension of the same business, or to perform a function in some other sphere of production.

Let us assume, for instance, that 500 p.st. were required at first to employ 500 laborers per week, and that now only 400 p.st. are needed for the same purpose. If the mass of value produced in either case was 1,000 p.st., then the mass of surplus-value produced per week in the first case was 500 p.st., and the rate of surplus-value 500/500, or 100%. But after the reduction of wages the mass of surplus-value will be 1,000-400, or 600 p.st., and its rate 600/400, or 150%. And this raising of the rate of profit is the only effect produced for any one who starts a new enterprise in this sphere of production with a variable capital of 400 p.st. and a corresponding constant capital. But in a business already existing when this takes place, the depreciation of the variable capital does not only increase the rate of surplus-value from 500 to 600 p.st., and the rate of surplus-value from 100 to 150%, but 100 p.st. of the variable capital are released and enabled to exploit more labor. The same amount of labor is then not alone advantageously exploited, but the release of 100 p.st. makes it possible to exploit more laborers with those 500 p.st. at the increased rate.

Now take the opposite case. Take it that the original proportion of division, with 500 laborers, was 400 v + 600 s, making 1,000, so that the rate of surplus-value was 150%. The laborer, in that case, received 4/5 p.st., or 16 shillings per week. Now, if in consequence of an appreciation of variable capital 500 laborers cost 500 p.st. per week, then each one of them will receive 1 p.st. per week, and 400 p.st. can employ only 400 laborers. If the same number of laborers as before is to be employed, then we must have 500 v + 500 s, or 1,000. The rate of surplus-value would have fallen from 150 to 100%, which is by one-third. If some new capital were now to be invested, the only effect felt by it would be this lower rate of surplus-value. Other circumstances remaining the same, the rate of profit would also have fallen, although not to the same extent. For instance, if c equals 2,000, we should have in the one case 2,000 c + 400 v + 600 s = 3,000. The rate of surplus-value would be 150%, the rate of profit 600/2400, or 25%. In the second case we should have 2,000 c + 500 v + 500 s = 3,000. The rate of surplus-value would be 100%, the rate of profit 500/2500, or 20%. However, for a capital already invested there would be a twofold effect. Only 400 laborers could be employed with 400 p.st., at a rate of surplus-value amounting to 100%. They would then produce only 400 p.st. of surplus-value. Furthermore, since a constant capital of 2,000 p.st. requires 500 laborers for its operation, 400 laborers could operate only a constant capital of 1,600 p.st. If production is to continue on the same scale as before and one-third of the machinery prevented from remaining idle, then the variable capital must be increased by 100 p.st., in order that 500 laborers may still be employed. And this can be accomplished only by tying up a hitherto disposable capital, so that a portion of the accumulation intended for an extension of production serves then merely for stopping a gap, or a portion reserved for revenue is added to the old capital. A variable capital increased by 100 p.st. produces then 100 p.st. less of surplus-value. More capital is required to employ the same number of laborers, and the surplus-value yielded up by each laborer is at the same time reduced.

The advantages resulting from a release, and the disadvantages resulting from a tie-up of variable capital, affect only capital already engaged and reproducing itself under certain determined conditions. So far as newly invested capital is concerned, the advantage on the one, or the disadvantage on the other side, are limited to a raising or lowering of the rate of surplus-value and a variation of the rate of profit accordingly, if not always in the same proportion.

The release and tie-up of variable capital, analysed in the foregoing, is the result of a depreciation or appreciation of the elements of variable capital, that is to say, of the cost of reproduction of labor-power. However, variable capital might also be released, if the development of the productivity, with the rate of wages unchanged, results in the possibility of getting along with fewer laborers for the operation of the same amount of constant capital. Vice versa, additional variable capital may be formed, if the productive power declines and more laborers are needed to operate the same mass of constant capital. On the other hand, if a portion of capital formerly employed in the capacity of variable capital is transferred to the constant capital, so that there is merely a different distribution between the components of the same capital, this has its influence on the rate of surplus-value and of profit, but does not belong in this discussion of the release and tie-up of capital.

We have already seen that constant capital may be released or tied up by a depreciation or appreciation of its component elements. Aside from this, it can be tied up only in the case that the productive power of labor increases (not to mention the case in which a portion of the variable is transferred to the constant capital), so that the same amount of labor creates a greater product and therefore operates a larger constant capital. The same may occur under certain circumstances when the productive power decreases, for instance in agriculture, so that the same quantity of labor requires more means of production, such as seeds, manure, drainage, etc., in order to produce the same output. Constant capital may be released without depreciation, when improvements, the harnessing of natural powers, etc., enable a constant capital of smaller value to perform the same technical services as those formerly performed by a constant capital of greater value.

We have seen in volume II that once that the commodities have been converted into money, sold, a certain portion of this money must be reconverted into the material elements of constant capital, and this in proportion to the technical nature of any given sphere of production. In this respect, the most important element in all lines—aside from wages, or variable capital—is the raw material, including the auxiliary substances, which are particularly important, in all lines of production that do not use any raw materials in the strict meaning of the term, for instance in mining and extractive industries in general. That portion of the price which has to make good the wear and tear of machinery plays mainly an ideal role in calculation, so long as the machine is at all in workable condition. It does not matter greatly whether it is paid and replaced by money to-day or to-morrow, or in any other section of the period of turn-over of the capital. It is different with the raw material. If the price of raw material rises, it may be impossible to make it good fully out of the price of the commodities after deducting the wages. Violent fluctuations of price therefore cause interruptions, great collisions, or even catastrophies in the process of reproduction. It is especially the products of agriculture, raw materials taken from organic nature, which are subject to such fluctuations of value in consequence of changing yields, etc., leaving aside altogether the question of the credit-system, for the present. The same quantity of labor may, in consequence of uncontrollable natural conditions, the favor or disfavor of seasons, etc., be incorporated in very different quantities of use-values, and a definite quantity of these use-values may have very different prices. If the value x is represented by 100 lbs. of the commodity a, then the price of one lb. of a equals x/100. If it is represented by 1,000 lbs., the price of one lb. is x/1000, etc. This is one of the elements in the fluctuations of the price of raw materials. A second element, which is mentioned at this point only for the sake of completeness, since competition and the credit-system are still outside of the scope of our analysis, is this: It is in the nature of the thing that vegetable and animal substances, which are dependent on certain laws of time for their growth and production, cannot be suddenly augmented in the same degree as, for instance, machines and other fixed capital, or coal, ore, etc., whose augmentation, assuming the natural requirements to be present, can be accomplished in a very short time in an industrial country. It is therefore impossible, and under a developed system of capitalist production even inevitable, that the production and augmentation of that portion of the constant capital which consists of fixed capital, machinery, etc., should run ahead of that portion which consists of organic raw materials, so that the demand for these last materials grows more rapidly than their supply, and their price rises in consequence. This rising of prices carries with it the following results: 1) A shipping of raw materials from great distances, seeing that the rising price covers greater freight rates; 2) an increase in their production, which, however, for natural reasons, will not be felt until the following year; 3) a using up of various hitherto unused accessories, and a better economising of waste. If this rise of prices begins to exert a marked influence on production and supply, the turning point has generally arrived at which the demand lets up on account of the protracted rise of the raw material and of all commodities made up of it, so that a reaction in the price of raw material takes place. Aside from convulsions due to the depreciation of capital in various forms, this reaction is also accompanied by other circumstances which will be mentioned immediately.

So much is evident from the foregoing: To the extent that capitalist production is developed, and with it the means of suddenly and permanently increasing that portion of the constant capital which consists of machinery, etc., and to the extent that accumulation is accelerated (as it is particularly in times of prosperity), to that extent does the relative over-production of machinery and other fixed capital increase, the relative underproduction of vegetable and animal raw materials become more frequent, the above described rise of their prices and the subsequent reaction more marked. And the revulsions increase correspondingly in frequency, so far as they are due to this violent fluctuation of one of the main elements of the process of reproduction.

Now, if these high prices collapse, because their rise had caused partly a falling off in the demand, partly an extension of production here, an importation of goods from remote and hitherto little noted or neglected regions of production in another place, and with them an excess of the supply over the demand, especially if this excess comes in with the old prices, then we have a result which offers various points of view. The sudden collapse of the price of raw materials checks their reproduction, and consequently the monopoly of the original producing countries, which are favored by the best conditions, is restored. It may be restored with certain limitations but still it is restored. The reproduction of the raw materials proceeds indeed, after the first impulse has been given, on an enlarged scale, especially in countries which have more or less of a monopoly of this production. But the basis on which production takes place after the extension of machinery, etc., and which, after some fluctuations, has to serve as the new point of departure, is very much enlarged by the occurrences of the last cycle of turn-over. At the same time the barely increased reproduction has been considerably checked in the secondary countries of supply. For instance, it can be easily shown by a reference to the export tables that, during the last thirty years (up to 1865) the production of cotton grows in India, whenever there has been a falling off in the American, and that there is after awhile a sudden drop and falling off in the Indian. During the period in which raw materials are high, the industrial capitalists get together in associations for the purpose of regulating production. So they did, for instance, after the rise of cotton prices in 1848, in Manchester, and a similar move was made in the production of flax in Ireland. But as soon as the immediate impulse has worn off, and the principle of competition reigns once more supreme, according to which one must "buy in the cheapest market" (instead of stimulating production in the most favored countries, as those associations attempt to do, without regard to the monetary price at which those countries may just happen to supply their product), the regulation of the supply is left once more to "prices." All thought of a common, far-reaching, circumspect control of the production of raw materials gives way once more to the belief that demand and supply will mutually regulate one another. And it must be admitted that such a control is on the whole irreconcilable with the laws of capitalist production, and remains for ever a platonic desire, or is limited to exceptional co-operation in times of great stress and helplessness. 16 The superstition of the capitalists in this respect is so crude that even the factory inspectors lift their hands in surprise, in their reports. The variation of good and bad years, of course, leads at times to the production of cheaper raw materials. Aside from the direct effect of this on the extension of the demand, an added stimulant is found in the previously mentioned influence on the rate of profit. Thereupon the aforesaid process of a gradual overtaking of the production of raw materials by that of machinery, etc., is repeated on a larger scale. An actual improvement of raw materials in such a way that not only their quantity, but also their quality would come up to expectations, for instance supplying cotton of American quality from Indian fields, would necessitate a long continued, progressively growing, and steady European demand (quite aside from the economic conditions under which the Indian producer labors in his country). As it is, the sphere of production of raw materials is extended only convulsively, being now suddenly enlarged, and then violently contracted. All this, and the spirit of capitalist production in general, may be very well studied in the cotton crisis of 1861-65, which was further aggravated by the fact that raw materials were at times entirely missing which are one of the principal factors of reproduction. The price may also rise while there is an abundant supply, namely in the case that this abundance takes place under difficult conditions. Or, there may be an actual shortage of raw material. It was the last condition which originally prevailed in the cotton crisis.

The closer we approach in the history of production to our own times, so much more regularly do we find, especially in the essential lines of industry, the ever recurring fluctuation between a relative appreciation and the resulting depreciation of raw materials purloined from organic nature. The preceding statements will be verified by the following illustrations from reports of factory inspectors.

The moral of this story, which may also be deduced from other observations in agriculture, is that the capitalist system works against a rational agriculture, or that a rational agriculture is irreconcilable with the capitalist system, although technical improvements in agriculture are promoted by capitalism. But under this system, agriculture needs either the hands of the self-employing small farmer, or the control of associated producers.

We present now the following illustrations from the English factory reports.

According to R. Baker, factory reports for October, 1858, pages 56-61, the condition of business was then better. But the cycle of good and bad times was shortened with the increase of machinery, and to the extent that the demand for raw materials increases, the fluctuation in the conditions of business occur more frequently. For the time being confidence had been restored after the panic of 1857, and the panic itself seemed almost forgotten. Whether this improvement would be lasting, depended, in Baker's opinion, to a large extent on the price of raw materials. He saw indications that the maximum had already been reached, beyond which manufacture becomes less and less profitable, and finally ceases altogether to yield any profits. Taking the prosperous years in the worsted business, 1849 and 1850, it will be seen that the price of English carded wool was 13 d., and of Australian, 14 to 17 d. per lb., and that the average price of English wool, for the decade from 1841 to 1850, never exceeded 14 d., nor that of Australian 17 d. But at the beginning of the disastrous year 1857, Australian wool was quoted at 23 d. It fell in December, at the time of the worst panic, to 18 d., but rose once more in the course of the year 1858 to 21 d. English wool likewise began in 1857 with 20 d., rose in April and September to 21 d., fell in January, 1858 to 14 d., and rose subsequently to 17 d., so that it stood 3 d. per lb. higher than the average of the aforementioned 10 years. This shows, in Mr. Baker's opinion, that either the failures of 1857, which were due to similar prices, have been forgotten, or that barely enough wool is produced to keep the existing spindles running. Or the prices of fabrics may experience a lasting rise. But he has seen in his experience that spindles and frames multiplied in an incredibly short time, not only in numbers, but also in speed; that the English wool export to France rose at almost the same rate, while the average age of sheep in England and other countries was steadily reduced, since the population was rapidly increasing and breeders were trying to turn their stock into money as quickly as possible. He often was seriously alarmed, when he saw people, ignorant of these facts, invest their ability and their capital in enterprises whose success depended on the supply of a product which can be increased only according to certain organic laws. The conditions of supply and demand of all raw materials seems to explain to Mr. Baker many fluctuations in the cotton business as well as the condition of the English wool market in the fall of 1857 and the subsequent commercial crisis. 17

The most flourishing time of the worsted industry of the West-Riding of Yorkshire was from 1849 to 50. This industry employed 29,246 persons in 1838, 37,000 persons in 1843, 48,097 in 1845, 74,891 in 1850. (Factory Reports, 1850, page 60.) This prosperity of the carded wool industry began to excite certain forebodings in October, 1850. In his report for April, 1851, sub-inspector Baker says in regard to Leeds and Bradford that the condition of business is very unsatisfactory. The carded wool spinners are rapidly losing the profits of 1850, and the majority of the weavers do not make much progress. He believes that more wool machinery is momentarily standing idle than ever before, and the flax spinners are likewise discharging laborers and stopping machinery. The cycles of the textile industry are very uncertain, and he thinks that people will soon realise that no proportion is observed between the productivity of the spindles, the quantity of raw materials, and the increase of population. (Page 52.)

The same is true of the cotton industry. In the same report for October, 1858, we read that, since the fixing of the hours of labor in factories, the amounts of raw material consumed, of production, and of wages in all textile industries have been reduced to a simple rule of three. The inspector quotes from a recent lecture by Mr. Payns, who was then mayor of Blackburn, on the cotton industry, in which the industrial statistics of that region were very accurately compiled. The mayor said in substance that every actual horse-power operates 450 self-actor spindles with preparatory spinning machinery, or 200 throstle spindles, or 15 looms for cloth 40 inches wide, with machinery for reeling, warping and smoothing. Every horse-power employs two and a half laborers in spinning, or 10 in weaving. Their average wages are fully 10½ shillings per capita per week. The worked up average numbers are Nos. 30-32 for the warp and Nos. 34-36 for the woof. Assuming the product of one week's spinning to be 13 ounces per spindle, the weekly output of yarn would be 824,700 lbs., which imply a consumption of 970,000 lbs., or 2,300 bales of cotton valued at 28,300 p.st. In a circle of five miles around Blackburn the weekly consumption of cotton amounted to 1,530,000 lbs., or 3,650 bales, at a cost-price of 44,625 p.st. This is one-eighteenth of the entire cotton spun in the United Kingdom, and one-sixteenth of the entire mechanical weaving.

The inspector says that according to the calculations of Mr. Payns the total number of cotton spindles in the United Kingdom would be 28,800,000, and it would require 1,432,080,000 lbs. of cotton to keep them going at full speed. But the cotton imports, after deducting the exports, amounted in 1856 and 1857 only to 1,022,576,832 lbs. so that there must have been a shortage of 409,503,168 lbs. Mr. Payns, who had the kindness to discuss this point with the inspector, held that a computation of the annual consumption of cotton, based on the consumption of the Blackburn district, would total up too high, on account of the difference, not only of the numbers spun, but also of the excellence of the machinery. He estimated the total consumption of cotton per year in the United Kingdom at 1,000 million lbs. But if he is correct, and there is actually a surplus-import of 22½ million lbs., then the inspector thinks that demand and supply are nearly balanced, without taking into account the additional spindles and looms which are about to be erected in Mr. Payns' own district, according to him, and the same applies probably to other districts as well. (Pages 59, 60.)

III. General Illustration. The Cotton Crisis of 1861-1865.

Preliminary History, 1845-1860

1845. Prosperity of cotton industry. Price of cotton very low. L. Horner says on this point that he has not witnessed a more active period of business than that of the last summer and fall. Especially in the spinning of cotton. Throughout the entire six months he received every week reports of new investments of capital in factories. Now new factories were being built, now the few vacant ones had found new renters, now factories which were in operation were extended, new and stronger steam engines installed and more working machinery added. (Factory Reports, November, 1845, page 13.)

1845. The complaints are beginning. For some time the inspector hears general complaints among the manufacturers over the depressed state of their business. During the last six weeks, he says, various factories have begun working short time, generally 8 hours instead of 12. This seemed to become general. There had been a great rise in the price of cotton, while the price of the products had not alone not risen, but fallen to a lower figure than that before the rise in cotton. The great increase in the number of cotton factories during the preceding four years must have caused a strong increase in the demand for raw material and a large supply of products on the market. Both of these things must have operated to depress profits, so long as the supply of raw material and the demand for the product remained unchanged. But they actually had a far stronger influence, because the supply of cotton had recently been insufficient, and the demand for the product had let up in various inland and foreign markets. (Factory Reports, December, 1846, page 10.)

The rising demand for raw materials went, of course, hand in hand with the overstocking of the market with products. By the way, at that period the expansion of industry and the subsequent stagnation were not confined to the cotton districts. The carded wool district of Bradford contained in 1836 only 318 factories, but 490 in 1846. And these figures do not by any means express the actual extension of production, since the existing factories were at the same time considerably enlarged. This was especially true of the flax mills. According to the factory report, November, 1846, page 30, all of them had contributed more or less, during the preceding 10 years, to that overstocking of the market which was to blame for the stagnation of business at the time being. The depression in business followed naturally after such a rapid expansion of factories and machinery.

1847. In October, a money panic. Discount 8%. This was preceded by a collapse of railroad speculation, and of jobbing with East-Indian bills of exchange.

The factory report for October, 1847, page 30, states that Mr. Baker presented very interesting details concerning the rise in the demand for cotton, wool, and flax, in recent years, caused by the expansion of these industries. He held that the increased demand for these raw materials, particularly at a time when their supply had fallen far below the average, was sufficient to explain the prevailing depression in those lines of business, without reference to the insecurity of the money-market. This view was fully supported by the personal experience of the writer of the report, and by statements made to him by experts in business. All these various lines of business had been very much depressed, when discounts were still practicable at 5% and less. On the other hand, the supply of raw silk was abundant, prices reasonable, and the business correspondingly brisk until a few weeks previously, when doubtless the money-panic affected not only the dealers in raw silk, but still more their principal customers, the manufacturers of custom made goods. A glance at the published official reports showed that the cotton industry had increased by almost 27% during the preceding three years. As a result, cotton had risen in round figures from 4 d. to 6 d. per lb., while yarn, thanks to the increased supply, stood only a trifle above its former price. The wool industry commenced to expand in 1836. Since then it had grown by 40% in Yorkshire, and still more in Scotland. The increase in the worsted industry was still larger. 18 The calculations showed in its case, for the same length of time, an expansion of more than 74%. The consumption of raw wool had, therefore, been very large. The linen industry showed since 1839 an increase of about 25% in England, 22% in Scotland, and almost 90% in Ireland, 19 the consequence of this, and of the failure of flax crops, was that the price of the raw material rose by 10 p.st. per ton, while the price of yarn had fallen by 6 d. per bundle.

1849. Beginning with the last months of 1848, business revived. According to factory reports, 1849, pages 30, 31, the price of flax, which was so low that it guaranteed a reasonable profit under all possible future circumstances, induced manufacturers to push their business steadily. The wool manufacturers were very busy for a time in the beginning of the year. The writer of the report feared, however, that consignments of woolen goods often took the place of real demand, and that periods of seeming prosperity, that is to say, of full employment, did not always coincide with periods of legitimate demand. The worsted business was particularly good for some months. In the beginning of this period, wool stood especially low. The mill-owners had stocked them-selves at advantageous prices, and no doubt in considerable quantities. When the price of wool rose with the spring auctions, the mill-owners had the advantage, and they retained it, since the demand for goods became strong and irresistible.

On page 42 of the factory report for April, 1849, we read that, considering the fluctuations in the conditions of business, which had taken place in the factory districts for three or four years, it must be admitted that there is somewhere some great disturbing cause. May not the productive power of the increased machinery have become a new element?

In November, 1848, in May, summer, and up to October, 1849, business became more and more flourishing. The same report states on pages 42 and 43, that this applies particularly to the manufacture of goods from worsted yarn, which centers in Bradford and Halifax. At no previous time did this business approximate the extension which it had then. The speculation in raw materials, and the uncertainty of its probable supply, has always caused greater excitement and more frequent fluctuations in the cotton industry than in any other line of business. For the time being there was an accumulation of supplies of the coarser grades of cotton goods, which worried the small mill-owners and placed them at a disadvantage, so that some of them were working short time.

1850. April. Business continued brisk. Exception, according to factory report, April, 1850, page 54: There is a great depression in a portion of the cotton industry as a result of insufficient supplies of raw material precisely for coarse grades of yarn and heavy textures. It is feared that the increased machinery lately installed in the worsted business may bring about a similar reaction. Mr. Baker calculates that alone in the year 1849, the product of the looms in this business has grown by 40%, and that of the spindles by 25 to 30%, and the expansion is still continuing at the same rate.

1850. October. The factory report for October states on page 15 that the price of cotton continues to cause considerable depression in this line of industry, especially for such goods as require a considerable portion of the cost of production to be spent for raw material. The great rise in the price of raw silk has led to an aggravation of the situation in many instances, also in this line. And on page 33 of the same report we learn that the committee of the Royal Association for Flax Culture in Ireland was of the opinion that the high price of flax, together with the low level of prices of other agricultural products, had safeguarded a considerable increase in the production of flax for the ensuing year.

1853. April. Great prosperity. L. Horner says in the factory report for April, 1853, page 19, that at no time during the 17 years, in which he took official notice of the condition of the factory districts of Lancashire, has he seen such general prosperity. The activity in all lines was extraordinary.

1853. October. Depression in the cotton industry. Overproduction. (Factory Report, October, 1853, page 15.)

1854. April. The factory report for 1854, page 37, states that the wool business, while not brisk, furnished full employment for all factories. The same held good of the cotton industry. The worsted business was irregular throughout the entire preceding half year. There was a disturbance in the linen industry in consequence of the reduced supply of flax and hemp from Russia, on account of the war in the Crimea.

1859. According to the factory report for April, 1859, page 19, business was still depressed in the Scotch linen industry, because the raw material was scarce and dear. The low quality of the preceding crop in the Baltic countries, from which came the main supply, was expected to exert an injurious influence on the business of this district. On the other hand, jute, which displaced flax for many coarse goods, was neither uncommonly dear nor scarce. About one-half of the machinery in Dundee was spinning jute. The factory report for October, 1859, states on page 30, that in consequence of the high price of raw material, flax spinning is not yet profitable, and while all other factories are running on full time, there are various instances of idle flax machinery. The jute mills are in a satisfactory condition, since recently this material has fallen to a reasonable figure.

1861-64. American Civil War. Cotton Famine. The Greatest Illustration of an Interruption in the Process of Production through Scarcity and Dearness of Raw Material.

1860. April. The reporting inspector says in substance in factory report, April, 1860: I am pleased to be able to inform you that, in spite of the high price of raw materials, all textile industries, with the exception of silk, have been well employed during the last half year. In some of the cotton districts, laborers were advertised for, and secured by immigration from Norfolk and other rural counties. There seems to be a great lack of raw materials in all branches of industry. It is alone this lack which holds us back. In the cotton business, the number of factories erected, the extension of already existing ones, and the demand for laborers, has probably never been so great. Raw materials are sought on all sides.

1860. October. The factory report for October, 1860, states on page 37, that the condition of business in the cotton, wool, and flax districts has been good. It is reported to have been very good in Ireland, for more than a year, and would have been still better but for the high price of raw materials. The flax mills seem to be waiting with more impatience than ever for the opening of the resources of India by railroads, and for a corresponding development of its agriculture, in order to secure at last a supply of flax sufficient for their requirements.

1861. April. The factory report for April, 1861, states on page 33 that the condition of business for the time being was depressed. A few cotton goods factories were working short time, and many silk factories were running only a part of the time. Raw materials were dear. In almost every textile branch raw materials were quoted above the price at which they could be worked by the mass of the consumers.

It now became evident that the cotton industry had produced too much in 1860. The effect of this made itself felt for the next few years. The factory report for December, 1863, page 127, states that it took between two and three years for the world-market to absorb the overproduction of 1860. And the factory report for October, 1862, pages 28 and 29, says in so many words: The depressed condition of the markets for cotton goods in Eastern Asia, in the beginning of 1860, had a corresponding influence on the business in Blackburn, where on an average of 30,000 mechanical looms are almost exclusively engaged in the production of goods for this market. The demand for labor was, therefore, already restricted at this point many months before the effects of the blockade made themselves felt. Fortunately, many factories were thereby saved from ruin. The supplies rose in value so long as they were held in stock, and this prevented the appalling depreciation which is otherwise inevitable in such a crisis.

1861. October. According to the factory report for October, 1861, page 19, the business has been depressed for some time. It is not at all improbable that many factories will materially reduce their working time during the winter months. However, this was to be anticipated; quite aside from the causes which have interrupted the ordinary supply of cotton from America and the English exports, it would have been necessary to reduce the hours of labor during the coming winter, on account of the strong increase of production in the preceding three years, and the disturbance of the Indian and Chinese markets.

Cotton Waste. East Indian Cotton. (Surat.) Influence on the Wages of Laborers. Improvement of Machinery. Substitution of Starch Flour and Minerals for Cotton. Effect of this Starch Flour Ingredient on the Laborers. Manufacturers of Fine Grades of Yarn. Fraud on the Part of the Manufacturers.

An inspector writes in the factory report for October, 1863, page 63: A manufacturer thinks that, so far as the estimate of the cotton consumption per spindle is concerned, I did not sufficiently appreciate the fact that, when a cotton is dear, every manufacturer of ordinary yarns (say up to No. 40, mainly from 12 to 32) spins as fine grades as he possibly can, that is to say, he will spin No. 16 instead of 12, or 22 instead of 16, etc. And the weaver who works up these fine yarns, will raise his calico to the regular weight by adding so much more glue. This expedient is now used to a shameful degree. I have it on good authority that there are ordinary shirtings for export weighing 8 lbs. per piece, of which 2 lbs. were glue. Textures of other kinds are often given as much as 50% of glue, so that that manufacturer does not lie by any means who boasts of becoming a rich man by selling his fabrics at less money per pound than he paid for the yarn of which they are made.

We read furthermore in the same place: I have also been told that the weavers ascribe the growth of disease among themselves to the glue used in the woof of East-Indian Cotton and not merely consisting of flour, as heretofore. This substitute for flour is said to have the very great advantage of increasing the weight of fabrics considerably, so that 15 lbs. of yarn, after being woven, weigh 20 lbs. (This substitute was ground talcum, called China clay, or gypsum, called French chalk.) The wages of the weavers (meaning the laborers) have been very much reduced by the employment of substitutes for flour in the making of weaver's glue. This glue renders the yarn heavier, but also stiff and brittle. Every thread of the yarn passes in the loom through the bobbin, whose strong threads keep the woof in position. The stiffly glued woof continually causes breaks in the thread of the bobbin. Every break causes a loss of five minutes to the weaver for repairs. The weavers have to repair such breaks ten times as often as formerly, and the loom naturally turns out so much less during working hours. (Pages 42 and 43.)

In Ashton, Stalybridge, Oldham, etc., the working hours have been reduced by at least one-third, and are reduced still more every week. This reduction of the hours of labor is in many instances accompanied by a reduction of wages. (Page 13.) In the beginning of 1861, a strike took place among the mechanical weavers in some parts of Lancashire. Several manufacturers had announced a reduction of wages by 5 to 7.5%. The laborers insisted that the scale of wages should be maintained and the hours of labor reduced. This was not granted, and a strike was called. After one month, the laborers had to give in. But then they got both. Aside from a reduction of wages which the laborers finally accepted they also worked short time in many factories. (Factory Report, April, 1863, page 23.)

1862. April. The sufferings of the laborers had considerably increased since the last report was made. But at no time in the history of this industry have so sudden and so grievous ills been borne with so much quiet resignation and such patient self-respect. (Factory Report, April, 1862, page 10.) The proportion of the temporarily totally unemployed laborers does not seem to be much larger than in 1848, when there was an ordinary panic, which, however, was of sufficient force to induce the worried manufacturers to compile a similar statistics on the cotton industry as that now given out weekly. In May, 1848, 15% of all the cotton employes of Manchester were idle, 12% worked short time, while more than 70% worked on full time. On May 28, 1862, there were 15% idle, 35% working on short time, and 49% on full time. In the neighboring places, for instance at Stockport, the percentage of the idle and partly employed is higher, that of the fully employed lower, because coarser numbers are spun there than in Manchester. (Page 16.)

1862. October. According to the last official statistics, there were in the United Kingdom 2,887 cotton factories, of which 2,109 were in the districts of Lancashire and Cheshire. The reporting inspector knew well enough that a very large number of the 2,109 factories in his district were small establishments, which employed but a few laborers. But he was surprised when he found how large was the number of these. There were 392, or 19%, which had less than 10 horse-power motors (steam or water); 345, or 16%, had between 10 and 20 horse-powers; 1,372 had 20 horse-powers or more. A very large portion of the small manufacturers, more than one-third, had been laborers not very long ago. They are men without a command of capital. The main burden would fall upon the other two-thirds. (Factory Reports, October, 1862, pages 18, 19.)

According to the same report, 40,146, or 11.3% of the cotton employes of Lancashire and Cheshire, were then working full time; 134,767, or 38%, were working a part of the time; 197,721, or 50.7%, were unemployed. If we deduct from these figures the data referring to Manchester and Bolton, where mainly fine numbers were spun, a line little affected by the cotton famine, then the matter looks still more unfavorable, namely fully employed 8.5%, partly employed 38%, unemployed 53.3%. (Pages 19 and 20.)

It makes an essential difference for the laborers whether good or bad cotton is worked up. In the first months of the year, when the manufacturers sought to keep their factories going by using up all the cotton bought at cheap prices, much bad cotton went into factories that usually worked only with good cotton. The difference in the wages of the laborers was so great that many strikes took place because no living wage could be made at the old piece wages. In a few instances the difference due to the employment of bad cotton amounted to one-half of the total wages, even at full time. (Page 27.)

1863. April. In the course of this year, not more than about one-half of the cotton employes will work on full time. (Factory Report, April, 1863, page 14.)

A very serious inconvenience in the employment of East-Indian cotton, such as the factories must use at this time, is that the speed of the machinery must be considerably reduced with it. During the last years, everything has been tried to increase the speed, so that the same machinery might do more work. However, the reduced speed hits the laborer as much as the manufacturer. For the majority of the laborers are paid by the piece, the spinners receiving so much per lb. of yarn spun, the weavers so much per piece woven. And even the others, who work on weekly wages, will suffer a reduction through the restriction of production. According to the researches of the inspector, and the data received by him, referring to the wages of the cotton employes during the year, there is an average reduction of 20% in some cases as much as 50%, compared to the wages which were in vogue in 1861. (Page 13.) The amount earned depends on the quality of the material worked up. The condition of the laborers, so far as earnings are concerned, is much better now (October, 1863) than at the same time last year. The machinery has been improved, the raw material is better known, and the laborers overcome the difficulties better with which they had to struggle in the beginning. In the previous spring, the inspector was in a sewing school in Preston (a charity institution for unemployed). Two young girls, who had been sent to a weaving establishment on the strength of a promise that they would be able to make 4 shillings per week, asked to be readmitted to the school and complained that they could not make 1 shilling per week. The inspector has had information concerning self-acting minders, that is to say, men who operate a few self-actors, who had earned 8 sh. 11d. after 14 days of full employment, and their house-rent was deducted from this sum. The manufacturer returned one-half of this rent to them as a gift. (How generous!) The minders carried home the amount of 6 sh. 11 d. In some places the self-acting minders earned from 5 to 9 sh. per week, the weavers from 2 to 6 sh. per week, during the last months of 1862. At the time of the report there was a healthier condition of things, although even then the earnings in most districts had decreased still more. Other conditions contributed to the scanty earnings, aside from the shorter staple of East-Indian cotton and its impurity. For instance, it had become the custom to mix plenty of cotton waste with the Indian cotton, and this increases, of course, the difficulties for the spinner. Owing to the shortness of the fiber, the threads break more easily in drawing out the mule and twisting the yarn, and the mule cannot be kept going so regularly. Furthermore, one girl frequently can watch but one loom, because she must pay more attention to the threads. But few of them have more than two looms. In many cases the wages of the laborers have been reduced by 5, 7.5, and 10%. In the majority of cases the laborer must handle his raw material as best he may, and try to make wages at the ordinary scale to the best of his power. Another difficulty with which the weavers have sometimes to struggle is that they are supposed to make good fabrics out of bad materials, and are fined by deductions from their wages, if the work is not all that is desired. (Factory reports, October, 1863, pages 41-43.)

Wages were miserable, even in places where full time was worked. The cotton employes willingly offered themselves for all public labors, drainage, road building, stone breaking, street paving, which they did in order to get their keep from the authorities (although this amounted practically to an assistance for the manufacturers. See volume I, chapter XXV, 3.) The whole bourgeoisie stood guard over the laborers. If the worst of a dog's wages were offered, and the laborer refused to accept them, then the Assistance Committee struck him from their list. It was in a way a golden age for the manufacturers, for the laborers had either to starve or work at any price profitable for the bourgeois. The Assistance Committees acted as watch-dogs. At the same time the manufacturers, in secret agreement with the government, hindered emigration as much as possible, either for the purpose of having their capital, invested in the flesh and blood of laborers, ready at hand, or of safeguarding the squeezing of rent out of the laborers.

The Assistance Committees acted with great severity in this matter. If work was offered, the laborers to whom it was offered were stricken from the lists and compelled to accept. If they refused to begin work, the reason was that their earnings were but nominal, while the work was extraordinarily hard. (Page 97.)

The laborers were willing to perform any work for which they were employed in consequence of the Public Work Acts. The principles according to which industrial occupations were assigned, varied considerably in different cities. But even in places where work in the open air was not absolutely regarded as a labor test, this labor was either compensated with the bare ordinary charity sum, or so insignificantly better that it actually became a labor test. (Page 69.) The Public Works Act of 1863 was to remedy this evil and to enable the laborer to earn his wages as an independent day laborer. The purpose of this Act was threefold: 1) To enable local authorities to borrow money from the loan treasury commissioners (with the consent of the president of the state's central poor boards; 2) to facilitate improvements in the cities of the cotton districts; 3) to secure work and remunerative wages for the unemployed laborers. Up to the end of 1863, loans to the amount of 883,700 p.st. had been granted under this Act. (Page 70.) The enterprises started were mainly canalisation, road building, street paving, reservoirs for water works, etc.

Mr. Henderson, president of the committee of Blackburn, wrote with reference to this to factory inspector Redgrave, that in his entire experience in the course of this period of suffering and misery nothing had struck him more emphatically or given him so much pleasure as the serene willingness with which the unemployed laborers of his district accepted the work offered to them by the city council of Blackburn pursuant to the Public Works Act. A greater contrast could hardly be imagined than that between the cotton spinner, who formerly worked as a skilled man in the factory, and the day-laborer, who now works in a depth of 14 or 18 feet on a drainage canal. (They earned thereby about 4 to 12 sh. per week, according to the size of their families, and this last enormous amount had to provide sometimes for a family of eight. The gentlemen of the bourgeoisie derived a double profit from this. In the first place, they secured money for the improvement of their smoky and neglected cities at exceptionally low interest. In the second place, they paid wages to the laborers at a scale far below the ordinary.) Mr. Henderson thinks that this ready willingness on the part of the laborers to accept the offered employment implied great self-denial and consideration, and deserved all honor, since they were accustomed to an almost tropical temperature, to work in which skill and accuracy counted for more than muscular strength, and to wages which were double, or sometimes treble, of what they could earn now. In Blackburn the men were tried at all possible kinds of labor in the open air. They dug through a stiff and heavy clay soil to a considerable depth, they did drainage work, broke stones, built roads, made excavations for street canals to a depth of 14, 16, and sometimes 20 feet. Frequently they stood in mud and water from 10 to 12 inches deep, and they were exposed to a climate whose wet cold was not exceeded, or perhaps not equalled, in any other district of England. (Pages 91 and 92.) The attitude of the laborers has been almost faultless, their willingness to accept work in the open air and to get along on it. (Page 69.)

1864. April. Occasionally complaints about lack of laborers are heard in various districts, especially in certain branches, for instance weaving. But these complaints are due as much to the low wages which the laborers may earn in consequence of the bad kinds of yarn as to an actual scarcity of laborers in this particular line. Numerous disputes over wages took place during the preceding month between some manufacturers and their laborers. The inspector regrets that strikes occurred far too frequently. The effect of the Public Works Act is now resented by the manufacturers as a competition, and as a result the local committee of Bacup has suspended its activity. For although all the factories are not yet running, there has already been a lack of laborers. (Factory Report, April, 1864, pages 9 and 10.) It was indeed high time for the manufacturers to act. In consequence of the Public Works Act the demand for laborers grew so much that many a factory hand was making 4 to 5 shillings per day in the quarries of Bacup. And so the public works were gradually suspended; this new edition of the Ateliers nationeaux of 1848, which had this time been opened in the interests of the bourgeoisie.

Trying it on the Dog

Although the very reduced wages (of the fully employed), the actual earnings of the laborers in the different factories, have been given, it does not follow that they earn the same amount week after week. The laborers are exposed to great fluctuations at this place, in consequence of the continual experiments made by the manufacturers with different kinds and proportions of cotton and waste in the same factory. The "Mixtures," as they are called, are frequently changed, and the earnings of the laborers rise and fall with the quality of cotton mixtures. At times they earned only 15% of their former wages, and in one or a couple of weeks wages fell to 50 or 60%. Inspector Redgrave, who makes this report, then proceeds to figures of wages selected from practical life. The following examples may suffice:

A, weaver, family of 6 persons, employed 4 days in the week, 6 sh. 8.5 d.; B, twister, 4.5 days per week, 6 sh.; C, weaver, family of 4, 5 days per week, 5 sh. 1 d.; D, slubber, family of 6, employed 4 days per week, 7 sh. 10 d.; E, weaver, family of 7, employed 3 days, 5 sh., etc. Redgrave continues in substance: These data deserve attention, for they prove that labor would become a misfortune in some families, since it reduces not only the earnings, but depresses them so low that they become totally insufficient to satisfy anything but a small part of a family's absolute necessities, unless additional assistance were given in cases where the earnings of a family do not reach the amount which would be granted to them if all of them were unemployed. (Factory Reports, October, 1863, pages 50-53.)

In no week since June 5, 1863, has the average total employment of all laborers been more than 7 hours and some minutes. (Page 121.)

From the beginning of the crisis to March 23, 1863, nearly three million pounds sterling were expended by the poor boards, the central committee of charity, and the London Mansion House committee. (Page 13.)

In one district, in which perhaps the finest yarn is spun, the spinners suffer an indirect reduction of wages of 15% as a result of passing from Sea Island to Egyptian cotton.

In one extended district, in which cotton waste is used in large quantities as an admixture to Indian cotton, the spinners have had their wages reduced by 5%, and lost besides from 20 to 30% by working up Surat and waste. The weavers have dropped from four looms to two. In 1860 they made 5 sh. 7 d. on each loom, but in 1863 only 3 sh. 4 d. The fines, which amounted to from 3 to 6 d. per spinner on American cotton, now run as high as 1 sh. to 3 sh. 6 d. In one district, in which Egyptian cotton was used, mixed with East-Indian, the average earnings of the mule spinners in 1860 was from 18 to 25 sh., while it is only from 10 to 18 sh. now. This not exclusively due to deteriorated cotton, but also to the decreased speed of the mule, in order to give to the yarn a stronger twist, for which extra payment according to the wage scale would have been made in ordinary times. (Pages 43, 44, 45-50.) Although East-Indian cotton may have been worked here and there at a profit for the manufacturers, the wage list on page 53 shows that the laborers suffer from it, compared with 1861. If the use of Surat becomes a settled fact, the laborers would demand the same wages as in 1857. But this would seriously affect the profits of the manufacturers, unless it would be balanced by the price of either the cotton or the products. (Page 105.)

House-Rent. The house-rent of the laborers living in cottages belonging to the manufacturers, is frequently deducted from their wages, even if only short time is worked. Nevertheless the value of these buildings has fallen, and the cottages are now from 25 to 50% cheaper than formerly. A cottage which formerly rented from 3 sh. 6 d. per week, may now be had for 2 sh. 4d., and sometimes for less. (Page 57.)

Emigration. The employers were, of course, opposed to the emigration of the laborers, in the first place because they wished, in the expectation of better times in the cotton industry, to keep the means at hand for the profitable operation of their factories. In the second place some employers are owners of cottages in which their employes are to live, and at least some of them calculate without fail to collect at least a portion of the rent due them. (Page 96.)

Mr. Bernall Osborne says in a speech to his parliamentary constituents, on October 22, 1864, that the laborers of Lancashire had behaved like ancient stoic philosophers. Perhaps they acted like sheep?

CHAPTER VII.: ADDITIONAL REMARKS.

TAKE it, in accordance with the assumption on which this section is based, that the mass of profit appropriated in any particular sphere of production is equal to the sum of the surplus-values produced by the total capital invested in this sphere. Nevertheless the bourgeois will not consider his profit as identical with the surplus-value, that is to say, with unpaid surplus-labor. And he will do so, for the following reasons.

1) He forgets the process of production in the process of circulation. He is of the opinion that surplus-value is made by his realisation on the value of commodities, which includes realisation on their surplus-value. [There is a blank at this place, indicating that Marx intended to dwell in detail on this point.—F. E.]

2) Assuming a uniform degree of exploitation, we have seen that the rate of profit may differ considerably according to the relative cheapness or dearness of raw materials and the experience of the buyer, according to the relative productivity, efficacy, and cheapness of the machinery employed, according to the greater or lesser perfection of the general equipment of the various stages of the productive process, the simplicity and effectiveness of the management, etc.; all this without reference to any modifications due to the credit-system, to the mutual cheating of the capitalists among themselves, to any favorable choice of the market. In short, given the surplus-value for a certain capital, it depends still very much on the individual business ability of the capitalist, or of his managers and salesmen, whether this same surplus-value realises a greater or smaller rate of profit and thus yields a greater or smaller mass of profit. The same surplus-value of 1,000 p.st., a product of 1,000 p.st. of wages, may be calculated in the business of A on 9,000 p.st., in the business of B on 11,000 p.st. of constant capital. In the case of A we have then p' = 1000/10,000, or 10%. In the case of B we have p' = 1000/12,000, or 8 1/3%. The total capital produces relatively more profit in the business of A than in that of B, although the variable capital advanced in either case is 1,000 p.st., and the surplus-value produced by it likewise 1,000 p.st., so that there is in both cases the same degree of exploitation of the same number of laborers. This difference in the materialisation of the same mass of surplus-value, or the difference in the rates of profit, may also be due to other causes. Still, it may be due wholly to a difference in business ability in both establishments. And this fact leads the capitalist to the conviction that his profits are due, not to the exploitation of labor, but at least, in part, to other circumstances independent of that exploitation, particularly to his individual activity.

The analyses of this part of the work demonstrate the erroneousness of the view (Rodbertus) according to which (in distinction from ground-rent, in the case of which the area of real-estate is said to remain the same and yet to produce a higher rent) a change in the magnitude of a certain capital is said to have no influence on the proportion of profit to capital, and thus on the rate of profit, on the assumption that the mass of capital, on which profits are calculated, grows simultaneously with the mass of profits, and vice versa.

This is true only in two cases. In the first place, it is true, assuming all other circumstances, especially the rate of surplus-value, to remain unchanged, if there is a change in the value of that commodity which is a money-commodity. (The same occurs in the case of a merely nominal change of value, the rise or fall of mere tokens of value while other circumstances remain the same.) Take it that the total capital amounts to 100 p.st., with a profit of 20 p.st., so that the rate of profit is 20%. Now, if gold rises or falls by 50%, the same capital, in the first eventuality, will be worth 150 p.st., which was previously worth only 100 p.st., and the profit will be worth 30 p.st., that is to say, it will be worth that much in money instead of 20 p.st., as before. In the second eventuality, the capital of 100 p.st. will be worth only 50 p.st., and the profit will be represented by the value of 10 p.st. But in either case 150 : 30 = 50 : 10 = 100 : 20 = 20%. But in all these cases there would have been no actual change in the magnitude of capital-value, but only in the money-expression of the same value and the same surplus-value. For this reason s/C, or the rate of profit, could not be affected.

The second case is that in which an actual change of magnitude takes place in the value, but without being accompanied by a change in the proportion of v to c, in other words, when the rate of surplus-value remains the same and the proportion of the variable capital invested in labor-power (considered as an index of the amount of labor-power set in motion) to the constant capital invested in means of production remains the same. Under these circumstances, we may have C, or nC, or C/n, for instance 1,000, or 2,000, or 500. If the rate of profit is 20%, the profit will be 200 in the first case, 400 in the second, and 100 in the third. But 200 : 1,000 = 400 : 2,000 = 100 : 500 = 20%, that is to say the rate of profit remains unchanged, because the composition of capital remains the same and is not effected by its change of magnitude. An increase or decrease in the mass of profit shows therefore merely an increase or decrease in the magnitude of the invested capital.

In the first case, then, there is but seemingly a change in the magnitude of the employed capital, while in the second case there is an actual change of magnitude, but no change in the organic composition of the capital, that is to say, in the relative proportions of the variable and constant portions. With the exception of these two cases, a change in the magnitude of the employed capital is either the result of a preceding change of value in one of the components of capital, and therefore of a change in the relative magnitudes of these components (unless the surplus-value itself varies with the variable capital); or, this change of magnitude (for instance in the case of enterprises on a large scale, the introduction of new machinery, etc.) is the cause of a change in the relative magnitudes of the organic components of capital. In all these cases, other circumstances remaining unchanged, a change in the magnitude of the employed capital must be accompanied simultaneously by a change in the rate of profit.

An increase in the rate of profit is always due to a relative or absolute increase of the surplus-value in proportion to its cost of production, for instance to the advanced total capital, or to a decrease in the difference between the rate of profit and the rate of surplus-value.

Fluctuations in the rate of profit, independently of changes in the organic components of capital, or of the absolute magnitude of the capital, may occur through a rise or fall of the value of the advanced capital, whether it be fixed or circulating, caused by a prolongation or reduction of the working time required for its reproduction, this change in the working time taking place independently of already existing capital. The value of every commodity, including the commodities of which capital consists, is determined, not by the necessary labor-time contained in it individually, but by the social labor-time necessary for its reproduction. This reproduction may take place under aggravating or under propitious circumstances, which differ from the conditions of original production. If it takes under altered conditions double the time, or half as much time, to reproduce the same material capital, and if the value of money remained unchanged, then a capital formerly worth 100 p.st. would be worth 200 p.st. or 50 p.st. If this appreciation or depreciation were to affect all parts of capital uniformly, then the profit would also be expressed correspondingly in double, or half, the amount of money. But if appreciation or depreciation imply a change in the organic composition of capital, if they imply a raising or lowering of the proportion between the variable and constant portions of capital, then the rate of profit, other circumstances remaining the same, will grow with a relatively growing, and fall with a relatively falling, variable capital. If only the money-value of the advanced capital rises or falls (in consequence of a change in the valuation of money) then the money-value of the surplus-value rises or falls in the same proportion. The rate of profit remains unchanged.

PART II.: CONVERSION OF PROFIT INTO AVERAGE PROFIT.

CHAPTER VIII.: DIFFERENT COMPOSITION OF CAPITALS IN DIFFERENT LINES OF PRODUCTION AND RESULTING DIFFERENCES IN THE RATES OF PROFIT.

IN the preceding part we demonstrated among other things that the rate of profit may vary, may rise or fall, while the rate of surplus-value remains the same. In the present chapter we assume that the intensity of exploitation, and therefore the rate of surplus-value and the length of the working day, are the same in all spheres of production into which the social labor of a certain country is divided. Adam Smith has already shown explicitly that many differences in the exploitation of labor in different spheres of production balance one another by many actual causes, or causes regarded as such by prevailing prejudices, so that they are mere evanescent distinctions and are of no moment in this calculation. Other differences, for instance those in the scale of wages, rest largely on the difference between simple and complicated labor, mentioned in the beginning of volume I, which do not affect the intensity of exploitation in the different spheres of production, although they render the conditions of the laborers in those spheres very unequal. For instance, if the labor of a goldsmith is paid better than that of a day-laborer, the surplus-labor of the goldsmith produces correspondingly more surplus-value than that of the day-laborer. And while the compensation of wages and working days, and thereby of the rates of surplus-value, between different spheres of production, or even different investments of capital in the same sphere of production, is checked by many local obstacles, it is nevertheless accomplished at an increasing degree with the advance of capitalist production and the subordination of all economic conditions under this mode of production. The study of such frictions, while quite important for any special work on wages, may be dispensed with as being accidental and unessential in a general analysis of capitalist production. In such a general analysis it is always assumed that the actual conditions correspond to the terms used to express them, or, in other words, that actual conditions are represented only to the extent that they are typical of their own case.

The difference in the rates of surplus-value in different countries, and consequently in the degree of national exploitation of labor, is immaterial for our present analysis. For we desire to analyse precisely the way in which a general rate of profit is brought about in a certain country. It is evident, however, that a comparison of the various national rates of profit requires but a collation of previous analyses with that which is to follow. First consider the differences in the national rates of surplus-value, then compare on this basis the differences in the national rates of profit. Those differences which are not due to differences in the national rates of surplus-value, must be due to circumstances in which the surplus-value is assumed to be universally the same, constant, as it is in the analysis of this chapter.

We demonstrated in the preceding chapter that, assuming the rate of surplus-value to be constant, the rate of profit may rise or fall in consequence of circumstances which raise or lower the value of one or the other parts of constant capital, and so affect the proportion between the variable and constant components of capital in general. We observed, furthermore, that circumstances which prolong or reduce the time of turn-over of a certain capital may also influence the rate of profit in a similar manner. Since the mass of profits is identical with the mass of surplus-value, the surplus-value itself, it was also seen that the mass of profits, in distinction from the rate of profits, was not touched by the aforementioned fluctuations of value. These fluctuations modified merely the rate through which a certain surplus-value, and therefore a profit of a given magnitude, express themselves, in other words, they indicate the relative magnitude of surplus-value, or profits, as compared with the magnitude of the advanced capital. To the extent that capital was released or tied up by such fluctuations of value, it was not only the rate of profit, but the profit itself, which could be affected by this indirect route. However, this always applied only to such capital as was already engaged, not to new investments about to be made. Besides, the increase or reduction of profit always depended on the extent to which the same capital could set in motion more or less labor in consequence of such fluctuations of value, in other words, the extent to which the same capital, with the same rate of surplus-value, could obtain a larger or smaller amount of surplus-value. So far from contradicting the general rule, or being an exception from it, this seeming exception was really but a special case in the application of the general rule.

It was seen in the preceding part, that the rate of profit varied, when the degree of exploitation was constant while the value of the component parts of constant capital, and the time of turn-over of capital, changed. The obvious conclusion from this was that the rates of profit of different spheres of production existing simultaneously side by side had to differ, when, other circumstances remaining unchanged, the time of turn-over of the invested capitals differed, or when the proportions of the values of the organic components of these capitals were different in the different lines of production. That which we previously regarded as changes occurring successively in the same capital will now be considered as simultaneous differences of contemporaneous investments of capital in different spheres of production.

Under these circumstances we shall have to analyse: 1) The differences in the organic composition of capitals. 2) The differences in their times of turn-over.

The natural premise in this entire analysis is that, in speaking of the composition, or of the turn-over, of a capital in a certain line of production, we always mean the average normal proportions of the capital invested in this line, or, more generally, of the average of the total capital invested in this sphere, not of the temporary differences of the individual capitals in it.

Since our assumption is, furthermore, that the rate of surplus-value and the working day are constant, and since this assumption implies also the constancy of wages, it follows that a certain quantity of variable capital expresses a definite quantity of exploited labor-power and therefore a definite quantity of materialised labor. In other words, if 100 p.st. represent the weekly wages of 100 laborers, indicating 100 actual labor-powers, then n times 100 p.st. indicates the labor-powers of n times 100 laborers, and 100/n p.st. those of 100/n laborers. The variable capital serves here, as is always the case when the wages are given, as an index of the amount of labor set in motion by a definite total capital. Differences in the magnitude of the employed variable capitals serve, therefore, as indices of the differences in the amount of labor-power set in motion. If 100 p.st. indicate 100 laborers per week, representing 6,000 working hours, if the weekly working time is 60 hours, then 200 p.st. indicate 12,000, and 50 p.st. indicate 3,000 working hours.

By the composition of capital we mean, as we have stated in volume I, the proportions of its active and passive parts, of variable and constant capital. Two proportions require consideration under this heading. They are not equally important, although they may produce the same effects under certain circumstances.

The first proportion rests on a technical basis, and must be considered as existing at a certain stage of development of the productive forces. A definite quantity of labor-power, represented by a definite number of laborers, is required for the purpose of producing a definite quantity of products, for instance in one day, and thereby to consume productively, by setting in motion, a definite quantity of means of production, machinery, raw materials, etc. A definite number of laborers corresponds to a definite quantity of means of production, so that a definite quantity of living labor corresponds to a definite quantity of materialised labor in means of production. This proportion differs a great deal in different spheres of production, and frequently even in different branches of one and the same industry. On the other hand, it may occasionally be entirely or approximately the same in widely separated lines of industry.

This proportion forms the technical composition of capital and is the primary basis of its organic composition.

However, it is possible that this first proportion may be the same in different lines of industry, provided that the variable capital is merely an index of labor-power, and the constant capital merely an index of the mass of means of production set in motion by the labor-power. For instance, certain work in copper and iron may be conditioned on the same proportional composition between labor-power and the mass of means of production. But since copper is more expensive than iron, the proportion of value between variable and constant capital may be different in either case, and then the composition of the value of the total capitals is, of course, likewise different. The difference between the technical composition and the composition of values is manifested by each branch of industry by the fact that the proportion of the values of the two parts of capital may vary while the technical composition is constant, and the proportion of values may remain the same while the technical composition varies. This last eventuality will, of course, be possible only if the change in the proportion of the employed masses of means of production and labor-power is compensated by an opposite change in their values.

The composition of the values of capital, which is determined by, and reflects, its technical composition, is called the organic composition of capital. 20

We assume, then, that the variable capital is the index of a definite quantity of laborers, or of labor-power, or a definite quantity of living labor set in motion. We saw in the preceding part that a change in the magnitude of the value of variable capital might eventually indicate nothing but a higher or lower price of the same mass of labor. But here, where the rate of surplus-value and the working day have been assumed to be constant, and the wages for a definite working time are given, this is out of the question. On the other hand, a difference in the magnitude of the constant capital may likewise be an index of a change in the mass of means of production set in motion by a definite quantity of labor-power. Still, it may also be due to a difference in value between the means of production set in motion in one sphere and those of another. Both points of view must be considered here.

Finally, the following essential facts must be taken into account:

Take it that 100 p.st. are the weekly wages of 100 laborers. Take it that the working hours are 60 per week. Take it, furthermore, that the rate of surplus-value is 100%. In that case, the laborers work 30 of the 60 hours for themselves, and 30 hours gratis for the capitalist. In fact, those 100 p.st. of wages represent only 30 working hours of those 100 laborers, or a total of 3,000 working hours, while the other 3,000 hours worked by the laborers are incorporated in the 100 p.st. of surplus-value, or as profit, pocketed by the capitalist. Although the wages of 100 p.st. do not express the value in which the weekly labor of those 100 laborers is materialised, still they indicate (since the length of the working day and the rate of surplus-value are given) that this capital set in motion 100 laborers for 6,000 working hours. The capital of 100 p.st. indicates this, first, because it indicates the number of laborers set in motion, since one pound sterling stands for one laborer per week, and 100 p.st. for 100 laborers per week; and in the second place, because every laborer set in motion performs twice the work for which his wages pay, at the given rate of surplus-value of 100%, so that one pound sterling, his wages, the expression of half a week of labor, actually set in motion one whole week's labor, and in the same way 100 p.st., although they pay only for 50 weeks of labor, set in motion 100 weeks of labor. There is, then, an essential difference between variable capital so far as its value, invested as a wages-capital, represents a certain sum of wages, a definite quantity of materialised labor, and variable capital so far as its value is a mere index of the quantity of living labor set in motion by it. This last-named labor is always greater than that incorporated in the variable capital, and is, therefore, represented by a greater value than that of the variable capital. This greater value is determined on one hand by the number of laborers set in motion by the variable capital, and on the other by the quantity of surplus-labor performed by them.

This mode of looking upon variable capital leads to the following conclusions:

When a capital invested in the sphere of production A expends only 100 in variable capital for each 700 of total capital, leaving 600 for constant capital, while a capital invested in the sphere of production B expends 600 for variable and only 100 for constant capital, then the capital of 700 in A will set in motion only 100 of labor-power, or, in terms of our previous assumption, 100 weeks of labor, or 6,000 hours of living labor, while the same amount of capital in B will set in motion 600 weeks of labor or 36,000 hours of living labor. The capital in A would then appropriate only 50 weeks of labor, or 3,000 hours of surplus-labor, while the same amount of capital in B would appropriate 300 weeks of labor, or 18,000 hours. The variable capital is the index, not only of the labor embodied in it, but also, when the rate of surplus-value is known, of the labor set in motion over and above that embodied in itself, in other words, of the surplus-labor. With the same intensity of exploitation, the profit in the first case would be 100/700, or 1/7, or 14 2/7%, and in the second case 600/700, or 6/7, or 85 5/7%, six times the rate of profit of the first. In this case, the profit itself would actually be six times that of A, 600 in B as against 100 in A, because the same capital set in motion six times the quantity of living labor, which, with the same degree of exploitation, means six times as much surplus-value and thus six times as much profit.

If the capital invested in A were not 700, but 7,000 p.st., while that invested in B were only 700 p.st., and the organic composition of both were to remain the same, then the capital in A would expend 1,000 p.st. of the 7,000 as variable capital, that is to say, it would employ 1,000 laborers per week at 60,000 hours of living labor, of which 30,000 would be surplus-labor. But yet each 700 p.st. of the capital in A would continue to set in motion only one-sixth of the surplus-labor of the capital in B, and produce only one-sixth of the profit of this capital. If we consider the rate of profit, then 1000/7000, or 100/700, or 14 2/7%, would be the rate of the capital in A, compared with 600/700, or 85 5/7%, of the capital in B. Taking equal amounts of capital for comparison, the rates of profit differ here, because the masses of surplus-value, and thus of profits, differ, although the rates of surplus-value are the same, owing to the different masses of living labor set in motion.

The same result follows, if the technical conditions are the same in both spheres of production, while the value of the elements of constant capital is greater or smaller in the one than in the other. Let us assume that both invest 100 p.st. in variable capital and employ 100 laborers per week, which set in motion the same quantity of machinery and raw materials. But let the last-named elements of production be more expensive in B than in A. For instance, let the 100 p.st. of variable capital in A set in motion 200 p.st. of constant capital, and in B 400 p.st. of constant capital. With the same rate of surplus-value, 100%, the surplus-value produced is in either case 100 p.st. Hence the profit is also 100 p.st. But the rate of profit in A is 100/200 c 100 v, or 1/3, or 33 1/3%, while in B it is 100/400 c 100 v, or 1/5, or 20%. In fact, if we select a certain aliquot part of the total capital from either side, we find that every 100 p.st. in B sets aside only 20 p.st., or one-fifth, for variable capital, while every 100 p.st. in A sets aside 33 1/3% p.st., or one-third, for this purpose. B produces less profit to each 100 p.st., because it sets in motion less living labor than A. The difference in the rates of profits resolves itself once more, in this case, into a difference of the masses of surplus-value, and thus masses of profit, produced per each 100 of capital invested.

The difference of this second example from the first is just this: The compensation between A and B, in the second case, would require only a change in the value of the constant capital of either A or B, provided the technical basis remained the same. But in the first case, the technical basis itself is different, and would have to be revolutionised in order to consummate a compensation.

The different organic composition of various capitals, then, is independent of their absolute magnitude. It is always but a question of what part of every 100 is variable and what part constant.

Capitals of different magnitude, calculated in percentages, or, what amounts to the same in this case, capitals of the same magnitude, working with the same working time and the same degree of exploitation, may produce considerably different amounts of surplus-value, and thus of profit, for the reason that a difference in the organic composition of capital in different spheres of production implies a difference in their variable parts, and thus a difference in the quantities of living labor set in motion by them, which implies a difference in the quantities of surplus-labor appropriated by them. And this surplus-labor is the substance of surplus-value and of profit. Equal portions of the total capital in the various spheres of production comprise the sources of unequal portions of surplus-value, and the only source of surplus-value is living labor. With the same degree of labor-exploitation the mass of labor set in motion by a capital of 100, and consequently the mass of surplus-value appropriated by it, depend on the magnitude of its variable component. If a capital, consisting of percentages of 90 c + 10 v, produced as much surplus-value, or profit, with the same degree of exploitation, as a capital consisting of percentages of 10 c + 90 v, then it would be as plain as daylight that the surplus-value, and value in general, must have an entirely different source than labor, and that political economy would then be without a rational basis. If we assume continually that one pound sterling stands for the weekly wages of a laborer working 60 hours, and that the rate of surplus-value is 100%, then it is evident that the total product in values which one laborer can supply in one week, is 2 p.st. Then 10 laborers cannot supply more than 20 p.st. And since 10 p.st. of the 20 reproduce the wages, those 10 laborers cannot produce any more surplus-value than 10 p.st. On the other hand the 90 laborers, whose total product is 180 p.st., and whose wages amount to 90 p.st., produce a surplus-value of 90 p.st. The rate of profit in the one case would be 10%, in the other 90%. If matters were different, then value and surplus-value would be something else than materialised labor. Seeing, then, that capitals in different spheres of production, calculated in percentages—or capitals of equal magnitude—are differently divided into variable and constant capital, so that they set in motion unequal quantities of living labor and produce different surplus-values, and profits, it follows that the rate of profit, which consists precisely of the calculation of the percentage of surplus-value on the total capital, must also differ.

Now, if capitals in different spheres of production, calculated in percentages, in other words, capitals of equal magnitude, produce unequal profits in different spheres of production, in consequence of their different organic composition, then it follows that the profits of unequal capitals in different spheres of production cannot be proportional to the magnitude of their respective capitals, or, in slightly different words, profits in different spheres of production are not proportional to the magnitude of the respective capitals invested in them. For if profits were to grow at the rate of the investment of capital, it would mean that the percentage of profits was the same, so that capitals of equal magnitude in different spheres of production would have equal rates of profit, in spite of their different organic composition. Only within the same sphere of production, in which the organic composition of capital is known, or in different spheres of production with the same organic composition of capitals, do the masses of profits stand in direct ratio to the masses of capitals invested. To say that the profits of capitals of different magnitude are proportional to their magnitudes is only another way of saying that capitals of equal magnitude yield equal profits, or that the rate of profits is the same for all capitals, whatever may be their organic composition and their magnitude.

These statements hold good on the assumption that the commodities are sold at their values. The value of a commodity is equal to the value of the constant capital contained in it, plus the value of the variable capital reproduced in it, plus the increment of this variable capital, which increment is the surplus-value. With the same rate of surplus-value, its mass evidently depends on the mass of the variable capital. The value of the product of a capital of 100 is in the one case 90 c + 10 v + 10 s, or 110, in the other 10 c + 90 v + 90 s, or 190. If the commodities are sold at their values, then the first product is sold at 110, of which 10 represent surplus-value, or unpaid labor; the second product is sold at 190, of which 90 represent surplus-value, or unpaid labor.

This is especially important when international rates of profit are compared with one another. Let us assume that the rate of surplus-value in some European country is 100%, so that the laborer works one-half of the working day for himself and the other half for his employer. Let us assume, furthermore, that the rate of profit in some Asiatic country is 25%, so that the laborer works four-fifths of the working day for himself, and one-fifth for his employer. Let the composition of the national capital in the European country be 84 c + 16 v, that of the national capital of the Asiatic country, where little machinery, etc., is used, and a given quantity of labor-power consumes relatively little raw material productively in a given time, 16 c + 84 v. Then we have the following calculation:

In the European country: Value of product 84 c + 16 v + 16 s, or 116; rate of profit 16/100, or 16%.

In the Asiatic country: Value of product 16 c + 84 v + 21 s, or 121; rate of profit 21/100, or 21%.

The rate of profit in the Asiatic country is higher by more than 25% than in the European country, although the rate of surplus-value is four times smaller in the former than in the latter. Men like Carey, Bastiat, and others, would come to the opposite conclusion.

By the way, different national rates of profit will generally be based on different national rates of surplus-value. But we compare in this chapter unequal rates of profit resting on the same rate of surplus-value.

Aside from differences of organic composition of capitals, which imply different masses of labor, and consequently, other circumstances remaining the same, of surplus-labor, which set in motion capitals of the same magnitude in different spheres of production, there is still another source for the inequality of rates of profit. This is the different length of the time of turn-over of capital in different spheres of production. We have seen in chapter IV that, other circumstances being the same, the rates of profits of capitals of the same organic composition are proportioned inversely as their times of turn-over. We have also seen that the same variable capital, if turned over in different periods of time, produces unequal masses of annual surplus-value. The difference of the times of turn-over, then, is another reason why capitals of the same magnitude in different spheres of production do not produce equal profits in equal times, and why the rates of profit in these different spheres differ.

On the other hand, the proportional composition of capitals as to fixed and circulating capital does not in itself affect the rate of profit. It can affect this rate only in the case that this difference in composition either coincides with a different proportion of the variable and constant parts so that the difference in the rate of profit is due to this difference in organic composition, and not to the different proportions between fixed and circulating capital; or, if the difference in the proportion of fixed and circulating capital is responsible for a difference in the time of turn-over, during which a certain profit is realised. If capitals are divided into fixed and circulating capital in different proportions, it will, of course, always have an influence on the time of turn-over and cause differences in it. But this does not imply that the time of turn-over, in which the same capitals realise certain profits, is different. For instance, A may have to convert the greater part of its product continually into raw materials, etc., while B may use the same machinery, etc., for a longer time, and need less raw material, but both A and B have a part of their capital engaged so long as they are producing; the one in raw materials, that is to say circulating capital, the other in machinery, etc., or fixed capital. The capitalist in A continually converts a portion of his capital from commodities into money, and this into raw materials, while the capitalist in B employs a portion of his capital for a longer time as an instrument of labor without any such conversions. If both of them employ the same amount of labor, they will sell masses of products of unequal value during the year, but both masses of products will contain the same amount of surplus-value, and their rates of profit, calculated on the entire capital invested, will be the same, although their proportional composition of fixed and circulating capital, and their times of turn-over, are different. Both capitals realise equal profits in equal times, although they are turned over in different periods of time. 21 The difference in the time of turn-over has in itself no importance except so far as it affects the mass of surplus-value which may be appropriated and realized by the same capital in a certain time. Seeing that a different distribution of the fixed and circulating capital of A and B does not necessarily imply a different time of turn-over, which would in its turn imply a different rate of profit, it is evident, if there is such a difference in the rates of profit of A and B, that it is not due to a difference in the proportions of fixed and circulating capital as such, but rather to the fact that these different proportions indicate an inequality in the times of turn-over affecting the rates of profit.

It follows, then, that a difference in the composition of capitals in various lines of production, referring to their fixed and circulating portions, has in itself no bearing on the rate of profit, since it is the proportion between the constant and variable capital which decides this question, and since the value of the constant capital, and its relative magnitude as compared to that of the variable, is quite independent of the fixed or circulating nature of its components. But it will be found—and this is one of the causes of wrong conclusions—that whenever fixed capital is considerably developed, it is but an expression of the fact that production is carried on at a large scale, so that the constant capital far outweighs the variable, or the living labor-power employed is trifling compared to the mass of the means of production set in motion by it.

We have demonstrated, that different lines of industry may have different rates of profit, corresponding to differences in the organic composition of capitals, and, within the limits indicated, also corresponding to different times of turn-over; the law (as a general tendency) that profits are proportioned as the magnitudes of the capitals, or that capitals of equal magnitude yield equal profits in equal times, applies only to capitals of the same organic composition, with the same rate of surplus-value, and the same time of turn-over. And these statements hold good on the assumption, which has been the basis of all our analyses so far, namely that the commodities are sold at their values. On the other hand there is no doubt that, aside from unessential, accidental, and mutually compensating distinctions, a difference in the average rate of profit of the various lines of industry does not exist in reality, and could not exist without abolishing the entire system of capitalist production. It would seem, then, as though the theory of value were irreconcilable at this point with the actual process, irreconcilable with the real phenomena of production, so that we should have to give up the attempt to understand these phenomena.

It follows from the first part of this volume that the cost-prices are the same for the products of different spheres of production, in which equal portions of capital have been invested for purposes of production, regardless of the organic composition of such capitals. The cost-price does not show the distinction between variable and constant capital to the capitalist. A commodity for which he must advance 100 p.st. in production cost him the same amount, whether he invests 90 c + 10 v, or 10 c + 90 v. He always spends 100 p.st. for it, no more, no less. The cost-prices are the same for investments of the same amounts of capital in different spheres, no matter how much the produced values and surplus-values may differ. The equality of cost-prices is the basis for the competition of the invested capitals, by which an average rate of profit is brought about.

CHAPTER IX.: FORMATION OF A GENERAL RATE OF PROFIT (AVERAGE RATE OF PROFIT) AND TRANSFORMATION OF THE VALUES OF COMMODITIES INTO PRICES OF PRODUCTION

THE organic composition of capital depends at each stage on two circumstances: First, on the technical relation of the employed labor-power to the mass of the employed means of production; secondly, on the price of these means of production. We have seen that this composition must be considered according to its percentages. We express the organic composition of a certain capital, consisting of four-fifths of constant, and one-fifth of variable capital, by the formula 80 c + 20 v. We furthermore assume in this comparison that the rate of surplus-value is unchangeable. Let it be, for instance, 100%. The capital of 80 c + 20 v then produces a surplus-value of 20 s, and this is equal to a rate of profit of 20% on the total capital. The magnitude of the actual value of the product of this capital depends on the magnitude of the fixed part of the constant capital, and on the amount of it passing by wear and tear over to the product. But as this circumstance is immaterial so far as the rate of profit and the present analysis are concerned, we assume for the sake of simplicity that the constant capital is transferred everywhere uniformly and entirely to the annual product of the capitals named. It is further assumed that these capitals realise equal quantities of surplus-value in the different spheres of production, proportional to the magnitude of their variable parts. In other words, we disregard for the present the difference which may be produced in this respect by the different lengths of the periods of turn-over. This point will be discussed later.

Let us compare five different spheres of production, and let the capital in each one have a different organic composition, as follows:

lf0445-03-0183-t0001.gif

Here we have considerably different rates of profit in different spheres of production with the same degree of exploitation, corresponding to the different organic composition of these capitals.

The grand total of the capitals invested in these five spheres of production is 500; the grand total of the surplus-value produced by them is 110; the total value of all commodities produced by them is 610. If we consider the amount of 500 as one single capital, and capitals I to V as its component parts (about analogous to the different departments of a cotton mill which has different proportions of constant and variable capital in its carding, preparatory spinning, spinning, and weaving rooms, on the basis of which the average proportion for the whole factory is calculated), then we should put down the average composition of this capital of 500 as 390 c + 110 v, or, in percentages, as 78 c + 22 v. In other words, if we regard each one of the capitals of 100 as one-fifth of the total capital, its average composition would be 78 c + 22 v; and every 100 would make an average surplus-value of 22. The average rate of profit would, therefore, be 22%, and, finally, the price of every fifth of the total product produced by the capital of 500 would be 122. The product of each 100 of the advanced total capital would have to be sold, then, at 122.

But in order not to arrive at entirely wrong conclusions, it is necessary to assume that not all cost-prices are equal to 100.

With a composition of 80 c + 20 v, and a rate of surplus-value of 100, the total value of the commodities produced by the first capital of 100 would be 80 c + 20 v + 20 s, or 120, provided that the whole constant capital is transferred to the product of the year. Now, this may happen under certain circumstances in some spheres of production. But it will hardly be the case where the proportion of c to v is that of four to one. We must, therefore, remember in comparing the values produced by each 100 of the different capitals, that they will differ according to the different composition of c as to fixed and circulating parts, and that the fixed portions of different capitals will wear out more or less rapidly, thus transferring unequal quantities of value to the product in equal periods of time. But this is immaterial so far as the rate of profit is concerned. Whether the 80 c transfer the value of 80, or 50, or 5, to the annual product, whether the annual product is consequently 80 c + 20 v + 20 s = 120, or 50 c + 20 v + 20 s = 90, or 5 c + 20 v + 20 s = 45, in all of these cases the excess of the value of the product over its cost-price is 20, and in every case these 20 are calculated on a capital of 100 in ascertaining the rate of profit. The rate of profit of capital I is, therefore, in every case 20%. In order to make this still plainer, we transfer in the following table different portions of the constant capital of the same five capitals to the value of their product.

lf0445-03-0185-t0001.gif

Now, if we consider capitals I to V once more as one single total capital, it will be seen that also in this case the composition of the sums of these five capitals amounts to 500, being 390c + 110 v, so that the average composition is once more 78 c + 22 v. The average surplus-value also remains 22%. If we allot this surplus-value uniformly to capitals I to V, we arrive at the following prices of the commodities:

lf0445-03-0185-t0002.gif

Summing up, we find that the commodities are sold at 2 + 7 + 17 = 26 above, and 8 + 18 + 26 below their value, so that the deviations of prices from values mutually balance one another by the uniform distribution of the surplus-value, or by the addition of the average profit of 22 per 100 of advanced capital to the respective cost-prices of the commodities of I to V. One portion of the commodities is sold in the same proportion above in which the other is sold below their values. And it is only their sale at such prices which makes it possible that the rate of profit for all five capitals is uniformly 22%, without regard to the organic composition of these capitals. The prices which arise by drawing the average of the various rates of profit in the different spheres of production and adding this average to the cost-prices of the different spheres of production, are the prices of production. They are conditioned on the existence of an average rate of profit, and this, again, rests on the premise that the rates of profit in every sphere of production, considered by itself, have previously been reduced to so many average rates of profit. These special rates of profit are equal to s/C in every sphere of production, and they must be deduced out of the values of the commodities, as shown in volume I. Without such a deduction an average rate of profit (and consequently a price of production of commodities), remains a vague and senseless conception. The price of production of a commodity, then, is equal to its cost-price plus a percentage of profit apportioned according to the average rate of profit, or in other words, equal to its cost-price plus the average profit.

Since the capitals invested in the various lines of production are of a different organic composition, and since the different percentages of the variable portions of these total capitals set in motion very different quantities of labor, it follows that these capitals appropriate very different quantities of surplus-labor, or produce very different quantities of surplus-value. Consequently the rates of profit prevailing in the various lines of production are originally very different. These different rates of profit are equalised by means of competition into a general rate of profit, which is the average of all these special rates of profit. The profit allotted according to this average rate of profit to any capital, whatever may be its organic composition, is called the average profit. That price of any commodity which is equal to its cost-price plus that share of average profit on the total capital invested (not merely consumed) in its production which is allotted to it in proportion to its conditions of turn-over, is called its price of production. Take, for instance, a capital of 500, of which 100 are fixed capital, and let 10% of this wear out during one turn-over of the circulating capital of 400. Let the average profit for the time of this turn-over be 10%. In that case the cost-price of the product created during this turn-over will be 10 c (wear) + 400 (c + v), circulating capital, or a total of 410, and its price of production will be 410 (cost-price) plus 10% of average profit on 500, or a total of 460.

While the capitalists in the various spheres of production recover the value of the capital consumed in the production of their commodities through the sale of these, they do not secure the surplus-value, and consequently the profit, created in their own sphere by the production of these commodities, but only as much surplus-value, and profit, as falls to the share of every aliquot part of the total social capital out of the total social surplus-value, or social profit produced by the total capital of society in all spheres of production. Every 100 of any invested capital, whatever may be its organic composition, draws as much profit during one year, or any other period of time, as falls to the share of every 100 of the total social capital during the same period. The various capitalists, so far as profits are concerned, are so many stockholders in a stock company in which the shares of profit are uniformly divided for every 100 shares of capital, so that profits differ in the case of the individual capitalists only according to the amount of capital invested by each one of them in the social enterprise, according to his investment in social production as a whole, according to his shares. That portion of the price of commodities which buys back the elements of capital consumed in the production of these commodities, in other words, their cost-price, depends on the investment of capital required in each particular sphere of production. But the other element of the price of commodities, the percentage of profit added to this cost-price, does not depend on the mass of profit produced by a certain capital during a definite time in its own sphere of production, but on the mass of profit allotted for any period to each individual capital in its capacity as an aliquot part of the total social capital invested in social production. 22

A capitalist selling his commodities at their price of production recovers money in proportion to the value of the capital consumed in their production and secures profits in proportion to the aliquot part which his capital represents in the total social capital. His cost-prices are specific. But the profit added to his cost-prices is independent of his particular sphere of production, for it is a simple average per 100 of invested capital.

Let us assume that the five different investments of capital named I to V in the foregoing illustrations belong to one man. The quantity of variable and constant capital consumed for each 100 of the invested capitals in the production of commodities would be known, and these portions of the value of the commodities of I to V would make up a part of their price, since at least this price is required to recover the consumed portions of the invested capital. These cost-prices would be different for each class of the commodities I to V, and the owner would therefore mark them differently. But the different masses of surplus-value, or profit, produced by capitals I to V might easily be regarded by the capitalist as profits of his aggregate capital, so that each 100 would get its proportional quota. The cost-prices of the commodities produced in the various departments I to V would be different; but that portion of their selling price which comes from the addition of the profit for each 100 of capital would be the same for all these commodities. The aggregate price of the commodities of I to V would be equal to their aggregate value, that is to say, it would be equal to the sum of the cost-prices of I to V plus the sum of the surplus-values, or profits, produced in I to V. It would actually be the money-expression of the total quantity of past and present labor incorporated in the commodities of I to V. And in the same way the sum of all the prices of production of all commodities in society, comprising the totality of all lines of production, is equal to the sum of all their values.

This statement seems to be contradicted by the fact that under capitalist production the elements of productive capital are, as a rule, bought on the market, so that their prices include profits which have already been realised. Accordingly, the price of production of one line of production passes, with the profit contained in it, over into the cost-price of another line of production. But if we place the sum of the cost-prices of the whole country on one side, and the sum of its surplus-values, or profits, on the other, it is evident that the calculation must come out right. For instance, take a certain commodity A. Its cost-price may contain the profits of B, C, D, etc., or the cost-prices of B, C, D, etc., may contain the profits of A. Now, if we make our calculation, the profits of A will not be included in its cost-price, nor will the profits of B, C, D, etc., be figured in with their own cost-prices. No one figures his own profit in his own cost-price. If there are n spheres of production, and every one of them makes a profit of p, then the aggregate cost-price of all of them is equal to k- n p. Taking the calculation as a whole we see that the profits of one sphere which pass into the cost-prices of another have been placed on one side of the account showing the total price of the ultimate product, and so cannot be placed a second time on the profit side. If any do appear on this side, it can be only because this particular commodity was itself the ultimate product, so that its price of production did not pass into the cost-price of some other commodity.

If an amount equal to p, expressing the profits of the producers of means of production, passes into the cost-price of a commodity, and if a profit equal to p' is added to this cost-price, then the aggregate profit P is equal to p + p'. The aggregate cost-price of a commodity, after deducting all amounts for profit, is in that case its own cost-price minus P. If this cost-price is called k, then it is evident that k + P = k + p + p'. We have seen in volume I, chapter IX, 2, that the product of every capital may be treated as though a part of it reproduced only capital, while the other part represented only surplus-value. Applying this mode of calculation to the aggregate product of society, it is necessary to make some rectifications. For, looking upon society as a whole, it would be a mistake to figure, say, the profit contained in the price of flax twice. It should not be counted as a portion of the price of linen and at the same time as the profit of the producers of flax.

To the extent that the surplus-value of A passes into the constant capital of B, there is no difference between surplus-value and profit. It is quite immaterial for the value of the commodities, whether the labor contained in them is paid or unpaid. We see merely that B pays for the surplus-value of A. But the surplus-value of A cannot be counted twice in the total calculation.

The essential difference is this: Aside from the fact that the price of a certain product, for instance the product of capital B, differs from its value, because the surplus-value realized in B may be greater or smaller than the profit of others contained in the product of B, the same fact applies also to those commodities which form the constant part of its capital, and which indirectly, as necessities of life for the laborers, form its variable part. So far as the constant part is concerned, it is itself equal to the cost-price plus surplus-value, which now means cost-price plus profit, and this profit may again be greater or smaller than the surplus-value in whose place it stands. And so far as the variable capital is concerned, it is true that the average daily wage is equal to the values produced by the laborers in the time which they must work in order to produce their necessities of life. But this time is in its turn modified by the deviation of the prices of production of the necessities of life from their values. However, this always amounts in the end to saying that one commodity receives too little of the surplus-value while another receives too much, so that the deviations from the value shown by the prices of production mutually compensate one another. In short, under capitalist production, the general law of value enforces itself merely as the prevailing tendency, in a very complicated and approximate manner, as a never ascertainable average of ceaseless fluctuations.

Since the average rate of profit is formed by the average of the various rates of profit for each 100 of the invested capital during a definite period of time, say one year, it follows that the difference brought about by the various periods of turn-overs of different capitals is also effaced by this means. But these differences play a leading role in the different rates of profit of the various spheres of production whose average forms the average rate of profit.

In the preceding illustration we assumed each capital in every sphere of production helping to make up the average rate of profit to be equal to 100, and we did so in order to show the differences in the rates of profit by percentages and incidentally the difference in the values of commodities produced by equal amounts of capital. But it is understood that the actual masses of surplus-value produced in each sphere of production depend on the magnitude of the invested capitals, since the composition of each capital is determined by each sphere of production. But the particular rate of profit of any individual sphere of production is not affected by the circumstance that a capital of 100, or m times 100, or xm times 100 may be invested. The rate of profit remains 10%, whether the total profit is as 10 to 100, or 1,000 to 10,000.

However, since the rates of profit differ in the various spheres of production, seeing that considerably different masses of surplus-value, or profit, are produced in them according to the proportion of the variable to the total capital, it is evident that the average profit per 100 of the social capital, and consequently the average, or general, rate of profit, will differ considerably according to the respective magnitudes of the capitals invested in the various spheres. Take, for instance, four capitals A, B, C, D. Let the rate of surplus-value be 100% for all of them. Let the variable capital for each 100 of total capital be 25 in A, 40 in B, 15 in C, and 10 in D. In that case every 100 of the total capital would make a surplus-value, or profit, of 25 in A, 40 in B, 15 in C, and 10 in D. This would make a total of 90, and if these four capitals are of the same magnitude, the average rate of profit would be 90/4, or 22.5%.

Now take it that the amounts of the total capitals are as follows: A equals 200, B, 300, C, 1,000, D, 4,000. The profits produced in that case would be 50, 120, 150, and 400. Lumping these four capitals together into one total capital of 5,500, its profit would be 720, and its average rate of profit 13 1/11%.

The masses of the total value produced differ according to the magnitudes of the total capitals invested in A, B, C, D, respectively. The question of the formation of an average rate of profit is therefore not merely a matter of drawing simply the average of the different rates of profit in the various spheres of production, but quite as much one of the relative weight which these different rates of profit carry in the formation of the average. This depends on the relative magnitude of the capital invested in each particular sphere, or on the aliquot part which the capital invested in each particular sphere forms in the aggregate social capital. There will naturally be a very great difference according to whether a large or a small part of the total capital yields more or less of a rate of profit. And this, again, depends on the fact whether much or little capital is invested in those spheres in which the variable capital is relatively small or large compared to the total capital. It is the same with the average interest which a usurer draws who lends different amounts of capital at different rates of interest; for instance at 4, 5, 6, 7%, etc. The average rate of his interest will depend entirely on the relative magnitudes of the various capitals put out by him at different rates of interest.

We see, then, that the average rate of profit is determined by two factors:

1) By the organic composition of the capitals in the different spheres of production, and consequently by the different rates of profit of the individual spheres.
2) By the allotment of the social total capital to these different spheres, in other words, by the relative magnitude of the capitals invested in each particular sphere and the special rate of profit attendant to it; or, to express it still differently, by the relative share of the total social capital absorbed by each sphere of production.

In volumes I and II we were dealing only with the values of the commodities. Now we have dissected this value on the one hand into a cost-price, and on the other we have developed out of it another form, that of the price of production of commodities.

Take it that the composition of the average social capital is 80 c + 20 v, and that the annual rate of surplus-value, s', is 100%. In that case the average annual profit for a capital of 100 would be 20, and the average annual rate of profit 20%. Whatever may be the cost-price k of the commodities annually produced by a capital of 100, their price of production will be k + 20. In those spheres of production, in which the composition of capital would be (80-x) c + (20 + x) V, the actually produced surplus-value, or the annual profit produced in this sphere, would be 20 + x, that is to say greater than 20, and the value of the produced commodities k + 20 + x, that is to say greater than k + 20, greater than their price of production. On the other hand, in those spheres, in which the composition of the capital would be (80 + x) c + (20-x) v, the annually produced surplus-value, or profit, would be 20-x, or smaller than 20, and consequently the value of the commodities k + 20-x, smaller than the price of production, which is k + 20. Aside from eventual differences in the periods of turn-over, the price of production of the commodities would be equal with their value only in those spheres, in which the composition would happen to be 80 c + 20 v.

The specific development of the social productivity of labor varies more or less in each particular sphere of production in proportion as the quantity of means of production set in motion in a given working day by a given number of laborers is large, and consequently the quantity of labor required for a definite quantity of means of production small. Hence we call capitals of higher composition such capitals as contain a larger percentage of constant and a smaller percentage of variable capital than the average social capital; and vice versa, capitals of lower composition those capitals which give relatively more room to the variable, and relatively less to the constant capital, than the average social capital. Finally, we call capitals of average composition those capitals which have the same composition as the average social capital. If the average social capital is composed of 80 c + 20 v, then a capital of 90 c + 10 v stands above, and a capital of 70 c + 30 v below the social average. Generally speaking, if the composition of the average social capital is mc + nv, m and n being constant magnitudes and m + n being equal to 100, the formula (m + x) c + (n-x) v represents the higher composition, and (m-x) c + (n + x) v the lower composition, of some individual capital or group of capitals. The following tabulation shows the way in which these capitals perform their functions after an average rate of profit has been established, assuming one turn-over per year. In this tabulation, I shows the average composition, in which the average rate of profit is 20%.

I). 80 c + 20 v + 20 s. Rate of profit 20%. Price of product 120. Value of product 120.
II). 90 c + 10 v + 10 s. Rate of profit 20%. Price of product 120. Value of product 110.
III). 70 c + 30 v + 30 s. Rate of profit 20%. Price of product 120. Value of product 130.

The value of the commodities produced by capital II would, therefore, be smaller than their price of production, while the price of production of the commodities of III would be smaller than their value. Value and price of production would be equal only in the case of capital I and others like it in the various lines of production. By the way, in applying these terms to any particular cases it must be borne in mind whether a deviation of the proportion between c and v is not due simply to a change in the value of the elements of constant capital, instead of a difference in the technical composition.