Category Archives: 18th Century

How to Prevent the Cooling of the Earth: A Page from God’s Cookbook

By Jean-Olivier Richard

Image from Athanasius Kircher’s Mundus Subterraneus (1678 edn.) vol. 1, p. 194.

Historians studying the relationship between climate and recipes (and yes, historians have good reasons to do so; see Jennifer A. Munroe’s post on seasonality and Katherine Allen’s articles on springtime in recipe books and the common cold) usually frame the question in terms of seasonality. In the pre-modern world, ingredients for recipes could often only be obtained in certain seasons or particular climates – the so-called seasonality of recipes. But the concept of recipe, provided one is willing to stretch its bounds, can also help us understand how our ancestors envisioned the role of God and Man in climate change and cosmic history. What if, for instance, one were to think of the Creation account of Genesis as a recipe? The metaphor is not as far-fetched as it may sound. Recipes entail not only ingredients and instructions, but also agency: isn’t God said to have made everything in measure, number, and weight (Wisdom 11:21)? Many early modern philosophers cherished this notion. Let us imagine, with one such philosopher, a page from God’s cookbook:


In the beginning, create the heaven and the earth. Everything should be in a state of chaos. Then, let there be light. Light will bring the world into sight by causing the formless abyss to sort itself out. Over a period of six days, let the sun, the moon, and the planets coalesce like bubbles, as celestial and terrestrial matter separate; on earth, concentric layers of air, water, and dry land will arise around a pulsing core of fire. In the process, bring forth minerals, plants, and animals. This is good, but not good enough. If the primordial light is left unchecked, all mixed and organic bodies will soon break down and dissolve into their elementary constituents; even beings endowed with seeds will stop propagating their kind. To prevent the cosmos from congealing, add Man to the mixture. Let him stir it, and it will be very good.

A caricature of Louis-Bertrand Castel’s “ocular organ” by Charles Germain de Saint Aubin (1721-1786).


The physics treatise that inspires my thought experiment appeared in 1724, when the boundaries between physical, chemical, and spiritual processes were still porous. Its author was the French Jesuit mathematician and natural philosopher Louis-Bertrand Castel (1688-1757), best remembered today for his ocular harpsichord (a musical instrument that played colors) and his quarrels with the likes of Voltaire and Rousseau. To be clear, Castel did not couch his interpretation of Genesis in culinary terms; but he did argue that God’s primordial “light” must refer to the fundamental, mechanical principle of nature, the force causing elementary particles to weigh against one another and to regroup according to their kind — like mercury, water, and oil mixed together end up settling into layers. What Moses called “light,” ancient philosophers like Empedocles, Parmenides, and Epicurus had known confusedly as “love and strife”, “sympathies and antipathies,” “attractions and repulsions.” Since Newton, moderns recognized it as “universal gravitation” — or as Castel would have it, “universal weighing” (pesanteur). Natural philosophy, just like the original chaos, was sorting itself out.


Yet universal weighing could only be half the story. Castel’s main contribution to science, as he saw it, was to demonstrate the need for another principle: a universal lightness, a kind of spiritual leaven or ferment that would counter the weight of nature and sprinkle a little chaos into the world’s regular march toward equilibrium. This principle had to be spiritual, as opposed to mechanical, because a constant mechanical counterweight would cancel out rather than interrupt the course of nature as needed. Now, God could intervene directly to do just that, but that would be beneath His dignity. A popular alternative — giving nature its own spiritual, vital powers — raised the specter of materialism; out of question for a Jesuit. Castel’s solution? God must have delegated the task of disrupting the world to Man, his troublesome steward. Endowed with free will, humans could bring about everything universal pesanteur could not. Local trouble, Castel reckoned, added up to all the meteorological, climatic, and geological changes needed to prevent the world from grinding to a halt and freezing over.


While this might seem to be a recipe for disaster, Castel trusted that God knew what He was doing. The curse of mortality, for one, ensured humans would not slack off, nor overreach their bounds. Since the Fall, Adam and his descendants felt the weight of nature; they had to sweat and toil to delay the hour of their death (death by gravity, that is). On the upside, tilling the land, breeding animals, cutting down trees, draining fens, building canals, mining the earth, manufacturing goods and transporting them for commerce—all this labor, along with the consumption and excretion of food, renewed the mixtures that nature constantly unraveled. Multiplied by the millions, local actions caused ripples: rain, winds, and waves to which Castel attributed weather pattern and climate change. When well concerted, human efforts made the earth compliant; when excessive or deficient, corrective backlashes ensued — storms, earthquakes, volcanic eruptions. On the whole, the world remained hospitable because man-made mixtures, combined with nature’s weighing and sorting action, preserved the planet’s internal circulation mechanism. Carried down by rivers, oceanic currents, and subterranean channels, the by-products of human activity fueled the central fire of the earth, the reservoir of heat for all living beings on the surface. Castel estimated that the sun only contributed a minute portion of heat compared to the earth’s inner furnace, hence the importance of keeping it alive.

Reproduced with kind permission from http://www.reverendfun.com/toon/20070907/


Fifty years after Castel published his treatise, Georges-Louis Leclerc, Comte de Buffon (1707-1788) hypothesized that the earth was once a globe of molten rocks, whose age he ingeniously estimated by measuring the cooling rate of molten metal spheres. Revisiting the notion of a “central fire” keeping the planet warm from within, Buffon warned his readers about the inevitable freezing of the world, but also suggested that human industry might counter the process. Framed by debates about climate, gravity, progress, and the place of divine and human agency in nature, the Enlightenment saw scores of new ideas about the history of the earth — some of which presaging in surprising ways today’s anxieties about climate change. Yet Castel his contemporaries also expressed more confidence in human stewardship. Humans were God’s special ingredient in a perfectly well-balanced recipe; their 19th- and 20th-century successors would not be so serene.

Sources:

Richard, Jean-Olivier. “The Art of Making Rain and Fair Weather: Life and World System of Louis-Bertrand Castel, SJ (1688-1757).” Ph.D. dissertation. Baltimore, Johns Hopkins University, 2016.

Castel, Louis-Bertrand. Traité de Physique sur la pesanteur universelle. Paris: Cailleau, 1724.

Buffon, Georges Louis-Leclerc, Comte de. Les Époques de la nature. Paris: Imprimerie royale, 1780.

 

How Best to Treat the Heat in 1793 Beijing

By Marta Hanson

Translating traditional Chinese medical terms into modern English forces one to consider dramatic changes in medicine over the past two centuries. Take, for example, the modern Chinese phrase fa re for “fever,” which literally means “to produce (fa) heat (re).” Although today it refers to elevated body temperature, traditionally it referred to the preternatural heat that patients experienced dispersed throughout their bodies and only sometimes referred to elevated skin temperature.[1] In fact, before the late 19th-century, the English term “fever” also contained multivalent meanings and multifarious patterns of excessive heat.[2] Fever in the sense of having a temperature above the 97.3 to 99.5 °F human range was not even defined in western medicine, nor a convenient clinical thermometer invented to measure it, until the late 1860s.[3] Although many of the febrile-related symptoms that fall under the Chinese disease concept “Hot diseases” (rebing) could fit under the biomedical umbrella of acute-infectious diseases, in classical Chinese medicine they were originally conceptualized as caused by climatic configurations of qi (i.e., vital energy/matter).[4]

The Yellow Emperor’s Inner Canon: Basic Questions (ca. 1st c. BCE) originally distinguished two types of Hot diseases related to different types of climatic qi. The first included an acute-onset febrile disorders caused by external pathogenic qi related to changing seasons or local weather. The second was a type of “Cold Damage” (shanghan) acquired in the winter but which went dormant until the heat of the spring or summer manifested it as excessive heat and internally impairing dryness. The first Inner-Canon definition that Hot diseases could be due to other types of pathogenic climatic qi also facilitated conceptualizing epidemics as due to pathogenic environmental qi unrelated to the winter cold or local climate.[5] Nonetheless, no matter the original cause when excessive heat was the result, it had to be expelled.

An interesting case of disagreement on how best to “treat the heat” occurred in Beijing during a febrile epidemic (wenyi) in the spring and summer of 1793. The Qing official, Ji Yun (1724–1805) unusually responded to this epidemic by comparing the success rate of three therapeutic drug strategies. The first, associated with Zhang Jiebin (1563-1640), resulted in 80–90% mortality. The second, promoted by Wu Youxing (1582?-1652), was no more effective. But a third formula created by the living doctor, Yu Lin (ca. late 18th cent.), had successfully cured the concubine of the Chief Minister of the Court of State Ceremonies, Feng Yingliu (1741–1801) with a strong gypsum-based formula.[6] Ji noted that those who witnessed this were shocked but those who followed his method ended up saving countless lives.[7]

The three competing cures in Ji’s short anecdote illustrate well how Cold and Heat were the main metaphors used to understand the cause of epidemics and legitimate drug choices for treating them. Zhang’s “warming and tonifying” (wenbu) tonics were based on what the Cold Damage Treatise (Shanghan lun, ca. 220 CE) recommended for treating Hot diseases (believed to have their origin in winter Cold manifested in the summer). These included warming herbs such as Cassia twig (guizhi) and Ephedra (mahuang) to release cold via the exterior and Aconite (fuzi) to warm the exterior and expel cold.  [See rebing entry to far left in Figure 1]

Medication chart from the Gold-Dusted Cold Damage [Treatise] (Shanghan diandian jin, completed 1341, date of this printing unknown). Image credit: Wellcome Collection.
 Wu’s “purgative” (gongxia) formulas contained Rhubarb root and rhizome (dahuang) to purge downward, and even Betel Nut (binglang) to expel pathogenic qi.  Wu termed this anomalous qi (yiqi), deviant qi (liqi), or pestilential qi (liqi) in his Treatise on Febrile Epidemics (Wenyi lun, 1642). [See figure 2] As He Bian has written on this blog, Chinese rhubarb had its heyday in the eighteenth century, yet not all physicians were in accord with its suitability during epidemics.

 

Rhubarb from Li Shizhen’s Systematic Materia Medica (Bencao Gangmu) printed in 1596.

The third author named in this story, Yu Lin, later became famous for his recipe titled: “Epidemic-Clearing and Toxin-Dispersing Beverage” (Qing wen bai du yin). [8]  The fourteen-ingredient recipe was based on a combination of the White Tiger Decoction (baihu tang) that cleared out heat on the exterior with two other formulas.[9]  Yu’s recipe, however, featured crude gypsum (i.e., the “White Tiger”) in quantities at least three times the other main ingredients (raw foxglove root, rhinoceros horn, and coptis root). This made it an extremely Cold formula, and potentially life-threatening for those who thought Cold was the underlying cause and so used Zhang’s formulas. For Yu, however, Gypsum’s cold-cooling quality cleared excessive heat accumulated in the stomach system. [Figure 3 depicts this heat-clearing function of gypsum at the center of the man’s chest).

Depiction for White Tiger Decoction in Illustrations and Explanation of the Major Formulas of the Cold Damage Treatise (Shanghan lun dafang tu jie, 1833). Image credit: Wellcome Collection.

Expelling pathogenic Cold qi and warming the interior with aconite and cassia twigs, purging pestilential qi through the bowls with rhubarb, and clearing out the pathogenic Heat from the stomach with gypsum were thus all therapeutic strategies at play during the 1793 epidemic in the capital. The first framed the cause of the epidemic in latent winter cold that had to be dispersed. The second saw it as externally contracted pestilential qi that needed to be purged. Finally, the third considered it excessive heat that had to be cleared. Despite these major differences all three approaches nonetheless treated the febrile symptoms subsumed under fa re or, in the modern term, “fevers” as something that drugs could manage by adjusting the internal balance of Hot and Cold.

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Translations for Figures 1 and 3

Figure 1: From right to left are listed three disease concepts – Cold Damage, Wind Damage, and Hot Diseases. Their commonly used formulas are written below. The six formulas listed under rebing are from right going down and then to left going down: With sweat cassia twig decoction (han guizhi tang), Cassia twig and gypsum decoction (guizhi jia shigao), Cassia twig decoction together with gypsum, anemarrhena, cohosh, and ephedra (guizhi jia shigao zhimu sheng[ma] ma[huang], Without sweat ephedra decoction (wuhan mahuang tang), Evening produced (i.e., heat) gardenia, cohosh, and ephedra decoction (wan fa zhizi sheng[ma] ma[huang]), and Cassia twig decoction with ephedra and gypsum (guizhitang jia mahuang shigao).

Figure 3: From the right to left across the top is written. 1) “The assistant [drug] Amemarrhena (zhima) disperses dryness [and] produces jin [fluids].” 2) the space below the chin reads “protects the lungs.” 3) and to the left is written “licorice (gancao) harmonizes the stomach and rice (gengmi) assists the stomach qi.” 4) The 5-character phrases on either side of the oblong circle together state the therapeutic strategy “[When] the pathogenic [qi] has already changed into Fire, then clear, cool, and make it disperse.5)  In the long oval at the center of the body, the phrase instructs: “When it [i.e., the Fire} enters the stomach, use gypsum.”

[1] Nathan Sivin, Traditional Medicine in Contemporary China, Science, Medicine, & Technology in East Asia 2 (Ann Arbor: The University of Michigan Center for Chinese Studies, 1987), xxiv-xxv, 86, 108.

[2] Christopher Hamlin, More Than Hot: A Short History of Fever, Johns Hopkins Biographies of Disease (Baltimore: John Hopkins University Press, 2014).

[3] J.M.S. Pearce, “A brief history of the clinical thermometer,” QJM: An International Journal of Medicine 95.4 (1 April 2002): 251-52. Thomas Clifford Allbutt (1836-1925) invented the 6-inch thermometer that was first able to record a temperature in 5 minutes in 1866 and in 1868 Carl Wunderlich, using a foot-long thermometer put in the axilla (i.e., armpit), established the normal range from 36.3 to 37.5 °C or 97.3 to 99.5 °F.

[4] Shigehisa Kuriyama, “Epidemics, Weather, and Contagion in Traditional Chinese Medicine,” in Lawrence I. Conrad and Dominik Wujastyk, eds., Contagion: Perspectives from Pre-Modern Societies, (Aldershot, Hampshire: Ashgate Publishing Limited, 2000), 3-22.

[5] Marta Hanson, Speaking of Epidemics in Chinese Medicine: Disease and the geographic imagination in late imperial China (London: Routledge, 2011), 16-17.

[6] Gypsum is monoclinic calcium sulfate. See discussion of this episode in Hanson, Speaking of Epidemics, 2011, 126-27.

[7] Ji Yun 紀昀, Yuewei caotang biji 閱微草堂筆記(Jottings from Yuewei Hall), printed 1800. Repr. Shanghai: Shanghai guji chubanshe, 1980. Passage in juan 18, jotting #24, 458-9. Online access https://ctext.org/library.pl?if=gb&file=36038&page=45&remap=gb

[8] Jian Min Wen and Garry Seifert, translators, Warm Disease Theory, Wēn bing xúe (Brookline, Mass.: Paradigm Publications, 2000), 141.

[9] White Tiger Decoction is used to treat an illness pattern with great heat, thirst, and sweating and a surging and large pulse. For analysis of the logic of the formula see Craig Mitchel, Feng Ye, Nigel Wiseman, Shang Han Lun: On Cold Damage: Translations & Commentaries (Brookline, Mass.: Paradigm Publications, 1999), 316-24

Making and Consuming Perfume in Eighteenth-Century England

Dr William Tullett asks why manuscript recipes for perfumes were on the decline in the eighteenth century, and investigates the role of the senses in perfume making.

A survey of the vast collection in the Wellcome library suggests that the presence of perfumery in manuscript recipe books slowly declined during the eighteenth and nineteenth centuries. Why did this happen? One answer could be that perfumery and pharmacy were slowly separating during the eighteenth century. Previously, perfume, pies, and prescriptions were promiscuously mixed because the boundaries between ‘food’, ‘cosmetics’, and ‘medicines’ were blurred in the 1600s: for instance, odours were thought to contain medical powers. Eighteenth-century physicians were increasingly sceptical about this possibility. Fumigations (to purify the air of houses) and pomanders (balls of perfume to protect against plague) were less common in recipe books by 1750. Perhaps perfume no longer fitted within the holistic tradition of ‘kitchen-physic’. Yet, despite the concerns of the medical profession, perfumes continued to be advertised and used for their medicinal benefits. Fainting dandies at the opera could still reach for the eau de cologne when all the extended vowels and overwhelming music got too much.

‘Tom Rakewell in a cell in the Fleet Prison. Engraving by T. Cook after W. Hogarth.’ by William Hogarth. Credit: Wellcome Collection. CC BY.

Another explanation is the increasing availability of ready-made perfumery, printed recipe books, and an emerging sense of commercial, fashion-oriented, consumer behaviour. Whilst print could easily be incorporated into manuscript recipe books, the proliferation of ready-made perfumery certainly had an impact. Insurance records on Locating London’s Past list over 300 perfumers in London between 1777 and 1786. The influence of the market is detectable in the introductions to print recipe books. For example, Simon Barbe’s The French Perfumer (English translation, London, 1696) lists biblical and noble patrons of perfume to inspire  home-brewed perfumery. Charles Lillie’s The British Perfumer (London, 1740s but published 1822) is introduced as a tool for negotiating the commercial market in perfumery: it would help prevent ‘purchasers of perfumes’ from ‘being impose[d] upon… beyond a fair, moderate, and reasonable profit’. Lillie’s book also contains some choice words on domestic perfumery. He attacked those who used ‘scraps of old women’s receipts’ and ‘gleamings from table-talk’. Above all it is fellow perfumers, working for profit in a luxury marketplace, to whom Lillie addresses his recipes.

Lillie’s recipe book has lots to say on how perfumers used their senses to assay the quality of ingredients. The inability to describe odours with precision (except through an emotional vocabulary or by reference to other materials) or remember them easily meant that touch, sight, and taste were thus the chief ways of testing ingredients. Examining ambergris, for example, Lillie noted that the worst was black or dark brown, heavy, hard to break, and had little smell. The best ambergris on the other hand was grey, easy to break and light in weight. If the ambergris had been adulterated with white sand, then Lillie suggested the use of a looking glass to check. Another test involved pricking the material with a hot needle to see if the ‘genuine odour will be given out’. However, Lillie added that ‘best way… to detect such frauds is always for the perfumer to keep by him a small piece of genuine ambergris; and… he should compare their smells by this experiment’. Without the original object smell was never a certain judge.

Where external appearances were similar, as with cassia lignum and cinnamon bark, taste could be used: cinnamon was ‘sharp and biting’ to the taste whereas cassia was ‘sweet and mawkish’. The less salty genoa soap was to the taste, the better quality it was. Touch was mobilised too: clove bark was best when at its most friable, whilst poor quality rice powder, used to make hair powder, was ‘moistened with water to give it a soft and silky feel’. Lillie’s recipe book demonstrates that sensory marks of quality were central for the perfumer because, in an era of economic specialisation, they increasingly relied on druggists, chemists, apothecaries, and grocers for their ingredients. The vanilla-scented gum benjamin (benzoin) was to be had from wax chandlers who used it to perfume sealing wax; druggists were a source for civet, although they adulterated it with honey; and even oils and essences, where the production of commercial quantities required large stills, were to be obtained from chemists ‘who actually distil it themselves’.

‘Glass bottle for eau de cologne, Paris, France, 1780-1850’ by Science Museum, London. Credit: Science Museum, London. CC BY.

But what about the senses of consumers who bought, rather than made, perfumes? For the small number of individuals who were still making their own perfumery, the perfumer’s shop was important for buying essences and oils ready-made. Mary Forster’s handwritten recipes for soft and hard pomatum, made from hogs’ lard to dress the hair or soften skin, list a range of waters, oils, or essences that could be bought from perfumers and added, depending on preference; these included rose, geranium, and jasmine. Lillie’s book suggests that perfumers were no longer the reliable source of such a wide variety of raw ingredients. Instead they produced ready-made items, some of which – especially waters, essences, and oils – could be used straight away in scent bottles and handkerchiefs or taken home to be used in other recipes. But consumers buying ready-made hair-powder, pomatum, or liquid scents would be far less aware of the colour, texture, weight, and other sensory qualities of the original materials. Perfume advertising also focussed less on particular ingredients and more on the feelings and places the perfumes evoked: in the 1770s Richard Warren’s trade cards evoked biblical frankincense and the odoriferous gales of the east, whilst in 1801, Hester Thrail Piozzia marvelled at the perfumer’s ability to compress ‘India’s fragrance… into a Guinea phial of Odour of Roses’.[1]

What does this tell us about the senses? It might suggest a move closer to a more ‘monolfactory’ (to coin a term) way of smelling, without any sense of a material’s other sensory properties. A loose analogy would be acousmatic listening – where one can hear something but not see the source of the sound (as on the radio). This way of smelling would, during the nineteenth-century, become part of the culture of perfumery we know today – clear, spray-on, liquids that are abstract, aimed at evoking feeling, and carry fewer of the multisensory connotations of the original ingredients. Eighteenth-century recipe books help us trace some of the origins of this slow sensory shift.

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William Tullett is a Past and Present Research Fellow at the Institute for Historical Research, London. William has just completed his first book, A Social Sense: Smell in Eighteenth-Century England, and is currently working on a new project on sound and urban change in the period between 1660 and 1840. He has published articles on early modern perfume, smell in eighteenth-century pleasure gardens and smell’s role in racial stereotypes.

 

[1] Oswald G. Knapp (ed.), The Intimate Letters of Hester Thrale Piozzi and Penelope Pennington, 1788-1821 (London, 1914), p. 229.

Dyeing to Be Cured

By Ashley Buchanan

Slipped within Anna Maria Luisa’s recipe collection is a small bound pamphlet that instructs the user how to tint or dye white marble various colors. In just sixteen pages, the unknown author details the ingredients, processes, and necessary apparatuses needed to create three different reds, two blues, three yellows, three greens, and even fake the signature black or grey veining of “pavonazzo” marble. While the secret to tinting natural looking marble was certainly valuable artisanal knowledge, it is the last three pages of the booklet that are particularly interesting. Without explanation, the pamphlet suddenly shifts topics and details “a particular secret for a styptic water that quickly stops bleeding wounds and torn guts.” The descriptive title continues by suggesting that you can “try it on a rooster by piercing its head with a sharp needle, and the rooster will heal in fifteen minutes.”

Title page of the pamphlet

The first step of the recipe instructs to dissolve a quarter of an ounce of rock alum in one ounce of “acqua rosa” (rose water), which was then added to a quart of “allume bruciato,” or calcined aluminum sulfate. This mixture was then placed in a “digestione,” which was an alchemical apparatus for distillation that dissolved a body in water or alcohol over mild heat. The recipe calls for the mixture to be heated for an hour and until clear. The second step in the recipe is to dissolve a quarter of an ounce of lead acetate in an ounce of distilled vinegar with one forth of pulverized candied sugar. For the third step, a fourth of pulverized copper sulfate from Cyprus is added to an ounce of “acqua di piantagine.” The fourth step calls for calcined red, or Roman vitriol (sulphuric acid) to be boiled with two ounces of urine from a healthy creature. The fifth and final step is to combine an ounce of strong lime into an eight of sublimated and pulverized mercury, which is “digested” to a clear heat for an hour. Once these five steps are completed, everything is to be mixed together in a flask for sublimation and to “digest” for twelve hours.

When I first came across this recipe I was unsure what to make of it, and its inclusion in a pamphlet dedicated to the act of tinting marble perplexed me. But as it turned out, this funny little pamphlet held the key to better understanding Anna Maria Luisa’s recipe collection as a whole. Recipes collected by women are traditionally viewed as domestic manuals used to safeguard the health of the home and treat commonplace illnesses. In general, and as previously discussed here on the Recipes Project, recipes were “repositories for useful knowledge” and share a desired goal to unlock nature’s secrets.[1] In the case of Anna Maria Luisa, however, useful knowledge extended beyond the preparation of simples and household medicines. Her recipe collection reveals an interest in collecting and amassing experiential alchemical knowledge. The creation of styptic water used the same ingredients, apparatuses, and alchemical processes detailed and drawn in the recipes for marble dyes that preceded it.

Detailed illustration showing how to set up the necessary alchemical apparatuses to create the marble dyes and styptic water.

In addition to highlighting one Princess’s interest in alchemy, this pamphlet also speaks to two important issues when studying early modern recipes from a modern perspective. First, science, medicine, and technology at the late Medici court existed in a world in which our modern categories of knowledge simply did not apply. In eighteenth century Florence, artisanal practices, science (or natural history), and medicine were closely connected thanks to alchemy. For the late Medici court, alchemy was not associated with the mysterious or the occult. Alchemy was an applied science that used experimental activities to investigate and transform nature. These practices produced experimental activities in metallurgy, refining salts, producing dyes and pigments, the manufacturing of man-made gemstones and stones, glass and ceramics, and the creation of chemical medicines. Each of these seemingly disparate pursuits were united by process rather than the specific product produced.

This early modern emphasis on process over product brings me to the second issue concerning the studying early modern recipes. While recipes are certainly important historical objects, they are often closely associated with or celebrated for the product they produce. This emphasis on product over process, however, can belie the true value of many recipes. As is in the case of the styptic water. Was Anna Maria Luisa interested in tinting marble or was she interested in better understanding complex alchemical processes that could transform nature and the human body? Thanks to this pamphlet, I now argue the latter.

 

[1] I am borrowing a working definition of early modern recipes from the Recipes Project post, “What is a Recipe?”