Sacred Lotus Chinesische und Integrative Medizin

Relationship Graph

Sacred Lotus connections

Updated
Sep 2026

Science: Woher die Medikamente kamen

My Plan

Ein großer Teil der Medikamente in einer modernen Apotheke wurde ursprünglich in einer Pflanze, einem Schimmelpilz, einem Bodenbakterium, einem Tier oder einem Mineral gefunden, und viele waren Heilmittel, lange bevor jemand sagen konnte, welches Molekül dafür verantwortlich war. Diese Seite verfolgt 59 Wirkstoffklassen zurück zu ihrem Ursprungsorganismus und dokumentiert, wie jede Verbindung tatsächlich zustande kam – häufiger ein Zufall, ein ernst genommenes Volksheilmittel oder eine Selbstdosierung als ein gezielt geplantes Experiment.

Modern medicine is often described as having replaced traditional remedies. The record is stranger than that. A large share of the drugs in a hospital pharmacy began as something growing in soil, on rye, in a river valley, or in a bark that somebody was already using as medicine. In several cases the traditional use pointed at the right organ before anyone knew what a receptor was: foxglove for dropsy, willow for fever, Ma Huang for wheezing, snakeroot for agitation.

What changed was not the source of the material but the ability to weigh it. When Friedrich Sertuerner precipitated morphine out of opium in 1804, he did something no herbalist could: he separated the activity from the plant and made it a quantity. Every entry below sits on one side or the other of that shift.

How these discoveries actually happened

Reading 59 of them together, the pattern is not the one in the textbooks. Four routes recur:

Somebody was already using it. Foxglove, willow, cinchona, snakeroot, autumn crocus, Ma Huang, sweet wormwood, khella, goat's rue, mayapple. The work was to find which constituent mattered and what dose was safe, not to discover that the plant did anything.

An accident on a bench. Fleming's contaminated plate, Cade dissolving uric acid in a lithium salt, Noble's periwinkle extract killing rats by dropping their white cells. In each case the finding contradicted the hypothesis being tested.

Soil, screened at scale. Waksman's program and the industrial searches that copied it produced streptomycin, the tetracyclines, vancomycin, amphotericin, doxorubicin, cyclosporine and rapamycin. The samples came from a chicken's throat, a Borneo jungle, a castle in Puglia, a Norwegian plateau and Easter Island.

A poison, understood well enough to aim. Curare, physostigmine, botulinum, arsenic, cone snail venom, pit viper venom. A substance that acts fast on nerves or blood is a drug with the dose set wrong.

The self-experiments are worth naming, because they are common enough to be a method, not an anecdote. Sertuerner nearly killed himself and three friends with morphine. Robert Christison ate a Calabar bean and survived by drinking his shaving water. Roger Altounyan inhaled several hundred candidate compounds and then exposed himself to guinea pig hair to see whether an asthma attack still came. Jean-Francois Borel drank cyclosporine to settle an argument about absorption.

59 medicines and drug classes, traced to the organism each was found in. 15 of these sources are also recorded in Chinese medicine, and 7 have a herb page on this site, linked in place below.

Molds and fungi 5

The antibiotic era, most transplant medicine and the statins all begin with something growing on a plate or in a spoonful of soil.

Penicillin

Beta-lactam antibiotics
From
Penicillium mold Penicillium rubens (long recorded as P. notatum)
When
1928, made usable 1940 to 1945
Who
Alexander Fleming; then Howard Florey, Ernst Chain and Norman Heatley

Fleming returned from holiday to a stack of staphylococcus plates, one contaminated by a mold that had cleared a ring in the bacterial lawn around itself. He identified the mold and published, then largely moved on: the active substance was unstable and he could not concentrate it. Ten years later an Oxford group led by Florey and Chain, with Heatley building the extraction apparatus out of bedpans and milk churns, produced enough to treat a patient. The first man they treated recovered while the supply lasted and died when it ran out, so they began recovering the drug from patients' urine to re-dose them.

Used now for: Streptococcal and pneumococcal infection, syphilis, and as the parent of the amoxicillins, cephalosporins and carbapenems

Griseofulvin

Antifungal
From
A mold first studied for what it did to plants Penicillium griseofulvum
When
1939, in medical use from 1958
Who
Percival Oxford, Harold Raistrick and Percy Simonart

The compound was isolated as a curiosity that stunted fungal growth and made hyphae curl. Plant pathologists used it against fungal disease in crops for years before anyone tried it on a person's scalp. It works by binding to fungal microtubules and it collects in keratin, which is why it treats hair and nail infection from the inside.

Used now for: Ringworm of the scalp and nail infection, mostly in children

Cyclosporine

Calcineurin inhibitor, immune suppression
From
A soil fungus from a Norwegian plateau Tolypocladium inflatum
When
1970, transplant use from 1978
Who
Hans Peter Frey collected the soil; Jean-Francois Borel showed what it did

Sandoz asked staff on holiday to bring back soil samples. One bag came from the Hardangervidda plateau in Norway, and the fungus in it produced a compound that suppressed lymphocytes without the general marrow poisoning of the drugs then used. Borel kept the project alive inside the company when it looked commercially hopeless, and later drank a dose himself to settle an argument about absorption. Organ transplantation changed from an experiment into a routine operation within a decade of its arrival.

Used now for: Kidney, liver and heart transplantation, severe psoriasis and uveitis

Statins

HMG-CoA reductase inhibitors
From
Blue-green mold, then a soil fungus and a red rice mold Penicillium citrinum, then Aspergillus terreus and Monascus ruber
When
1971 to 1976, first approval 1987
Who
Akira Endo

Endo reasoned that a fungus competing with other organisms might attack the cholesterol pathway that they need for their cell membranes, so he screened thousands of broths for exactly that. The hit came from Penicillium citrinum and was named compactin. Development in Japan stalled on a toxicity scare, and Merck, working with Endo's published route, brought lovastatin from Aspergillus terreus to market. Monascus, the same mold that colors red yeast rice, makes the identical compound, which is why that food supplement and the drug are chemically continuous.

Used now for: Lowering LDL cholesterol and reducing cardiovascular events

In Chinese medicine: Hong Qu, red yeast rice, is fermented with Monascus

Ergotamine, ergometrine, bromocriptine

Ergot alkaloids
From
A fungus that infects rye Claviceps purpurea
When
Midwives used it for centuries; ergotamine isolated 1918
Who
Arthur Stoll at Sandoz; later Albert Hofmann

Eating bread made from infected rye caused epidemics of burning limbs and gangrene known as St Anthony's fire, and the same fungus was used deliberately by midwives to contract the uterus after birth. Stoll isolated ergotamine, and Hofmann spent years making derivatives from the shared lysergic acid core, one of which was ergometrine for postpartum bleeding and another, the twenty-fifth in the series, was LSD. Bromocriptine came from the same chemistry and became a dopamine agonist for Parkinson's disease and prolactin-secreting tumors.

Used now for: Migraine, postpartum hemorrhage, Parkinson's disease and hyperprolactinaemia

Soil bacteria 9

One genus of soil bacterium, Streptomyces, gave medicine more antibiotics and cancer drugs than any laboratory has designed from scratch.

Streptomycin

Aminoglycoside antibiotics
From
A soil bacterium, one strain from a chicken's throat Streptomyces griseus
When
1943
Who
Albert Schatz, in Selman Waksman's laboratory

Waksman's laboratory screened soil organisms systematically for antibacterial activity, an approach he named antibiosis. Schatz, then a graduate student, found streptomycin in two strains and it did what penicillin could not: it killed the tuberculosis bacillus. It was the first effective TB drug, and the trials that established it also established the modern randomized trial. Waksman alone received the Nobel Prize, and Schatz spent decades contesting the credit.

Used now for: Tuberculosis, plague and tularaemia; the class includes gentamicin and amikacin

Tetracyclines

Broad-spectrum antibiotics
From
A golden soil bacterium from a Missouri field Streptomyces aureofaciens
When
1945, published 1948
Who
Benjamin Duggar, at Lederle after mandatory retirement from academia

Duggar was 72 and had been forced to retire when he took a job screening soils. The organism he found produced a gold-colored antibiotic, chlortetracycline, that worked against a wider range of bacteria than anything then available and could be swallowed instead of injected. Doxycycline and minocycline are later semisynthetic members of the same family.

Used now for: Acne, chlamydia, rickettsial infection, Lyme disease and malaria prophylaxis

Erythromycin

Macrolide antibiotics
From
Soil from a Philippine garden Saccharopolyspora erythraea
When
1949, marketed 1952
Who
Abelardo Aguilar, a physician in Iloilo, who sent the sample to Eli Lilly

Aguilar mailed a soil sample to his employer, Eli Lilly, which isolated the organism and the antibiotic. The drug became the standard alternative for people allergic to penicillin. Aguilar received no royalties, and Philippine campaigns to recognize him continued after his death. Azithromycin and clarithromycin are derivatives of the same molecule.

Used now for: Respiratory and skin infection, whooping cough, and as the parent of azithromycin

Vancomycin

Glycopeptide antibiotic
From
Soil from the interior of Borneo, sent by a missionary Amycolatopsis orientalis
When
1953
Who
Edmund Kornfeld at Eli Lilly

A missionary friend of a Lilly chemist sent back a soil sample from Borneo. The compound in it killed staphylococci that had already learned to resist penicillin, and early impure preparations were brown enough that the team called the material Mississippi mud. It was held in reserve for decades and became the drug of last resort for resistant staphylococcus, which is why resistance to it is watched so closely.

Used now for: MRSA, resistant enterococcal infection and Clostridioides difficile colitis

Amphotericin B

Polyene antifungal
From
Soil from the Orinoco river valley Streptomyces nodosus
When
1955
Who
Walter Gold, Hugh Stout, John Pagano and Raymond Donovick at Squibb

The organism came from a soil sample taken in Venezuela. The drug binds ergosterol in fungal membranes and punches holes in them, which works against fungi that nothing else touched. Its toxicity earned it the nickname amphoterrible among physicians, and reformulating it inside lipid particles decades later was an attempt to keep the killing and lose the kidney damage.

Used now for: Life-threatening systemic fungal infection and visceral leishmaniasis

Doxorubicin and daunorubicin

Anthracycline chemotherapy
From
Soil from the grounds of a thirteenth-century castle in Puglia Streptomyces peucetius
When
1963, doxorubicin 1969
Who
Federico Arcamone and colleagues at Farmitalia, with Aurelio Di Marco

The soil came from around Castel del Monte in southern Italy, and the red pigment the organism made turned out to kill dividing cells by jamming DNA repair. Daunorubicin worked but damaged the heart, so the team mutated the organism and screened its output until they had doxorubicin, which was more active and remains one of the most used cancer drugs in the world. The cumulative heart damage is still the limit on how much of it a person can ever receive.

Used now for: Breast cancer, lymphoma, sarcoma and childhood leukemia

Bleomycin

Antitumor antibiotic
From
A soil bacterium from a Japanese mine Streptomyces verticillus
When
1962
Who
Hamao Umezawa

Umezawa screened soil organisms for anticancer activity, not for antibacterial activity, which was an unusual question to ask at the time. Bleomycin cuts DNA using a bound iron atom and, unlike most chemotherapy, spares the bone marrow. It is a component of the regimen that made testicular cancer one of the most curable solid tumors, at the cost of a risk of lung scarring.

Used now for: Testicular cancer, Hodgkin lymphoma and as a sclerosant for malformations

Sirolimus, everolimus

mTOR inhibitors
From
Soil from Easter Island Streptomyces hygroscopicus
When
1972
Who
Suren Sehgal at Ayerst, from a 1964 expedition sample

The sample came from Rapa Nui, which is why the compound is called rapamycin. It was found as an antifungal, then abandoned when the company closed the laboratory; Sehgal took a vial home and kept it in his freezer for years until the project could be restarted. It turned out to inhibit a growth-regulating protein complex that was named after it, mTOR, and became a transplant drug, a coating for cardiac stents, a cancer drug and the most studied molecule in the biology of ageing.

Used now for: Transplant immune suppression, drug-eluting stents, some cancers and tuberous sclerosis

Botulinum toxin

Neuromuscular blocker
From
The bacterium behind sausage poisoning Clostridium botulinum
When
Described 1820s, therapeutic use from 1977
Who
Justinus Kerner described the poisoning; Alan Scott made it a treatment

Kerner, a district health officer and poet, worked out in the 1820s that badly preserved sausage contained a substance that paralysed muscle, and suggested it might one day treat conditions of excessive movement. He was right by 150 years. Scott, an ophthalmologist, injected tiny purified doses into eye muscles to correct squint, and the cosmetic use was noticed afterwards as a side effect that patients liked.

Used now for: Squint, dystonia, spasticity, chronic migraine and cosmetic use

Plants 31

The oldest and largest group. Several of these were medicines for centuries before anyone could say which molecule was doing the work.

Aspirin

Non-steroidal anti-inflammatory drugs
From
Willow bark, and meadowsweet Salix species; Filipendula ulmaria, formerly Spiraea
When
1763 trial, salicin isolated 1828, acetylated 1897
Who
Edward Stone; Johann Buchner; Felix Hoffmann and Arthur Eichengrun at Bayer

Willow bark for fever is recorded from Sumerian tablets onward, but Stone, an English clergyman, ran something close to a trial: he dried the bark, dosed fifty people with ague and wrote up the results for the Royal Society in 1763. Buchner isolated salicin in 1828, and salicylic acid worked but wrecked the stomach. Hoffmann acetylated it at Bayer in 1897 to make a tolerable version, and the name aspirin keeps a fragment of Spiraea, the meadowsweet genus that was the other source of the acid. How it works was only explained in 1971, when John Vane showed it blocks prostaglandin synthesis.

Used now for: Pain, fever, and lifelong low-dose use to prevent clotting after a heart attack or stroke

Morphine, codeine, papaverine

Opioid analgesics
From
Opium poppy latex Papaver somniferum
When
1804 to 1805
Who
Friedrich Sertuerner, an apprentice apothecary in Paderborn

Opium was ancient, but its strength varied so wildly between batches that dosing was guesswork. Sertuerner, in his twenties and working alone, precipitated a crystalline base from it, tested it on stray dogs and then on himself and three friends, and nearly killed all four. He had isolated the first plant alkaloid, and named it after Morpheus. That single result created the idea that a plant's activity lives in a specific compound that can be weighed, which is the foundation of pharmacology. Codeine followed in 1832 and papaverine in 1848, and naloxone, the overdose antidote, is a later modification of the same skeleton.

Used now for: Severe pain, cough suppression, and the reference against which all analgesia is measured

In Chinese medicine: Ying Su Ke, the poppy husk, used for chronic cough and diarrhoea · read the herb page

Quinine and quinidine

Antimalarial; class I antiarrhythmic
From
Cinchona bark from the Andes Cinchona officinalis and related species
When
In Europe from the 1630s, isolated 1820
Who
Pierre Joseph Pelletier and Joseph Bienaime Caventou

Quechua people used cinchona bark, and Jesuit missionaries carried it to Europe, where it was sold as Jesuit's bark and distrusted for exactly that reason. Pelletier and Caventou isolated quinine in 1820, which made reliable dosing possible and, with it, European campaigns in malarial regions. The bark's other alkaloid, quinidine, became a heart drug after a Dutch merchant told the cardiologist Karel Wenckebach that he could stop his own attacks of atrial fibrillation with quinine, and was believed. Chloroquine and mefloquine are synthetic descendants of the same chemistry.

Used now for: Severe malaria; quinidine for certain arrhythmias

Artemisinin

Antimalarial
From
Sweet wormwood Artemisia annua
When
1972
Who
Tu Youyou and the Project 523 team

Project 523 was a wartime assignment to find a malaria drug for troops in Vietnam, and Tu's group screened hundreds of traditional preparations with poor results. She went back to the texts and found in Ge Hong's fourth-century handbook of emergency prescriptions that the herb was to be soaked and wrung out, not boiled, which suggested the active compound was heat-sensitive. A cold ether extraction gave complete clearance of parasites in animals, and the team took the first human doses themselves. Tu received the Nobel Prize in 2015, and artemisinin combinations are now the first-line treatment for falciparum malaria worldwide.

Used now for: Falciparum malaria, always in combination to slow resistance

In Chinese medicine: Qing Hao, sweet wormwood, classically used for alternating chills and fever

Digoxin

Cardiac glycoside
From
Foxglove Digitalis purpurea and D. lanata
When
1775 to 1785
Who
William Withering, from a Shropshire herbalist's recipe

Withering heard of a family recipe for dropsy, the fluid overload of heart failure, kept by a woman in Shropshire. He worked out which of its twenty-odd ingredients mattered, settled on foxglove leaf, and then spent ten years recording 163 cases with the dose, the timing and the failures included. His account of the narrow line between the useful dose and the toxic one is still the standard description of the drug. The specific glycoside now used, digoxin, is drawn mainly from the woolly foxglove.

Used now for: Rate control in atrial fibrillation and some heart failure

Paclitaxel and docetaxel

Taxane chemotherapy
From
Pacific yew bark, then European yew needles Taxus brevifolia, then Taxus baccata
When
Collected 1962, structure 1971, approved 1992
Who
Arthur Barclay collected the bark; Monroe Wall and Mansukh Wani found the compound

Barclay, a botanist on a US government plant-screening program, stripped bark from yews in a Washington forest and sent it in with hundreds of other samples. Wall and Wani traced the activity and published the structure, and it took another twenty years to understand that it works by freezing microtubules instead of breaking them, and to solve the supply problem: treating one patient took several mature trees, and the trees grow slowly in old forest. The answer was to take a precursor from the fast-growing needles of the European yew and finish the molecule chemically, which is how it is still made.

Used now for: Ovarian, breast, lung and pancreatic cancer, and on coronary stents

Irinotecan and topotecan

Topoisomerase I inhibitors
From
The happy tree of southern China Camptotheca acuminata
When
1966
Who
Monroe Wall and Mansukh Wani

The same two chemists who solved paclitaxel isolated camptothecin from a Chinese ornamental tree. The parent compound failed in early trials because it was insoluble and unpredictably toxic, and the program was dropped for over a decade. It was revived once the target was identified as topoisomerase I, and water-soluble analogues built around the same core became standard drugs. Irinotecan is now part of the main regimens for advanced bowel cancer.

Used now for: Colorectal, small-cell lung and ovarian cancer

In Chinese medicine: Xi Shu, recorded in Chinese materia medica

Etoposide

Topoisomerase II inhibitor
From
Mayapple root Podophyllum peltatum and P. hexandrum
When
Podophyllotoxin known from 1880, etoposide 1966
Who
Sandoz chemists, from a resin long used by Penobscot people and North American physicians

The resin of mayapple root was used by Penobscot people and later listed in American pharmacopoeias as a purgative and a treatment for warts. Podophyllotoxin, its active constituent, poisoned dividing cells but was far too toxic to give internally. Semisynthetic modification produced etoposide, which acts on a different target from its parent and is gentle enough to be one of the most widely used cancer drugs.

Used now for: Small-cell lung cancer, testicular cancer, lymphoma and leukemia

Vincristine and vinblastine

Vinca alkaloid chemotherapy
From
Madagascar periwinkle Catharanthus roseus
When
1958
Who
Robert Noble and Charles Beer in Ontario; Gordon Svoboda at Eli Lilly

Noble's brother sent him leaves of a plant used in Jamaica as a folk remedy for diabetes. It did nothing to blood sugar, but injected extracts dropped the white cell count in rats and killed them of infection, which is the opposite of a failure if you are looking for a leukemia drug. Two closely related alkaloids came out of the work: vinblastine for Hodgkin lymphoma and vincristine, which turned childhood acute lymphoblastic leukemia from a death sentence into a disease most children survive.

Used now for: Childhood leukemia, Hodgkin lymphoma and several solid tumors

Colchicine

Anti-inflammatory, microtubule inhibitor
From
Autumn crocus, or meadow saffron Colchicum autumnale
When
Described in antiquity, isolated 1820
Who
Pelletier and Caventou again

The plant is named for Colchis on the Black Sea, and Dioscorides warned it was poisonous while physicians used it for joint pain anyway. Isolation in 1820 allowed dosing that treated gout without killing the patient, though the margin remains narrow. Its mechanism, binding tubulin and blocking the movement of inflammatory cells, later made it useful in conditions that have nothing to do with gout, including familial Mediterranean fever, pericarditis and coronary inflammation.

Used now for: Acute gout, familial Mediterranean fever, pericarditis and secondary cardiovascular prevention

Atropine, hyoscine, hyoscyamine

Antimuscarinic agents
From
Deadly nightshade, henbane and thorn apple Atropa belladonna, Hyoscyamus niger, Datura stramonium
When
Atropine isolated 1831
Who
Heinrich Mein; the eye effect was known long before

Belladonna means beautiful lady, and the name records the cosmetic use of the juice to widen the pupils. The same plants were poisons, anesthetics of a dangerous kind, and ingredients in the ointments described in witchcraft trials. Once atropine was isolated it became an ophthalmic tool, a treatment for slow heart rate, a drying agent before anesthesia, and the antidote to nerve agents and organophosphate pesticides. Hyoscine from henbane is still the standard drug for motion sickness.

Used now for: Bradycardia, organophosphate poisoning, pupil dilation and motion sickness

Physostigmine, neostigmine, pyridostigmine

Cholinesterase inhibitors
From
Calabar bean, an ordeal poison Physostigma venenosum
When
1864
Who
Jobst and Hesse isolated it; Robert Christison tested it on himself

In parts of West Africa the bean was used in trial by ordeal: the accused swallowed it, and survival was taken as innocence. Christison, in Edinburgh, ate a portion to characterise the poisoning and only survived by drinking his shaving water to make himself vomit. Understanding that it blocks the breakdown of acetylcholine gave medicine a whole class of drugs: glaucoma drops, the reversal agents used at the end of every general anesthetic, and the mainstay treatment for myasthenia gravis.

Used now for: Myasthenia gravis, reversal of neuromuscular blockade and glaucoma

Tubocurarine and its successors

Neuromuscular blocking agents
From
Amazonian arrow poison Chondrodendron tomentosum and Strychnos species
When
Studied from 1800s, surgical use 1942
Who
Claude Bernard explained it; Harold Griffith used it in surgery

Indigenous hunters in the Amazon prepared curare so that struck animals stopped breathing while the meat stayed edible, which tells you the poison acts on nerve endings and is not absorbed from the gut. Bernard showed it blocks the junction between nerve and muscle, leaving both intact. In 1942 Griffith and Enid Johnson in Montreal gave it during an appendicectomy, which meant a surgeon could have a relaxed abdomen without pushing anesthesia to a dangerous depth. Every modern paralytic used in surgery and intensive care descends from that afternoon.

Used now for: Muscle relaxation for surgery and ventilation, now with synthetic agents

Reserpine

Antihypertensive, early antipsychotic
From
Indian snakeroot Rauvolfia serpentina
When
1952
Who
Emil Schlittler and colleagues at Ciba

Sarpagandha root had been used in India for centuries for insomnia, agitation and what the texts call insanity, and Indian physicians reported in the 1930s that it lowered blood pressure. Ciba isolated reserpine in 1952. It became one of the first drugs to control hypertension and one of the first to quiet psychosis, and it caused depression in a fraction of the people who took it. That side effect was the observation that launched the monoamine theory of depression, because reserpine depletes exactly the transmitters that later antidepressants raise.

Used now for: Rarely prescribed now, but foundational to psychopharmacology

Ephedrine and pseudoephedrine

Sympathomimetic amines
From
Ma Huang, ephedra stem Ephedra sinica
When
1885, in Western medicine from 1924
Who
Nagai Nagayoshi isolated it; Ko Kuei Chen and Carl Schmidt introduced it in the West

Ma Huang is one of the oldest recorded Chinese herbs for wheezing and for driving out cold. Nagai, trained in Japan and Germany, isolated ephedrine in 1885, and forty years later Chen, working from his family's knowledge of the herb, characterised its actions with Schmidt at Peking Union Medical College and gave asthma medicine its first reliable bronchodilator. The molecule is also the template for amphetamine, and the herb's later career as a weight-loss supplement, banned in the United States in 2004 after deaths, is the clearest case on this site of a plant being safe as a prescribed medicine and dangerous as an unregulated product.

Used now for: Blood pressure support during anesthesia; pseudoephedrine as a decongestant

In Chinese medicine: Ma Huang, warm and acrid, classically for wind-cold with wheezing · read the herb page

Local anesthetics

Sodium channel blockers
From
Coca leaf Erythroxylum coca
When
Isolated 1860, surgical use 1884
Who
Albert Niemann isolated cocaine; Karl Koller made it an anesthetic

Coca leaf was chewed in the Andes for millennia and Niemann isolated cocaine in 1860, noting that it numbed his tongue. That note sat unused for twenty years until Koller, a young ophthalmologist in Vienna and a colleague of Freud's, realised that a numb surface meant eye surgery could be done on a conscious patient without pain. Surgery changed within months. The addictive parent drug was then engineered out: procaine arrived in 1905 and lidocaine, still the workhorse, in 1943.

Used now for: Every local and regional anesthetic, and lidocaine for arrhythmias

Theophylline and caffeine

Methylxanthines
From
Tea leaves and coffee beans Camellia sinensis; Coffea arabica
When
Caffeine 1819, theophylline 1888
Who
Friedlieb Runge isolated caffeine; Albrecht Kossel isolated theophylline

Goethe suggested to Runge that he analyse coffee beans, and caffeine was the result. Kossel later isolated the closely related theophylline from tea. Theophylline relaxes airway muscle and was a mainstay of asthma treatment for most of the twentieth century, though its narrow safe range pushed it aside once inhalers arrived. Caffeine is still a drug in neonatal intensive care, where it is the standard treatment for the apnoea of prematurity.

Used now for: Apnoea of prematurity, and theophylline in some obstructive lung disease

Cromolyn and amiodarone

Mast cell stabiliser; class III antiarrhythmic
From
Bishop's weed Ammi visnaga
When
Khellin isolated 1879, cromolyn 1965
Who
Roger Altounyan, who tested every candidate on his own asthma

Khella has been used in Egypt for renal colic since antiquity, and its constituent khellin relaxes smooth muscle. Altounyan, a physician with asthma, spent years inhaling candidate derivatives and then deliberately exposing himself to guinea pig hair to see whether an attack still came. The 670th compound worked, and became sodium cromoglicate. The same khellin chemistry, pursued for coronary dilation, produced amiodarone, which turned out to be a powerful antiarrhythmic.

Used now for: Allergic asthma and allergic eye disease; amiodarone for serious arrhythmias

Metformin

Biguanide
From
Goat's rue, or French lilac Galega officinalis
When
Guanidine isolated 1918, clinical use 1957
Who
Jean Sterne named and introduced it

The plant was a folk remedy for excessive thirst and urination, which is a description of diabetes, and it is toxic to grazing sheep. Guanidine from the plant lowered blood sugar in animals in the 1910s, and the safer derivative metformin was made in the 1920s and then forgotten while insulin took the field. Sterne, in Paris, revived it in 1957 and called it Glucophage, the glucose eater. It is now the first drug offered for type 2 diabetes almost everywhere in the world.

Used now for: Type 2 diabetes, polycystic ovary syndrome and diabetes prevention

Galantamine

Cholinesterase inhibitor
From
Snowdrop and daffodil bulbs Galanthus and Leucojum species
When
Isolated in the 1950s
Who
Soviet and Bulgarian pharmacologists, including Dimitar Paskov

The often-repeated account is of a Bulgarian pharmacologist noticing villagers rubbing snowdrop on the forehead for nerve pain, and while that story is hard to source, the Eastern European research on Galanthus alkaloids in the 1950s is well documented. Galantamine was used for polio-related paralysis and for reversing anesthesia before it was reintroduced in the 1990s for Alzheimer's disease. It both inhibits cholinesterase and modulates nicotinic receptors, which is unusual for the class.

Used now for: Mild to moderate Alzheimer's disease

Huperzine A

Cholinesterase inhibitor
From
Toothed clubmoss Huperzia serrata
When
Isolated 1948, characterised in the 1980s
Who
Chinese pharmacologists working from the herb Qian Ceng Ta

The clubmoss was used in China for bruising, swelling and fever. Its alkaloid turned out to be a potent and selective cholinesterase inhibitor, and it has been used in China as a drug for memory impairment while remaining a supplement and not an approved medicine in the United States and Europe. It is the clearest current example of a traditional herb sitting exactly on the line between the two regulatory worlds.

Used now for: Prescribed in China for memory impairment; studied elsewhere in Alzheimer's disease

In Chinese medicine: Qian Ceng Ta

Pilocarpine

Muscarinic agonist
From
Jaborandi leaves Pilocarpus jaborandi
When
1875
Who
Symphronio Coutinho brought the plant to Europe; Hardy and Gerrard isolated the alkaloid

Indigenous Brazilians used jaborandi leaves to provoke sweating and salivation, and a Brazilian physician carried the plant to Europe, where two chemists independently isolated pilocarpine in the same year. Dropped into the eye it constricts the pupil and lowers pressure, which made it the first useful glaucoma treatment. It is still given by mouth to restore saliva in people whose glands have been damaged by radiotherapy or Sjogren's syndrome.

Used now for: Glaucoma, dry mouth after radiotherapy, and presbyopia drops

Emetine

Antiprotozoal
From
Ipecac root Carapichea ipecacuanha
When
Isolated 1817
Who
Pelletier and Francois Magendie

Ipecac reached Europe from Brazil in the seventeenth century and was used to induce vomiting and to treat dysentery. Emetine, isolated in 1817, was the first drug that reliably killed the amoeba causing dysentery and it remained in use for over a century despite damaging the heart. Syrup of ipecac itself stayed in household medicine cabinets as an emetic for poisoning until that practice was abandoned as more harmful than helpful.

Used now for: Largely replaced by metronidazole, but historically the first amoebic dysentery cure

Cortisone, progesterone and the contraceptive pill

Steroid hormones
From
Mexican wild yam, and soybean sterols Dioscorea mexicana, barbasco root
When
1938 to 1951
Who
Russell Marker; Carl Djerassi, Luis Miramontes and George Rosenkranz at Syntex; Percy Julian

Steroid hormones were made from ox bile and animal glands in quantities so small they were worth more than gold. Marker worked out how to strip a yam sterol down to progesterone, could not interest any company, and drove into Mexico himself to collect barbasco root from local harvesters and found the company that became Syntex. Percy Julian, working around the same problem from soybean sterols, made the supply cheaper again. In 1951 Miramontes, a graduate student, synthesised norethindrone, the compound that made an oral contraceptive possible. Every steroid inhaler, cortisone injection and contraceptive pill runs back through this plant chemistry.

Used now for: Contraception, asthma inhalers, inflammatory disease and hormone replacement

In Chinese medicine: Huang Yao Zi, a Dioscorea used for goitre and swelling · read the herb page

Berberine

Antimicrobial and metabolic agent
From
Coptis, barberry and goldenseal Coptis chinensis; Berberis species
When
Isolated in the 1820s
Who
European chemists working on barberry root

Huang Lian is one of the bitterest and most used cold-clearing herbs in Chinese medicine, and berberine is the yellow alkaloid that gives it both color and name. It has been used as an antimicrobial and antidiarrhoeal for decades in China, and has been studied more recently for blood glucose and lipids. It is not an approved drug in the West, so it sits in the same regulatory gap as huperzine: a defined molecule with real activity, sold as a supplement.

Used now for: Used in China for infectious diarrhoea; studied for glucose and lipid control

In Chinese medicine: Huang Lian, bitter and cold, clears heat and dries damp · read the herb page

Tetrandrine

Calcium channel blocker
From
Stephania root Stephania tetrandra
When
Isolated in the 1930s
Who
Chinese and Japanese pharmacologists

Han Fang Ji is used in Chinese medicine for painful swollen joints and fluid retention, and tetrandrine from its root blocks calcium channels, which is why it lowers blood pressure. The herb also carries a hard lesson about identification: in the 1990s a Belgian weight-loss clinic dispensed capsules in which this root had been substituted with Aristolochia, whose aristolochic acid caused kidney failure and urinary tract cancer in over a hundred women. The molecule was never the problem. The label was.

Used now for: Studied for hypertension and silicosis in China; the substitution case reshaped herb regulation

In Chinese medicine: Han Fang Ji, for wind-damp painful obstruction · read the herb page

Strychnine

Glycine receptor antagonist
From
Nux vomica seeds Strychnos nux-vomica
When
Isolated 1818
Who
Pelletier and Caventou

The seeds were used as a stimulant and tonic in both Chinese and European practice, and the alkaloid was isolated in 1818 by the pair who also gave medicine quinine and colchicine. Strychnine was never a good medicine, and its lasting contribution is scientific: because it blocks glycine receptors in the spinal cord with great specificity, it became the tool that revealed how inhibition works in the central nervous system. It also gave Robert Robinson and Robert Woodward one of the classic structural puzzles of organic chemistry.

Used now for: Not therapeutic; a research tool and a historical poison

In Chinese medicine: Ma Qian Zi, used externally and in tiny processed doses · read the herb page

Sennosides

Stimulant laxative
From
Senna leaves and pods Senna alexandrina
When
In Arab medicine by the ninth century
Who
Recorded by Arab physicians, standardized in the twentieth century

Senna entered medicine through Arabic pharmacology and never left it. The sennosides are inactive as swallowed and are converted by gut bacteria into the compound that stimulates the colon, which is why the effect arrives some hours later and why it depends on the microbiome. It is one of very few herbal preparations that remains a licensed medicine in its plant form instead of being replaced by a synthetic.

Used now for: Constipation, including opioid-related constipation, and bowel preparation

In Chinese medicine: Fan Xie Ye, purges accumulation

Capsaicin

TRPV1 agonist
From
Chilli peppers Capsicum species
When
Isolated 1846, receptor identified 1997
Who
John Clough Thresh isolated it; David Julius identified its receptor

Capsaicin is what makes a chilli hot, and rubbing pepper preparations on aching joints is old folk practice. Julius used it as a probe to find the receptor it acts on, TRPV1, which turned out to be the sensor the body uses for damaging heat; that work shared the 2021 Nobel Prize. Applied repeatedly at high dose it exhausts and retracts the pain fibers it stimulates, which is why a substance that burns is used as a painkiller.

Used now for: Neuropathic pain, as a high-dose dermal patch and low-dose creams

Cannabidiol and dronabinol

Cannabinoids
From
Cannabis Cannabis sativa
When
CBD isolated 1940, structures solved 1963 to 1964
Who
Roger Adams isolated CBD; Raphael Mechoulam and Yechiel Gaoni solved both structures

Mechoulam obtained hashish from the Israeli police, separated the constituents, and showed which one was intoxicating and which was not. That distinction is the basis of the entire modern cannabinoid field, including the discovery of the body's own cannabinoid transmitters. A purified plant-derived cannabidiol was approved in 2018 for two rare childhood epilepsies after trials showed it reduced seizures, which makes it one of the few recent examples of a plant extract becoming a licensed drug in its own right.

Used now for: Dravet and Lennox-Gastaut epilepsy, chemotherapy-induced nausea and spasticity in multiple sclerosis

In Chinese medicine: Huo Ma Ren, the seed, used as a mild laxative and free of cannabinoid activity

Ginkgolides

Platelet-activating factor antagonists
From
Ginkgo leaves and nuts Ginkgo biloba
When
Structures solved 1967
Who
Koji Nakanishi

Nakanishi solved the structure of the ginkgolides, cage-shaped molecules unlike anything else in plant chemistry, from a tree that has no living relatives. They block platelet-activating factor, a signal in inflammation and clotting, and that mechanism has been pursued for asthma and stroke without producing a first-line drug. Standardized leaf extract remains one of the most-sold botanicals in the world, and the evidence for it in memory is far weaker than its sales suggest.

Used now for: Sold widely as an extract; the isolated ginkgolides remain research and specialty compounds

In Chinese medicine: Bai Guo, the nut, used for wheezing and urinary frequency · read the herb page

Animals and venoms 8

Venoms are pre-sorted pharmacology: they evolved to act fast on nerves, blood and muscle, which is exactly what a drug has to do.

Insulin

Peptide hormone replacement
From
Ox and pig pancreas Bos taurus, Sus scrofa
When
1921 to 1922
Who
Frederick Banting, Charles Best, James Collip and John Macleod

Type 1 diabetes was uniformly fatal, and children died within months of diagnosis. Banting and Best tied off the pancreatic ducts of dogs to let the digestive tissue waste away, then extracted what remained; Collip purified it well enough to inject. In January 1922 Leonard Thompson, fourteen and dying, received the first effective dose. The team sold the patent to the University of Toronto for one dollar. Animal insulin was the treatment for sixty years, until human sequences could be made in bacteria and yeast.

Used now for: All type 1 and much type 2 diabetes, now with recombinant and analogue insulins

Heparin

Anticoagulant
From
Dog liver, then pig intestine and beef lung Sus scrofa
When
1916
Who
Jay McLean and William Howell; Charles Best again for the clinical form

McLean, a medical student, was set to purify a clotting agent from liver and found a preparation that did the opposite. The name comes from hepar, liver. Purifying it well enough to give safely took another twenty years and much of that work was done in Toronto and Stockholm. Almost all heparin is still harvested from pig intestinal mucosa, which is why a disease outbreak in pigs is a drug supply problem, and why a 2008 contamination of the Chinese supply chain killed people.

Used now for: Prevention and treatment of thrombosis, dialysis and cardiac surgery

ACE inhibitors

Antihypertensives
From
Brazilian pit viper venom Bothrops jararaca
When
1965 to 1975
Who
Sergio Ferreira found the venom factor; David Cushman and Miguel Ondetti designed the drug

Workers on Brazilian plantations bitten by the jararaca collapsed with sudden low blood pressure. Ferreira showed the venom contained peptides that potentiate bradykinin, and the target turned out to be angiotensin converting enzyme. Cushman and Ondetti at Squibb built a small molecule to fit that enzyme's active site, which was one of the first drugs designed from a mechanism, not found by screening. Captopril and its successors are now among the most prescribed drugs on earth.

Used now for: Hypertension, heart failure, and protection of the kidney in diabetes

Exenatide

GLP-1 receptor agonists
From
Gila monster venom Heloderma suspectum
When
1992
Who
John Eng, at a Bronx veterans hospital

Eng was looking for hormones in unusual places and reasoned that a lizard which eats a few enormous meals a year would need a durable version of the gut hormone that manages a meal. He bought venom with his own money and found exendin-4, a peptide close enough to human GLP-1 to activate the same receptor but resistant to the enzyme that destroys ours within minutes. His employer declined to patent it, so he patented it himself. That lizard peptide is the direct ancestor of the GLP-1 class now used for diabetes and obesity.

Used now for: Type 2 diabetes; the class it founded now includes the widely used weight-loss drugs

Bivalirudin and lepirudin

Direct thrombin inhibitors
From
Medicinal leech saliva Hirudo medicinalis
When
Hirudin described 1884
Who
John Berry Haycraft

Leeches were used for bloodletting for two thousand years, for reasons that were wrong, and the one useful thing about them is in their saliva: hirudin, which blocks thrombin directly so the bite keeps bleeding. Haycraft described the anticoagulant effect in 1884. Recombinant and shortened synthetic versions became drugs for people who cannot receive heparin, particularly those who have developed heparin-induced low platelets. Live leeches are also still used in reconstructive surgery to drain congested tissue flaps.

Used now for: Anticoagulation during angioplasty and in heparin-induced thrombocytopenia

In Chinese medicine: Shui Zhi, the dried leech, used to break up static blood

Eptifibatide and tirofiban

Glycoprotein IIb/IIIa inhibitors
From
Pygmy rattlesnake and saw-scaled viper venoms Sistrurus miliarius barbouri; Echis carinatus
When
Late 1980s
Who
Researchers characterising venom disintegrins

Some venoms stop the victim's blood from clotting by blocking the receptor platelets use to stick to one another. The peptides responsible were named disintegrins, and both eptifibatide and tirofiban were built to imitate the crucial fragment of one. They are given during coronary procedures precisely because they do to a patient's platelets, briefly and reversibly, what a snake does to its prey.

Used now for: Preventing clot formation during coronary angioplasty

Salmon calcitonin

Peptide hormone
From
Salmon thyroid tissue Oncorhynchus species
When
1960s
Who
Following Douglas Copp's discovery of the hormone in 1961

Calcitonin lowers blood calcium, and the salmon version binds the human receptor considerably more strongly than our own hormone does, which is a common and useful accident. It was widely used for Paget's disease and osteoporosis, and has since been narrowed by concerns about long-term cancer risk. It remains a case where an animal's version of a human hormone made the better drug.

Used now for: Paget's disease, hypercalcaemia of malignancy and some bone pain

Desiccated thyroid

Hormone replacement
From
Sheep and pig thyroid glands Ovis aries, Sus scrofa
When
1891
Who
George Redmayne Murray

Murray injected an extract of sheep thyroid into a woman with myxedema, a condition that was then a slow decline into coma, and she recovered and lived nearly thirty more years. It was among the first successful hormone replacements in medicine and it long predates any understanding of what thyroxine is. Animal-derived thyroid is still prescribed, and still argued about, alongside synthetic levothyroxine.

Used now for: Hypothyroidism, mostly with synthetic thyroxine now

The sea 4

Sponges and snails cannot run away, so they defend themselves chemically. Several cancer drugs and one painkiller come from that chemistry.

Cytarabine and vidarabine

Nucleoside analogues
From
A Caribbean sponge Cryptotethya crypta
When
Sponge nucleosides described 1951, drug approved 1969
Who
Werner Bergmann and Robert Feeney

Bergmann found nucleosides in a Florida sponge carrying an unusual sugar, which suggested that such molecules could be built with the sugar swapped out and still be taken up by cells. Cytarabine was made on that principle and became, and remains, the backbone of treatment for acute myeloid leukemia. Vidarabine from the same line of thinking was an early antiviral. This is the origin of marine pharmacology as a field.

Used now for: Acute myeloid leukemia and lymphoma involving the nervous system

Ziconotide

N-type calcium channel blocker
From
Cone snail venom Conus magus
When
Peptide characterised in the 1980s, approved 2004
Who
Baldomero Olivera and his students

Olivera grew up in the Philippines collecting cone shells and later studied why their venom is fast enough to stop a fish mid-swim. The venoms hold hundreds of small peptides, each tuned to a specific ion channel, which makes them a catalogue of pharmacology, not a single poison. One of them blocks the calcium channel that carries pain signals in the spinal cord. As a drug it must be infused directly into spinal fluid, and it works in some people for whom morphine does not.

Used now for: Severe chronic pain unresponsive to opioids, given intrathecally

Trabectedin

DNA-binding chemotherapy
From
A mangrove sea squirt Ecteinascidia turbinata
When
Activity reported 1969, approved 2007
Who
Kenneth Rinehart isolated the compound

Extracts of a Caribbean tunicate killed cancer cells, but the animal yields so little of the active compound that harvesting it was never going to supply a drug: early production required tonnes of sea squirt for grams of material. A total synthesis, later replaced by a route starting from a bacterial fermentation product, is what made it a medicine. It is the standard example of why a promising marine compound takes decades to reach a patient.

Used now for: Advanced soft tissue sarcoma and relapsed ovarian cancer

Eribulin

Microtubule inhibitor
From
A Japanese black sponge Halichondria okadai
When
Halichondrin B isolated 1986, approved 2010
Who
Isolated by Daisuke Uemura and Kiyoyuki Yamada; simplified at Eisai

Halichondrin B was extraordinarily active and available in absurdly small amounts, and its structure is one of the most complex ever taken on by synthetic chemists. Yoshito Kishi's total synthesis made research possible, and the crucial commercial insight was that only part of the huge molecule was needed. Eribulin is that simplified fragment, and it is one of the few drugs on the market whose supply depends entirely on a long chemical synthesis of a sea sponge product.

Used now for: Metastatic breast cancer and liposarcoma

Minerals 2

Two of the oldest poisons in medicine, both now used with a precision their history did not allow.

Arsenic trioxide

Differentiating agent for leukemia
From
A mineral poison, revived through a village remedy As2O3, known in Chinese medicine as Pi Shuang
When
1970s in Harbin, Western trials from 1997
Who
Zhang Tingdong and colleagues at Harbin Medical University

Arsenic was in Western pharmacopoeias for centuries and was mostly a poison. In the early 1970s a team in Harbin investigated a folk practitioner's remedy for cancer that contained arsenic, and worked out which patients it actually helped: those with acute promyelocytic leukemia, once the most lethal form. Combined with all-trans retinoic acid, arsenic trioxide turned that disease into one curable in about nine of ten cases, usually without chemotherapy. It is the strongest modern instance of a traditional preparation being narrowed into a first-line drug.

Used now for: Acute promyelocytic leukemia, with retinoic acid

In Chinese medicine: Pi Shuang, a highly toxic mineral used externally in classical practice

Lithium

Mood stabiliser
From
An alkali metal, first met in mineral spring water Li
When
1949
Who
John Cade, in a repurposed Melbourne hospital kitchen

Cade suspected mania was caused by a circulating toxin, injected guinea pigs with patients' urine, and used lithium salt only to dissolve uric acid for the experiment. The lithium calmed the animals, which was not the hypothesis he was testing. He gave it to ten patients with mania and the results were immediate enough to be unmistakable. It remains the most effective drug for bipolar disorder and the only one shown repeatedly to reduce suicide, and nobody can yet say clearly how it works.

Used now for: Bipolar disorder, and augmentation in treatment-resistant depression

What this does and does not tell you

That a drug came from a plant is a fact about history, not a recommendation about the plant. The gap between the two is the whole reason isolation mattered, and foxglove is the clearest case of it.

Withering spent ten years on foxglove, and the most useful thing he recorded was how narrow the gap is between the dose that helps and the dose that kills. Digoxin is that gap, measured. Foxglove tea is the same chemistry with the measurement missing.

Two entries here are cautions, not successes. Stephania root gave pharmacology tetrandrine, and in the 1990s a Belgian clinic dispensed capsules in which that root had been replaced with Aristolochia; over a hundred women developed kidney failure or urinary tract cancer. The molecule was not the problem, the identification was. And ephedra, safe and useful as prescribed ephedrine, was sold as a weight-loss supplement until deaths led to a ban.

The opposite lesson is in the arsenic entry. A folk cancer remedy in Harbin was investigated instead of dismissed, narrowed to the one leukemia it actually treats, and combined with retinoic acid. Acute promyelocytic leukemia went from the most lethal form of the disease to one cured in about nine cases out of ten. Both lessons are the same lesson: what decides the outcome is whether anyone measured it.

Review state. This page has not completed that pass or its adversarial review, so treat it as a working draft. Our method is described in our editorial policy.

Thomas Dehli, Founder & Editor, Sacred Lotus

Sacred Lotus has published Chinese medicine reference material since 2001. Integrative pages are held to the same standard as the herb and formula library: cite the source, grade the claim at its real strength, and say where the research has not looked. This page is educational and it is not medical advice. Last reviewed and updated September 3, 2026.