Recent History
April 2, 1918
Vilhjalmur Stefansson
Discovery
Stefansson is sick with typhoid fever and getting worse and worse. After signing that he's responsible for his own death, he leaves a settlement where he was forced to eat carby liquids and instead was able to eat fish and caribou, allowing him to begin to restore his health nearly immediately, although recovery still took months. The sickness capped his time in the Artic after five full years exploring.
"It was now Fry's opinion that I had had typhoid fever. When my friends thought of what they had been letting me eat, they were shocked and alarmed. During the first period of high fever I had been without appetite, but as soon as the fever dropped to 100 degrees, I had begun to eat steaks and fried potatoes or whatever else the police were having for their meals. An hour before my sudden relapse, I had eaten a large meal of macaroni and cheese. There were some who believed that this heavy food was responsible. The relapse, they felt, served me right. What eles could have been expected of a sick man who ate macaroni and cheese!"
page 208
"My convalescence was not going well. When it was decided that I must have had typhoid, I was put on the orthodox typhoid diet. Nothing but tinned and Argentitian powdered milk was available. My belief was that if I was allowed to eat the hearty foods for which I hungered I would probably have a better chance of getting well, and I used to reason elaborately and, it seemed to me, convincingly that I should be allowed a chance at a square meal. Arguments that seemed lucid to me were, unfortunately, considered the cunning of delirium."
page 209
"My condition kept growing worse. Finally, everyone agreed that I was going to die. At that point Police Inspector Phillips took the position that, if I was going to die, I might as well die as I wanted: in an effort to get to Fort Yukon. This did not meet the views of some of the others. There was at Herschel Island a very respectable graveyard where whalers and other white men had been buried with supposedly civilized pomp and circumstance. I felt sure that, if I died, there would be a thoroughly orthodox funeral. However, I preferred to die elsewhere and, if possible, later."
"It was in the first week of April, 1918, that I left Herschel Island in a sled equipped with springs from an old cot. Constable Brockie, Henry Fry, my Indian teen-ager, and two Eskimos accompanied me.
Fry, now that we were away from the settlement, was less inclined to insist on the orthodox liquid diet for a typhoid convalescent. I was allowed to eat one of my favorite foods, frozen raw fish. This seemed to do me good, and my second day out from Herschel saw me free of fever. It seemed unnecessary for Fry to continue with us. He said that, since I apparently got along better the more my conduct differed from what his medical books said it ought to be, I might as well take the entire responsibility for doing as I liked. Having come to this conclusion, he returned to his mission at Herschel Island.
From then on, my breakfasts and suppers consisted of caribou and fish, sometimes frozen and raw, sometimes cooked. I felt better each day and regained weight until finally, when we arrived at the mouth of the Old Crow River, at the trading post of Schultz and Johnson, I was no longer in real need of the expert care that I could get from Mrs. Schultz, who before her marriage had been a trained nurse at Fort Yukon. While I did not need the care, I shall never forget the kindness of Mrs. Schultz and her husband."
Page 210
On April 27th, when we arrived at St. Stephen's Hospital, Fort Yukon, I was so far recovered that I walked without assistance from the gate to the house. A month before, when I had been about to leave Herschel, Inspector Philips had had to guide my hand as I made the penciled cross by which I agreed that if I died on the journey the responsibility would be my own. Thus, my polar expedition came to an end." page 211
January 1, 1919
Blake F. Donaldson
Good Calories Bad Calories
Donaldson, as he wrote in his 1962 memoirs, began treating obese patients in 1919, when he worked with the cardiologist Robert Halsey, one of four founding officers of the American Heart Association. After a year of futility in trying to reduce these patients ("fat cardiacs," he called them) with semi-starvation diets, he spoke with the resident anthropologists at the American Museum of Natural History, who told him that prehistoric humans lived almost exclusively on "the fattest meat they could kill," perhaps supplemented by roots and berries
In 1920, while Vilhjalmur Stefansson was just beginning his campaign to convince nutritionists that an all-meat diet was a uniquely healthy diet, it was already making the transition into a reducing diet courtesy of a New York internist named Blake Donaldson. Donaldson, as he wrote in his 1962 memoirs, began treating obese patients in 1919, when he worked with the cardiologist Robert Halsey, one of four founding officers of the American Heart Association. After a year of futility in trying to reduce these patients ("fat cardiacs," he called them) with semi-starvation diets, he spoke with the resident anthropologists at the American Museum of Natural History, who told him that prehistoric humans lived almost exclusively on "the fattest meat they could kill," perhaps supplemented by roots and berries. This led Donaldson to conclude that fatty meat should be "the essential part of any reducing routine," and this is what he began prescribing to his obese patients. Through the 1920s, Donaldson honed his diet by trial and error, eventually settling on a half-pound of fatty meat-three parts fat to one part lean by calories, the same proportion used in Stefansson's Bellevue experiment-for each of three meals a day. After cooking, this works out to six ounces of lean meat with two ounces of attached fat at each meal. Donaldson's diet prohibited all sugar, flour, alcohol, and starches, with the exception of a "hotel portion" once a day of raw fruit or a potato, which substituted for the roots and berries that primitive man might have been eating as well. Donaldson also prescribed a half-hour walk before breakfast.
Over the course of four decades, as Donaldson told it, he treated seventeen thousand patients for their weight problems. Most of them lost two to three pounds a week on his diet, without experiencing hunger. Donaldson claimed that the only patients who didn't lose weight on the diet were those who cheated, a common assumption that physicians also make about calorie-restricted diets. These patients had a "bread addiction," Donaldson wrote, in that they could no more tolerate living without their starches, flour, and sugar than could a smoker without cigarettes. As a result, he spent considerable effort trying to persuade his patients to break their habit. "Remember that grapefruit and all other raw fruit is starch. You can't have any," he would tell them. "No breadstuff means any kind of bread…. They must go out of your life, now and forever." (His advice to diabetics was equally frank: "You are out of your mind when you take insulin in order to eat Danish pastry.")
Had Donaldson published details of his diet and its efficacy through the 1920s and 1930s, as Frank Evans did about his very low-calorie diet, he might have convinced mainstream investigators at least to consider the possibility that it is the quality of the nutrients in a diet and not the quantity of calories that causes obesity. As it is, he discussed his approach only at in-house conferences at New York Hospital. Among those who heard of his treatment, however, was Alfred Pennington, a local internist who tried the diet himself in 1944-and then began prescribing it to his patients.
January 2, 1920
The Lore of St Lawrence Island - Volume 2
Sometimes Inuit hunters would get trapped on ice floes over the entire winter, and would catch seals and then process the intestines into strands of beads full of snow to melt it with their body heat for drinking water.
Sometimes the Inuit hunters on St. Lawrence Island would be on an ice floe that breaks off the island and drifts through the ocean. This is a story about how they survived.
If the current carries them out pretty far, it will carry them around to the north side of the island. But if they drifted close in, the current would carry them south and away from the island. This is how they spent the winter. When the wind would die down, the current would take them swiftly north. They could see the Gambell mountain grow bigger, but when the north wind came up, they would see the mountain shrink again.
By the time the days began to get longer [in early March], they lost hope of getting back to the island. Mount Ayvikan [on the southwest part of the island] is the last mountain which can be seen. By this time, they had lost sight of that too. Now they could see nothing but the sea around them. They lived on a large ice floe. I think they made a shelter somewhere on it. When the wind died down, ice would form around the floe. The men would hunt for seals on this new-formed ice. In the beginning they had only one problem: no water.
The men caught a walrus or a bearded seal. They made containers from the processed intestines and filled them with snow so that their body heat could melt it. They then looped the intestines like strands of beads around their bodies between their inner and outer parkas. Our forefathers knew what they were doing. Their body heat melted the snow. This is how the men solved their water problem.
December 1, 1920
L.H. Newburgh
Archives of Internal Medicine - The Use of a High Fat Diet in the Treatment of Diabetes Mellitus - First Paper
Dr. Newburgh experiments with a high fat diet despite the fears of ketoacidosis. "we studied the effect of a high fat, low protein, low carbohydrate diet in the treatment of diabetes. Our experience with this type of diet in the management of seventy-three diabetics has convinced us that it is capable of fulfilling these four specifications."
The treatment of diabetes mellitus has been very greatly improved in the recent past, owing to the work of Allen 1 and his colleagues. It has been shown by him that the urine of the severest diabetics can be made sugar free by sufficiently prolonged starvation and will remain sugar free if the total energy intake is kept sufficiently small.
It has been the general custom to make up the diet largely of protein, because of the undoubted desirability of omitting carbohydrates, and because of the almost universal fear of precipitating a dangerous acidosis by allowing more than a minimum of fat. This high protein, low fat, low carbohydrate diet, given in quantities sufficient to maintain metabolic needs, is accompanied by a glycosuria in the severe diabetics. In order to prevent glycosuria, it is necessary to restrict the total energy intake so much that inanition results. In other words, this leaves the physician the choice of one of two procedures. On the one hand, he may keep the patient sugar free, but in so doing, because of the low energy intake, he renders him unfit for the ordinary activities of life. On the other hand, if he aims to avoid this incapacity for his patient, he must expect him to continue to suffer from the effects of hypergylcemia.
It is evident that the two horns of the dilemma can be avoided if the diabetic can safely be given enough calories to maintain metabolic equilibrium, without producing hyperglycemia or acidosis. Since carbohydrate cannot be used, and since protein is, as just pointed out, unsatisfactory, we have dared to ignore the belief concerning the danger of fat in the diet of diabetics, and have investigated in the clinic the effect of a diet whose energy comes largely from fat, to which is added sufficient protein to maintain nitrogen equilibrium and the minimal carbohydrate necessitated in making up a diet that a human being can eat over a long period of time. For the purpose of studying this question, we have adopted a routine procedure. When a patient enters the clinic, he is placed on a diet containing from 900 to 1,000 calories, of which about 90 gm. is fat, 10 gm. is protein and 14 gm. is carbohydrate. After the patient has been sugar free for one or two weeks, his diet is increased to about 1,400 calories, of which 140 gm. is fat, 28 gm. is protein and from 15 to 20 gm. is carbohydrate. In the cases of small individuals this diet is sufficient for prolonged use, and some of them are discharged with instructions to continue it. For larger persons, after another period of trial, a second increase is made, reaching 1,800 calories, containing 170 gm. of fat, from 30 to 40 gm. of protein, and from 25 to 30 gm. carbohydrate. Further additions up to 2,500 calories may be made to suit individual cases.
In order to prove that our procedure is an improvement over the usual method, we must show, (1) that glycosuria is avoided in severe diabetics; (2), that this diet does not precipitate acidosis; (3), that nitrogen equilibrium is maintained, and (4), that the patients are able to lead at least a moderately active, comfortable life.
We have thus far had the opportunity of studying the effect of our method in the treatment of seventy-three cases of true diabetes mellitus. There has been no selection of cases—every patient entering the service has been placed on this regimen. The majority of these seventy-three cases have been of the severest type. This follows from the fact that the physicians of the state consider the University Hospital the court of last appeal, and send us those patients who do not respond to simple diabetic measures.
In spite of the fact that so many of our cases were of the severe type, we have succeeded in rendering and keeping every patient sugar free up to the time of discharge. The following case is an example of the response of a severe diabetic to our treatment.
In order to show that the usual high protein diet is accompanied by glycosuria in these severe diabetics, we have submitted three of our patients, previously made sugar free by means of our diet containing 90 gm. of fat and 16 gm. of protein, to such a high protein diet. Each one of these individuals became glycosurie as a result of this change to a high protein diet and was again quickly made sugar free by a return to the original diet.
All three of these patients demonstrated their inability to tolerate, without glycosuria, a diabetic diet of the ordinary type containing a relatively large amount of protein. Yet they readily and promptly responded to our high fat diet with a disappearance of urinary sugar. Two diets of the same number of calories, one rich in protein and the other rich in fat, produced a glycosuria in the first case and no glycosuria in the second. These experiments, coupled with the fact that we have yet to see a patient who does not become sugar free on our regimen, justify us in believing that patients who would con¬ tinue to have a glycosuria on the standard high protein diet, containing sufficient calories to prevent inanition, may be expected to become and remain sugar free on a diet of the same number of calories of which nearly all are in the fat content. Having in mind the prevailing fear of the use of fat in the diet of diabetics we were very much surprised to find, when fat is used, as we used it in the management of our seventy-three cases, that such fear is entirely ungrounded. In no case did a serious acidosis develop. It is true that four of these seventy-three patients died in the hospital, but none of these deaths was due to our diet. One patient entered the hospital with influenzai pneumonia. Another one was transferred from the surgical clinic suffering from a severe sepsis accompanying suppurative mastoid disease. Both of these patients died within twenty-four hours after their admission to the medical service. The third patient came to the hospital in coma and died ten hours after admission. The fourth patient refused to limit herself to the diet, and went into coma after eating a bag of oranges brought by a relative. None of these fatalities can, by any stretch of the imagination, be attributed to the high fat diet. In no case did the much feared fat produce any untoward symptoms.
Not only was this true, but unexpectedly enough, acidosis, even though marked, existing at entrance, invariably cleared up under our treatment. The following cases are examples of this beneficial effect on the acidosis. Case 3 (No. 20-461) shows how the high fat diet may be attended by the gradual diminution and final disappearance of acidosis. This patient was brought to the hospital June 30 in a semicomatose condition, with the air hunger typical of extreme acidosis. An idea of the severity of the acidosis may be obtained from noting the fact that 157 gm. of sodium bicarbonate during the seventeen hours after his admission failed to make his urine neutral. July 2, when he had recovered from his stupor sufficiently to be able to eat, he was placed on our routine diet with its 90 gm. of fat daily. July 13, eleven days later, his urine was sugar free, and on the same day thé ferric chlorid test on his urine became negative. Case 2 (No. 20-475) shows well the simultaneous disappearance of sugar and ferric chlorid reaction from the urine of a severe diabetic, as a result of our high fat diet. The data are presented in Table 1.
Case 4 (No. 20-427), a severe diabetic already described above, never showed more than a trace or "one plus" of ferric chlorid reaction in his urine.
Case 5 (No. 19-537).—The patient, a severe diabetic, 21 years old, ran the usual clinical course on our diet. The data are presented in Table 2. The patient, who is Case 6 in this report, is being treated experimentally in the department of pediatrics, and his case is cited through the courtesy of Dr. D. M. Cowie. Because of the well known fact that diabetes in young children is especially severe and usually rapidly fatal, we consider this case of great value as evidence in support of the view that a high fat diet is not attended by dangerous acidosis.
It is not necessary to describe more cases than these because those presented are typical and characteristic of the whole series. Even though we are repeating, we feel it necessary to point out again that none of the patients whom we treated by means of our high fat diet developed a severe acidosis. It is true, on the contrary, that the evidence of acidosis progressively decreased day by day until it had invariably become negligible.
No diet can be considered adequate in the treatment of diabetes unless it will maintain nitrogen balance. Our diet is comparatively low in protein, and is open to the possible criticism that it contains insufficient nitrogen. It has been shown by several observers, and notably by Hindhede,2 that less than 0.66 gm. protein per kilogram of body weight, in the presence of sufficient calories from other sources, is more than enough to maintain nitrogen balance in healthy ordinarily active human beings. Our diet is constructed with this requirement in mind, and is so arranged that it contains at least 0.66 gm. protein per kilogram of body weight before the patient is discharged from the clinic.
But what is true for the normal man may not hold for the diabetic. It accordingly becomes necessary to determine the actual ratio between the nitrogen intake and nitrogen output of diabetics on our diet. This was done by the usual procedure. The intake was computed from Atwater and Bryant's Food Tables, and the output in the urine and stool was quantitatively determined by the Kjeldahl method. Eight cases were completely studied in this way. We present, in Table 3, the data obtained from one of these, Case 7 (19-444).
It will be seen from this table that 25 gm. of protein daily were not sufficient to establish nitrogen balance in the short time allowed, whereas 28 gm. were more than enough. Theoretically, on the basis of 0.66 gm. protein per kilogram of body weight, this patient requires 26 gm. protein daily, computed from a weight of eighty-eight pounds. At his discharge weight, he would require 28 gm. of protein daily. But, as already pointed out, it has been shown for normal man that the "two-thirds of a gram per kilo" rule may be expected to supply more than enough nitrogen. This same relationship holds in this diabetic patient, who, when eating 0.66 gm. of protein per kilo of body weight has an excess of more than 2 gm. daily over nitrogen balance.
The other cases studied by this method showed a similar relationship between protein need and body weight, and convinced us that nitrogen balance could be safely maintained by feeding 0.66 gm. of protein per kilogram of body weight in the diabetic as in the normal man. This makes any argument on this score against our high fat, low protein diet, untenable. A diabetic diet, in order to be satisfactory, must be capable of enabling the patient to lead a moderately active life for an indefinite period. As has already been pointed out, the severe diabetic may be kept sugar free by a sufficient reduction of his total caloric intake, but it is frequently necessary to reduce the total calories so much when protein is used as the chief source of energy that such patients suffer from slow starvation, and are quite incapable of earning a livelihood—indeed many of them may be said to merely exist. From the point of view of the patient, who does not fully appreciate the dangers of continued hyperglycemia, such a situation is a poor exchange for that which he had before treatment. While our experience with the high fat diet has been brief in relation to the chronicity of the disease and we are not in a position to discuss the eventual results of our diet, we are, nevertheless, greatly impressed by the excellent condition of our patients months after leaving the clinic. The strength and capacity for work of some of our younger patients is astonishing to one who has seen many severe diabetics treated by the older methods. We cite a few cases as examples of this point.
REPORT OF CASE Case 1 (No. 20-426).—A woman, aged 34 years, entered the clinic June 8 with a letter from her family physician in which he stated that he had been unable to render her urine free of sugar, even though he had starved her for nearly a week. She confirmed his story and said that she was so weak that she could hardly walk. She was immediately placed on our first high fat diet, containing 900 calories. It was not until June 25, that the last trace of sugar disappeared from her urine. The ferric chlorid test became negative June 29. July 1, her diet was increased to 1,400 calories, of which 140 gm. were fat, and July 9 it was again increased to 1,800 calories, of which 170 gm. were fat. During her last week in the hospital, she took a walk after each meal and stated that she had practically regained her normal strength. At no time after its first disappearance did glycosuria develop. She was discharged July 15 on the diet containing 1,800 calories, of which 170 gm. were fat, 40 gm. protein and 25 gm. were carbohydrate.
Case 2 (No. 20-475).—A woman, aged 33 years, who on a low carbohydrate high protein diet, had lost 40 pounds' weight in a year, entered the clinic July 14, weighing 62 pounds. On a diet of 18 gm. protein, 80 gm. fat and 14 gm. carbohydrate, totaling 900 calories, her urine became sugar free July 21, and remained so during the following week. On each of two days, July 28 and 29, she received 170 gm. protein, 55 gm. fat and 12 gm. carbohydrate, totaling 1,200 calories. July 30 she was returned to her former diet. The urine of July 29 and 30 contained, respectively, 11 and 3 gm. glucose. The urine of July 31 was sugar free. August 5, her diet was increased to 1,400 calories, with 25 gm. protein, 140 gm. fat and 20 gm. carbohydrate. On this diet her urine has remained sugar free. The data are presented graphically in Figure 1.
Case 3 (No. 20-461 ) .—This patient was brought to the clinic July 2, 1920, on the verge of coma. He was confused, so weak that he could not stand, and showed the classic Kussmaul breathing. As a result of our first high fat diet (containing 90 gm. fat and 900 calories), sugar disappeared from his urine July 13. The acidosis disappeared on the same day. July 20, after having shown no sugar in his urine for a week, he was placed on a diet containing 900 calories, of which about 130 gm. were protein. His total calories were the same as on the high fat diet, and his carbohydrate intake was unchanged. His urine on the fourth and fifth day of this diet contained sugar. Clearly, the return of glycosuria in a patient previously sugar free on our high fat diet was due to the substitution of protein for fat.
We felt it was highly desirable to feed this patient 1,500 calories in order to avoid inanition, provided, also, that this could be done without producing a return of the diabetic state. Accordingly we· gave him the desired number of calories, made up in the usual way, largely of protein. The diet had the following composition: Total calories, 1,483; protein, 181 gm.; fat, 78 gm.; carbohydrate, 14 gm. His urine the next day contained 11.4 gm. sugar. Only one day of this diet was required to convince us that it was unsuitable, and he was returned to the original high fat diet. On the second day of this latter diet, his urine became sugar free, and remained so. August 1, his calories were increased to 1,500, of which 150 gm. were fat, 30 gm. protein, and 20 gm. carbohydrate. He continued to remain sugar free, made a gain in weight (from 88 to 97 pounds) in two weeks, and was furnished slightly more than 0.66 gm. protein per kilogram of body weight. This diet, then, of 1,500 calories, containing 150 gm. fat, fulfilled our two specifications; first, that he remain sugar free, and second that he suffer no inanition. The data from August 13 to July 11, are presented graphically in Figure 2.
Case 4 (No. 20-427).—This man had had a severe diabetes which had never been treated systematically before his entrance to the hospital June 9. After four days of our fat diet, he became sugar free. July 26, after he had been sugar free for nine days on a diet of 28 gm. protein, 130 gm. fat, and 20 gm. carbohydrate, totaling 1,400 calories, he was given the same 1,400 calories, of which 185 gm. were protein, 50 gm. were fat and 12 gm. were carbohydrate. The urine of July 29 and 30 contained 6.4 and 7.2 gm. sugar, respectively. July 30 he was returned to the original 900 calories, high fat diet, and the next day his urine was sugar free. His diet was then increased according to our usual procedure, and he was still sugar free when he left the hospital.
Case 6 (No. 4923).—A boy, 7 years old, entered the hospital Oct. 15, 1919, complaining of increasing weakness and great loss of weight. The carbon dioxid tension of the alveolar air was 20 mm. mercury. The therapeutic result as regards glycosuria was not entirely satisfactory because the boy occa¬ sionally departed from his diet. The case does, however, show the inocuousness of a long continued high fat diet. The data during a period when the diet was characterized by its high fat content, are presented in Figure 3.
Case 8 (No. 20-19).—A young man, 22 years old, entered the clinic Jan. 16, 1920, weighing 113 pounds. After five weeks of treatment he was dis¬ charged on a diet containing 2,000 calories, of which 40 gm. were protein, 25 gm. carbohydrate and the remainder fat. Since then, he has returned at frequent intervals for examination. On every occasion he has been sugar free, and he has gained 9 pounds in weight. May 7, less than four months after he came to us, he began working in a machine shop, at a stamping machine, which keeps him on his feet constantly. August 20 when last seen by us, he stated that he was feeling entirely well, that he had had no difficulty in doing his work and that he found his diet very pleasant.
Case 9 (No. 19-286).—A man, aged 40, who had had glycosuria for ten years before coming to us, entered the clinic because he was continuously losing weight and strength, because of increasing numbness of the feet, accompanied by prickling sensations in the legs, and because of serious and increasing impairment of vision. On admission, June 5, 1919, his blood sugar was 0.4 per cent. By June 9, as a result of our diet containing 900 calories, he was sugar free. By June 25 his diet had been increased to 2,500 calories and consisted of 243 gm. fat, 48 gm. protein, and 15 gm. carbohydrate. He was discharged June 30, 1919, with this diet, weighing 129 pounds. March 30, 1920, nine months later, he returned for examination stating that he had felt entirely well during the interval and that he had had no difficulty in carrying on his work as a traveling salesman. He weighed 124 pounds and his urine was sugar free.
Case 10 (No. 20-420).—A woman, aged 32 years, entered the clinic June 5, 1920, complaining of weakness of more than a year's duration. Her condition had become such that she had not been able to do her housework, and if she walked about she fainted. She was started on our routine high fat diet containing 900 calories and became sugar free in five days. Her diet was increased by the usual steps until it reached from 1,800 to 2,000 calories of which about 170 gm. were fat. She left the hospital June 15, 1920, on this diet. A month later she returned for examination stating that she had gained 3 pounds and that she was doing her housework for the first time since January, 1919. Her urine was sugar free and there was no reaction with ferric chlorid.
SUMMARY
Patients with severe diabetes, as a class, do not remain sugar free on the usual high protein diet unless the total energy intake is kept so low that incapacity from starvation results. The only satisfactory diet is one which will keep the diabetic sugar free, which will prevent the occurrence of serious acidosis, which will maintain nitrogen bal¬ ance and which will make it possible for him to resume the ordinary activities of life. With these four points in mind, we studied the effect of a high fat, low protein, low carbohydrate diet in the treat¬ ment of diabetes. Our experience with this type of diet in the management of seventy-three diabetics has convinced us that it is capable of fulfilling these four specifications.
January 1, 1921
Seventeen Years with the Eskimos
For untold centuries ... the Eskimo of the far north had solely a carnivorous diet ... He was healthy ... He suffered from neither tuberculosis nor any venereal disease; and had rheumatism, if at all, in a limited degree.
After a preliminary year at Cape Prince of Wales northwestern Alaska, the Greists reached the state's northern tip, Barrow, in 1921, and remained in charge of Farthest North Hospital and the mission till 1936. After their retirement they lived at Monticello, Indiana, where Dr. Greist wrote Seventeen Years with the Eskimos. He died in 1955 and in 1957 Mrs. Greist lent me the manuscript of the unpublished book. The Indiana physician found Alaska's most northern Eskimos no longer uncivilized, and no longer healthy. But from conversations with Charles DeWitt Brower, who had lived at Barrow since 1885, and with a few elderly Eskimos, some of whom still remembered Maguire and Simpson (and many of whom remembered Ray and Murdoch) — from conversations with these, and from other sources, the Greists became convinced that there had formerly been a high average of health and longevity among the northern Eskimos. With Mrs. Greist's permission I quote from Chapter 24 of Dr. Greist's manuscript:
“For untold centuries ... the Eskimo of the far north had solely a carnivorous diet ... He was healthy ... He suffered from neither tuberculosis nor any venereal disease; and had rheumatism, if at all, in a limited degree. Barring accidents, starvation during lean years, and epidemics of unknown character, he lived to a very great age with his teeth intact, but worn to the gums since he used his teeth as a third hand ... When starches and sugars were introduced by the whalers and the traders he at once began the development of carious teeth, something he never had previously.”
Ancient History
Germany
50000
B.C.E.
Palaeolithic and Mesolithic kill-butchering sites: the hard evidence
The upper paleolithic is characterized by advanced hunting of large animals with various weapons, and planning to maximize easy prey
Upper Palaeolithic and Mesolithic Hunting:
the archaeological record leaves us some direct evidence of man's hunting activities. At Meiendorf (Rust 1937) and Stellmoor (Rusf 1937), some bones of reindeer and birds still conserve weapon marks and a few pieces of silex have remained thrusted in mammalian bones; man kills reindeer with harpoons and sticks (fractured skulls), birds with bows and maybe slings. Three fractured skulls of red deer in Abri Pataud (Bouchud, 1975), and one bovid skull with a circular orifice in Saint Marcel (Allain, 1952) suggest the practice of the so called " co'up de merlin": man has delivered a blow similar to the one used today to butcher cattle. Probably the animal already immobilized (wounded or entrapped) was hit on the frontal with a big stone. At Kokorevo I (Siberia), a large scapula of bison is pierced by the upper end of a point made of bone (Boriskowksi, 1965). At High Furlong (Mesolithic), an elk was discovered with the marks of L7 wounds made by barbed points, of which two were found in the site, and by other arms. The animal had apparently been attacked at two distinct occasions: during the first one, hunters aimed at the legs to lame the animal (fig. 6), later hunters hit the thoracic region and the lungs to kill it. However the elk died in a little lake, perhaps imprisoned in the ice, and man had no access to the meat. The animal represents in fact a hunting loss (Hallam et a1.,1973).
Planning: very good. Many sites belong to Wpe e, were occupied periodically or seasonally and specialised in the capture of a particular game (e.g., horse, reindeeq, ibex). Game drive towards cliffs have been claimed and Solutre (Combier & Thevenot,1976) has long figured as an example, but the evidence is far from conclusive.
Scavenging: no doubt H. sapiens still killed or exploited animals in the occasional and opportunistic way of Lower Palaeolithic times. According to Lindner (Lindner,1941), hunters at Predmost utilised the carcasses of hundreds of mammoths that probably succumbed as a result of natural catastrophes, as food.
Food transport: selective transport of the most useful animal parts is claimed for many sites.
Specialised activities: sometimes the material is dislocated in distinct clusters that could reflect specialised activity areas as for example at Solutre (Combier & Thevenot, 1976). Site topography: some hunting sites were located in valleys enclosed by steep slopes as at Rascano (Gonziilez-Echegaray, 1979), Stellmoor (Rust, 1937), Meiendorf (Rust 1937), or at the foot of rocky cliffs at Solutr6 (Combier & Th6venot, 1,976).
4. Conclusions
Most of the Lower Palaeolithic sites analysed here belong to category a (butchering sites); other kind of concentrations are rare and difficult to ascertain. A number of hunting stations (category e) and a hunting stop (category f) form my sample for the age of Neanderthal man and related people. The Upper Palaeolithic is characterised by many hunting stations, while in Mesolithic times a hunting loss (category d ) was found as well as several sighting sites (category g). The foregoing distribution seems to reflect in a vague way an evolution from scavenging and haphazard opportunistic hunting to well organised, selective hunting activities. However, this reflection results no doubt in part from a priori assumptions concerning the evolution of hominid meat procurement often colouring the interpretations offered for the osseous "hard" data; these are frequently equivocal.
Vindija, 42000, Varaždin, Croatia
28500
B.C.E.
Neanderthal diet at Vindija and Neanderthal predation: The evidence from stable isotopes
The isotope evidence overwhelmingly points to the Neanderthals behaving as top-level carnivores, obtaining almost all of their dietary protein from animal sources
Archeological analysis of faunal remains and of lithic and bone tools has suggested that hunting of medium to large mammals was a major element of Neanderthal subsistence. Plant foods are almost invisible in the archeological record, and it is impossible to estimate accurately their dietary importance. However, stable isotope (13C and 15N) analysis of mammal bone collagen provides a direct measure of diet and has been applied to two Neanderthals and various faunal species from Vindija Cave, Croatia. The isotope evidence overwhelmingly points to the Neanderthals behaving as top-level carnivores, obtaining almost all of their dietary protein from animal sources. Earlier Neanderthals in France and Belgium have yielded similar results, and a pattern of European Neander- thal adaptation as carnivores is emerging. These data reinforce current taphonomic assessments of associated faunal elements and make it unlikely that the Neanderthals were acquiring animal protein principally through scavenging. Instead, these findings portray them as effective predators.
Stable Isotope Analyses.
Mammal bone collagen δ13C and δ15N values reflect the δ13C and δ15N values of dietary protein (14). They furnish a long-term record of diet, giving the average δ13C and δ15N values of all of the protein consumed over the last years of the measured individual's life. δ13C values can be used to discriminate between terrestrial and marine dietary protein in humans and other mammals (15, 16). In addition, because of the canopy effect, species that live in forest environments can have δ13C values that are more negative than species that live in open environments (17). δ15N values are, on average, 2–4‰ higher than the average δ15N value of the protein consumed (18). Therefore, δ15N values can be used to determine the trophic level of the protein consumed. By measuring the δ13C and δ15N values of various fauna in a paleo-ecosystem, it is possible to reconstruct the trophic level relationships within that ecosystem. Therefore, by comparing the δ13C and δ15N values of omnivores such as hominids with the values of herbivores and carnivores from the same ecosystem, it is possible to determine whether those omnivores were obtaining dietary protein from plant or animal sources.
Cheddar Reservoir, Cheddar BS26, UK
12000
B.C.E.
FOCUS: Gough’s Cave and Sun Hole Cave Human Stable Isotope Values Indicate a High Animal Protein Diet in the British Upper Palaeolithic
We were testing the hypothesis that these humans had a mainly hunting economy, and therefore a diet high in animal protein. We found this to be the case, and by comparing the human δ15N values with those of contemporary fauna, we conclude that the protein sources in human diets at these sites came mainly from herbivores such as Bos sp. and Cervus elaphus
We undertook stable isotope analysis of Upper Palaeolithic humans and fauna from the sites of Gough's Cave and Sun Hole Cave, Somerset, U.K., for palaeodietary reconstruction. We were testing the hypothesis that these humans had a mainly hunting economy, and therefore a diet high in animal protein. We found this to be the case, and by comparing the human δ15N values with those of contemporary fauna, we conclude that the protein sources in human diets at these sites came mainly from herbivores such as Bos sp. and Cervus elaphus. There are a large number ofEquus sp. faunal remains from this site, but this species was not a significant food resource in the diets of these Upper Palaeolithic humans.
If the humans hunted and consumed mainly horse, then their 15N values should be c. 3–5‰ (Equus 15N value of 0·7‰+enrichment of 2–4‰). Instead, their 15N values make more sense if they lived mostly off Bos and Cervus elaphus (Bos and Cervus values of c. 3‰+enrichment of 2–4‰=the observed values c. 6–7‰). It is also possible that other species, including Rangifer tarandus, were consumed by these individuals. Rangifer tarandus has 15N values similar to Cervus elaphus (Richards, 1998), and has more positive 13C values, which may explain the observed slight enrichment in the human 13C values. A number of artefacts made from Rangifer tarandus have been found at Gough’s, but there is no other evidence that this species was being exploited for food
Province of Crotone, Italy
500
B.C.E.
On the Sociology of Ancient Sport
One report states that a trainer named Pythagoras recommended a meat diet to the Olympic athletes he trained.
A lack of animal-derived protein seems to have been rectified early in history, as there are two reports of the introduction of meat into the athletes’ diet. One report states that a trainer named Pythagoras recommended a meat diet to the athletes he trained. https://www.omicsonline.org/open-access/a-comparison-of-ancient-greek-and-roman-sports-diets-with-modern-day-practices-2473-6449-1000104.php?aid=69865
8 He [Pythagoras] is said to have been the first to train athletes on a meat diet. The first athlete he did this with was Eurymenes. Formerly they had trained on dried figs, moist cheese, and wheat. Some say that it was a trainer named Pythagoras and not the philosopher who was responsible for this innovative diet. For our Pythagoras prohibited killing, not to mention eating, life which possessed souls like our own.
Diogenes Laertius, Lives of the Philosophers 8.12
Sport and Recreation
To all appearances medical knowledge in general and nutrition in particular was widespread in Pythagorean circles in Southern Italy, especially in Kroton. Burkert has pointed out that the fmaous doctor Alcmaeon came from the Pythagorean center of Kroton. From the akousmata (secret doctrines), which doubtless contain old religious traditions, we learn that the Pythagoreans were not originally strict vegetarians; the consumption of meat was permitted, with the exception of lamb and the meat of draft oxen. Burkert considers there is some likelihood that Pythagoras introduced a meat diet for athletes. He believes this tradition arose when Pythagorean vegetarianism had not yet been completely developed. In later times, when vegetarianism had prevailed, a second tradition has possibly been invented, in which it was not Pythagoras, the philosopher from Samos and Kroton, but a homonymous person who wrot the great 'trainer's recipe book'.
57: There are similar issues regarding the transmission in later sources of Pythagoras advising the successful heavy athlete Eurymenes of Samos to use a special meat-based diet instead of the dried figs and cheese he had previously been eating.
On the Sociology of Ancient Sport - page 43.
Mantineia 221 00, Greece
480
B.C.E.
A Comparison of Ancient Greek and Roman Sports Diets with Modern Day Practices
Dromeus, a long-distance runner, is said to have first thought of eating meat for training instead of just cheese and won multiple victories.
The second report is that of Pausanias, who writes of Dromeus, a long-distance runner from Stymphalos [23].
“...he won two victories in the dolichos at Olympia, the same number in the Pythian Games, three at the Isthmian and five at the Nemean. He is said to have first thought of eating meat (as part of his training diet). Until then the food for athletes was cheese fresh out of the basket.”
Clearly, if his success is anything to go by, then Dromeus had really found a winner’s diet. There are also reports of athletes eating meat from oxen, bulls, goats and deer, a very” red-meat” diet which is a rich form of protein. Moreover, with meat as a part of their diet, the performance of competing athletes would most certainly have improved noticeably.
5 A man named Dromeus from Mantineia was said to have been the first we know of to have won the pankration by default [ = akoniti]. Pausanias 6.11.4
Dromeus, Long-Distance Runner
There was a man from Stymphalos, named Dromeus, whose record as a long-distance runner was exceptional: he won two victories in the dolichos at Olympia, the same number in the Pythian Games, three at the Isthmian and five at the Nemean. He is said to have first thought of eating meat (as part of his training diet). Until then the food for athletes was cheese fresh out of the basket.











