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Milk may be an acne contributor Dr.
Jerome Fisher's Original 1965 Paper
| Dr. Jerome Fisher's Original 1965 Paper
(Transcribed from his original carbon copies)
ACNE VULGARIS A Study of One Thousand Cases Jerome Kearney Fisher, M.D., Med. Sc. D. This study was set up to learn some of the possible influencing factors in acne vulgaris as are found in the adolescent. The patients were only those which have been seen personally this past ten years by the author in his private practice and the study does not include the secondary involvement of the comedo by pyogenic organisms which produce pustules and scarring. The cases in this report were taken consecutively from the files and not picked at random. Detailed histories were taken on all cases at time of the initial visit. This paper involves 1088 cases of acne vulgaris. Of these, 721 were females and 367 were males. It is seen that a preponderance of twice as many females sought treatment for their acne as males. However, this should not be interpreted to mean that only half as many young men develop acne vulgaris as young women. Unless the eruption becomes conspicuously active in the male, he very likely will not seek medical aid. This is probably due to the fact that he is not developed or matured to the same degree as the female of the same age. Nor is he influenced so much by the social implications of his condition. As will be shown further on, the activity of the eruption was much more severe in the male than in the female in its development. Also, medical treatment is sought at an earlier age in the female and the eruption, although milder in the female, does persist much longer than in the male. In the etiology of acne vulgaris one finds that many factors have been considered by numerous investigators. These have included allergies to food 13, 14, 15, 18, nutrition 6, 9, 16, 17, 19, 20, 21, 22, 23, 24, 25, 26, drugs 27, water balance 20, 28, 29, 30, 31, stress and emotions 7, 32, 33, 34, hereditary tendencies 35, infection 62, and various hormones of the pituitary 36, 37, 38, 39, 40, the adrenals 20, 48, 49, 50, 51, 52, 32, 33, and the gonads 8, 10, 20, 33, 41, 42, 43, 44, 45, 46, 47. A few of these factors are considered primary; the others are secondary or contributory. This presentation will be divided into three parts; first, a review of the many factors that have been found to influence acne in young people, second, a report of the analysis of my own cases and third, a discussion based on the findings under these two headings. Part I RESUMÉ OF THE LITERATURE Incidence of Acne Lesions In studying the incidence of acne vulgaris in adolescence Bloch3 in 1931 found in his study of 2136 individuals that 96.6 per cent of girls at 17 years of age and 99.5 per cent of boys at 18 years of age were affected with acne. Goldzieher8 in 1947 found an incidence of acne vulgaris in 67 per cent of his patients between the ages of 15 to 18 years of age. Robinson6 reported in 1949 on 2083 patients with acne; of these 130 were 15 years of age or younger; 1583 were between 16 and 25 years old. Then in 1958 Warshaw11 reported in a study of 1981 boys and girls the incidence of acne in boys and girls 17 to 18 years of age; this was 44 per cent for the boys and 30 per cent for the girls. Incidence in the Male Forbes12 in 1946 gave a very comprehensive report of the incidence of acne in 2500 men in service from ages 18 to 49 years. The accompanying table is taken from his paper. Incidence in Men Ages 18 to 49 Ages No. of Men Comedones Only Comedones with Papules or Pustules 18-19 189 51 (27%) 49% 20-24 568 147 (26%) 33% 25-29 626 141 (23%) 21% 30-39 906 142 (16%) 13% 40-49 211 15 (7%) 8% Variations of Activity of Acne Henricksen and Ivy2 in 1938 observed that the peak of activity of acne appeared earlier in girls than in boys but the most severe cases were in the latter. Goldzieher8 in 1947 has noted that acne does not subside in the female at maturity as it does in the male. He explains this observation by stating that the skin of the female is more sensitive to androgens than the male. Also he noted that acne in the male is a self-limiting disease because the sensitivity subsides at maturity. Belisario7 in 1951 also pointed out that acne in women in contrast to its presence in men may continue throughout the reproductive period. Age Limit of Eruption Bloch3 stated in 1931 that acne is seldom seen after 30 years of age. In 1942 Lowenthal moved the age limit up to 40 years. Then Stillians5 in 1947 found that 63 per cent of 174 women with tuberculosis between the ages of 27 and 50 years had acne lesions; 4 of 10 of his tuberculous patients between the ages of 51 and 60 years still had acne vulgaris. Strauss and Kligman87 report finding acne and sebaceous gland enlargement in many young females one or two years prior to menarche. Location Lynch53 in 1939 made a study of the location of the activity of acne vulgaris. He found the face the most common site in a group of 277 boys and 219 girls. The trunk was involved much more often among the boys than the girls, and the back much more than the chest. Elements of the Eruption, the Sebaceous Glands The pilosebaceous apparatus is the fundamental unit in formation of lesions of acne vulgaris42. If comedo is not present, a clinical diagnosis of acne vulgaris cannot be made9. The red papular lesion of acne usually develops from the microscopic comedones of the pilosebaceous apparatus of the skin and rarely from the large comedones. Lorincz9 in 1963 stated that there is evidence that the acne lesions evolve only in those pilosebaceous follicles which are in the resting phase (telogen) of the hair cycle. Rothman10 had pointed out earlier that natural juvenile acne has two main pathogenic factors: one, sebaceous gland hypertrophy and two, excessive follicular keratinization at the orifice which occludes the pore and hinders the expulsion of sebum. The sebaceous glands are relatively small in childhood and attain full bloom at puberty; this is believed to be the principal factor in juvenile acne vulgaris58. Sebaceous glands are holocrine and are usually multiple acinar glands44. They are most numerous on the scalp, forehead, face and chin, with fewer on the back and chest. The hair follicle and sebaceous gland are invaginations of the surface epithelium. The cells of the sebaceous gland become specialized so that the cells of the gland undergo fatty alterations; they throw off these altered cells and debris in the form of sebum42 into the cavity of the cystic sebaceous gland and its duct leading to the surface. Removal of the pituitary gland in rats results in the reduction in the size of the sebaceous glands; this is only partially counteracted by progesterone and testosterone therapy. The pituitary then is itself necessary for the proper maintenance of sebaceous glands58. Lorincz59 in 1963 confirms this observation by stating that among these hormonal factors, clinical experience and animal experiments indicate that androgenic steroids or progesterone in the presence of pituitary sebotrophic factor are the key endocrine stimuli which promote sebaceous glandular activity. At puberty an increase in sebaceous gland volume occurs with enlargement of lobules and possible formation of new lobules. The pubertal stimulus acts by promoting mitotic division of the basal cells in the sebaceous glands. No further growth of the sebaceous glands takes place shortly after puberty; an equilibrium is established even though the endocrine stimulus persists. The maintenance of the sebaceous glands is under endocrine influence60. The role of testicular hormones in the male as affecting the sebaceous glands has long been recognized mainly on the basis of three observations: 1. Prepubertal castrates and eunuchoid males do not develop seborrhea or acne, a disease which is invariably connected with sebaceous gland hypertrophy. 2. Castrate and eunuchoid males develop acne if they are treated with testosterone. 3. Normal males and females may develop acne if they are treated with large doses of testosterone60. Haskin, Lasher, and Rothman61 in 1953 proved that 10 mg. of progesterone given daily for 15 days in the white rat produced a 360 per cent increase in the size of its sebaceous glands. A dose of 1 mg. daily of testosterone to white rats for 30 days produced a 500 per cent increase in the animals' sebaceous glands. From the available data one may conclude that pubertal development of sebaceous glands is an effect of testicular hormone in the male and of progesterone in the female. Both exert a proliferative stimulus on the matrix of the cells of these glands. There is no increase in the number of glands and the size of the single cells does not change in this hyperplasia. However, the alveoli of the glands enlarge greatly55. This experiment has given rise to the hypothesis that in the human female adolescent acne is incited by the progesterone of the corpus luteum and not by the previously implicated adrenal androgens58. English and Witkowski62 in 1964 have shown that androgens applied to the skin of eunuchs will cause sebaceous gland enlargement. When the topical androgens are withdrawn from the eunuchs and prepubertal children, the sebaceous gland gradually returns to its original size. Rony and Zakon63 in 1943 gave 6 prepubertal boys injections of testosterone proprionate for two weeks. When biopsies taken from the pubic area 2 to 3 days after therapy were compared with those taken 2 to 3 days before the injection, a decided increase in both size and number of sebaceous glands was noted in all cases. Ebner30 in 1956 commented that since the frequency of acne is in adolescence and worse during menstruation that a hormonal influence must be present. Pochi, Strauss and Mescon67 in 1963 proposed further that two steroids are required at the same time to produce acne. Dehydro-epiandrosterone is the adrenal steroid hormone most active in stimulating sebaceous gland activity while glucocorticoids act in a permissive capacity with physiologic amounts being necessary for sebaceous gland response to androgens. Formation of Sebum Montagna44 states that the sebaceous glands of man (and no other animal) in the fetal stage contains glycogen; however it disappears at 6 months of fetal life. In cells undergoing sebaceous transformation, glycogen decreases at the same rate that lipid increases. The distribution of glycogen is precisely correlated with lipid storage and it is likely that sebaceous transformation takes place by a conversion of carbohydrates to lipids rather than by an accumulation of fat from the blood. Contarow and Trumper38 are of the same opinion and explain that neutral fat which is ingested is taken up by adipose tissue while the fats forming sebum are synthesized in situ from carbohydrates and protein in the holocrine glandular cells. Whatever fat that is rapidly mobilized or stored seems to be through glycogen phase; this similarity of the sebaceous glands to adipose tissue, and particularly to brown fat makes possible the suggestion that the sebaceous lipids may be synthesized in part by local oxidative breakdown of glycogen. The presence of glycogen in the fat of animals which have been starved and then fed a high carbohydrate diet is known. In the normal rat, fat cells are ordinarily devoid of stainable glycogen; but after the injection of a single large dose of insulin, glycogen is present in large amounts in both the brown and the white fat. The fat of diabetic animals contains no glycogen44. Nicholas (quoted by Montagna54) believes in the beginning of sebaceous differentiation that lipid droplets appear first within the mitochondria filaments of the individual sebaceous gland cells. As the lipid droplets become larger and coalesce, the accompanying mitochondria are said to decrease in number. Mitochondria seem to play a direct role in the synthesis of the sebaceous lipids; they are not transformed into lipids. This lipid accumulation and fragmentation characterizes the end point of sebaceous cells54. Histologic evidence strongly suggests that sebum lipids are built from protoplasm of the sebaceous glands basal cells. Constituents of sebum probably are built from small carbon fragments which are formed in catabolic processes by the cells55 and not excreted as lipids extracted from the blood. Sebum is composed of glycerides and large amounts of esters of fatty acids with higher alcohols such as cholesterol20. Normal human sebaceous glands contain no free cholesterol, but the stagnant sebum of comedones and of early acne cysts contain an abundance of it57. Montagna54 in 1956 reported that treatment with estrogen increases the mitotic activity but the sebaceous glands become smaller. Andrews49 stated in 1965 that estrogens are capable of decreasing sebum production. Sebum is different from tissue fats in being composed partly or entirely of waxes. Thus a number of unusual substances not found elsewhere in the body must be synthesized within the sebaceous glands. The composition of sebum differs from species to species; cholesterol and large amounts of free fatty acids are perhaps the only substances which occur constantly44. The origin of free fatty acid in surface lipids might be explained in terms of lipases which are known to be present in the sebaceous glands and the epidermis44. The sebum of man contains squalene; its origin and function are unknown44. It is related to wool fat of sheep in that squalene chemically is an acyclic tri-terpene while wool fat is a cyclic tri-terpene. Vitamin D. may be formed in the sebum44. Sweating seems to be a prime factor in the spread of sebum over the body44. Infection
The secondary invader of staphylococcus with its coagulan positive actions is the organism that follows so many times after the appearance of the red acne papule to infect the comedo and do so much destruction and scarring. This condition comes late in the formation of the severe red, pustular and scarring eruption. Many factors such as susceptibility to infection, hygiene, local trauma, resistance to infection, and the number of initial papular comedones that have developed play a large role in the activity of this infection. The usual sequence of events is: (1) the sebaceous gland duct becomes plugged with sebum or detritus which hardens, (2) the local tissues try to remove this newly formed foreign body in situ by an inflammatory process, and (3) this draws blood to the site and plasma and lymph fluid leak out into the sebaceous gland structure. And finally since this is open to the skin surface by way of the sebaceous gland duct, the whole pilosebaceous apparatus then is a culture for surface bacteria with culture medium in the form of serum present in the inflamed tissue. Androgens Since Hamilton's20 paper in 1941, the study of androgens as a direct and primary cause of acne has received a growing impetus as a factor in the etiology of acne vulgaris. He pointed out that eunuchoids are individuals who do not mature sexually and never have acne. Androgen is a secretagogue for the pilosebaceous apparatus and in the eunuchoid treatment with testosterone must be continued for three or six weeks before acne will appear. Estrogens are low in patients with acne but eunuchoids have a lower level of estrogens than the individual with acne. Rothman10 demonstrated in 1954 that the sebaceous glands in rats atrophy after castration and regenerate again on implantation of testicular tissue or on the administration of male hormone. The female, like the eunuchoid, is also able to respond to testosterone with the formation of comedones and papules20. It is at the time of sexual maturity that urinary levels of androgens become elevated20. Androgens can suppress both the production and some of the actions of estrogens. Hamilton concludes further that androgens increase vascularization, cause cutaneous pigmentation, hold salt and water in the tissues and produce stimulation of sebaceous secretion. Testosterone is conjugated in the liver to androsterone before being excreted by the urine and is then biologically inactive43. In 1963 Hamilton and Mester64 found no acne in 91 eunuchoids nor in 11 oophorectomized females during age of adolescence; the eruption present at time of castration persisted for several months after operation. Hooker et al41 in 1943 demonstrated that the skin of estrogen treated rats became thin and the sebaceous glands were much reduced in size; however animals that received both estrogen and androgen were completely protected against these changes and the sebaceous glands were even more numerous and larger than in the untreated animals. Goldzieher8 in 1947 next showed that the skin of the female is more sensitive to androgens than that of the male. Also the female skin holds this sensitivity until later in life than the male. Sulzberger and Witten42 in 1951 stated that it was generally held that it is the ratio of circulating androgens to estrogens which is important as related to acne vulgaris rather than alterations of one or the other components alone. The observation of Palitz47 et al in 1964 that acne is more severe and more prevalent in males than in females advances a possible theory in favor of androgens as a cause. Sources of Androgens In the male the interstitial cells of Leydig of the testes secrete testosterone by stimulation from the luteinizing hormone of the anterior pituitary. It is believed by some that about 2/3 of the androgenic substance in the urine of the male originates in the adrenal cortex43. But this hypothesis does not seem to hold in the case of the eunuchoid whose adrenals may be intact. Androgens are present in the urine of females up to three-fourths of that of males. The adrenal cortex has been thought by some43, 49 in 1955 to be the source of all circulating androgenic hormone in the female. But Palitz et al47 in 1964 state that both adrenal glands and the corpus luteum are sources of androgens in the female; progesterone is secreted by the corpus luteum during the luteinizing stage of the menstrual cycle. The corpus luteum is the counter-part of the cells of Leydig in the male. Polycystic ovaries have been shown in 1964 to synthesize more androgen than normal ovaries. Virilism is associated with ovarian tumors which contain lutein tissue (producing progesterone); thus there is good evidence to believe that luteinized ovarian cells are potential sources of androgen8. Lorincz9 in 1963 feels that there is clearly an individual susceptibility factor to acne and this tends to be familial. The individual susceptibility is well illustrated when adults are given large doses of androgens; severe acne tends to develop only in those who earlier in life had pronounced acne. Pituitary Stimulation Cushing70 in 1912 wrote that in hyper-pituitarism the skin is thick and coarse with enlargement and increased activity of the skin glands. Semon and Herrmann66 stated in 1940 their belief that pituitary basophilism is the primary cause of acne. While Cohen37 stated the following year that oily skin and comedones occur in acromegaly and gigantism, a disturbance of the acidophilic cells of the pituitary. He further quotes Desaux in saying that seborrhea occurs in pituitary acidophilic activity. Here we have two opposing views expressed twenty-five years ago. More recently, Butterworth and Chamberlain39 in 1957 found that acne lesions are suppressed after pituitary irradiation. The three gonadotrophic hormones affected in the pituitary secretion are: The follicle stimulating hormone which
causes the development of the follicles in the ovaries. In the male
it stimulates the testes with development of the semeniferous tubules and
spermatogenesis.
Pituitary growth hormone is elaborated by the acidophilic cells of the anterior pituitary lobe. The basophilic cells also present in the anterior lobe produce follicle stimulating, luteinizing, thyrotrophic and adreno-corticotrophic hormones. Pituitary growth hormone acts directly on body structures as an anabolic hormone that promotes growth. Warshaw69 suggests that this hormone may have some relation to the postulated pituitary hormone "sebotrophin" of Rothman. Since estrogens at puberty cause maturation and oppose the effect of the pituitary growth hormone, a low estrogen titer allows free play of pituitary growth hormone. Thyroxin increases the secretion of the pituitary growth hormone.68 Progesterone, according to Goldzieher in 1964, does not suppress human urinary gonadotrophin excretion; progesterone apparently acts directly on the ovaries to suppress follicle formation. The pituitary follicle stimulating hormone and the luteinizing hormone are suppressed by the feed-back mechanism of the estrogen75. Adrenals The adrenal glands have been associated with the formation of acne lesions because of the androgenic effects of some of their hormones. The adrenal cortex secretes estrogen, progesterone, adrenosterone, dehydro-iso-androsterone and aldosterone (the salt retention hormone)68. Asel93 in 1965 stated that dehydroepic-androsterone is secreted at the rate of 30 mg. a day by the adrenals; it may be the most important androgen secreted by the gland. Dehydorepic-androsterone 100 mg. was given three times weekly to an adult male whose sebum had been previously suppressed by estrogen stimulated sebaceous activity. Bruno Bloch3 in 1931 stated that it has long been recognized that in the female the adrenal cortical hormones are the important "androgenic" agents and must account for the growth of the pubic and axillary hairs, the stimulus of the pilosebaceous structures, the development of the apocrine glands as well as the concomitant appearance of acne. Precocious development of adult characteristics of a masculine nature in a girl with adrenal cortical tumor may be accompanied by pronounced acne20. In adrenal virilism the urinary androgens were in level with normal women but their estrogens were low20. Hypertrichosis may develop in pregnancy and subside after childbirth or it may be associated with enlargement of the ovaries due to the lutein body cysts or extensive theca luteinization8. Belisario7 observed that acne in the female with an adrenal tumor disappears after the removal of that tumor. English and Witkowski45 in 1954 stated that masculinizing tumors such as those which involve the ovaries, adrenals, pituitary and pineal glands can be responsible for acneform lesions?especially when all lesions are at the same stage. Androgenic turmore include the adreno-cortical syndrome, ovarian tumor, pineal tumor and testicular tumors33. Androgenic tumors in the adult female include Cushing's Disease, virilizing tumors and adrenal hyperplastia33. Sulzberger and Witten42 add such masculinizing conditions as menopause and arrhenoblastomas as having acnegenic effects. Haskin et al61 in 1953 reported that patients treated with adreno-corticotrophin developed acneform eruptions which were not identical with juvenile acne because they lacked the usual seborrhea and comedones. Clinically and histologically in these eruptions the major component is excessive follicular keratinization; little if any evidence of sebaceous gland hyperfunction is present. Endogenous androgen production is a prerequisite to the development of steroid acne; therefore acne does not occur with oral steroids before puberty95. It is the author's belief that it is this corticoid stimulation of keratin in the follicles on the thighs and upper arms that is the cause of keratosis pilaris in young people. No sebaceous activity is present in the lesion of keratosis pilaris either. So that this eruption on the arms and legs may be a corticoid acne-like eruption. But this will be the subject of another study. Estrogen Nathanson et al72 first reported in 1939 that during catamenia the estrogens are low while the androgens do not fluctuate significantly. In 1940 Lawrence and Werthessen73 demonstrated a decrease from normal in urinary estrogen excretion by women with acne. Wile at al76 as early as 1939 demonstrated in acne patients an increase in urinary excretion of androgen and a moderate decrease in urinary excretion of estrogen in both sexes. Lawrence and Werthessen51 in 1942 reported a decrease in the urinary estrogen excretion with a definite androgenic preponderance. They concluded that comedones in acne were the result of an increase in the androgen-estrogen ratio. Treatment with ethinyl estradiol or diethyl stilbestrol for 2 to 6 months cleared 15 of their 25 acne patients. Sulzberger and Witten42 in 1951 said it has been calculated that the estrogen blood level in normal menstruating women is at its highest plateau from about the 10th to the 22nd day post-menstrually. The lowest level of estrogens is reached a few days before menses. The exacerbation of acne tends to occur at precisely those times when the androgen-estrogen ratio tends to be highest. Estrogen is conjugated in the liver to glucuronides and sulfates of estriol, estrone and estradiol then excreted in the urine43. Estrogen as such is increased in the urine in liver disease if hepatic function is impaired as in cirrhosis or hepatitis43; the increase is caused by diminished destruction or inactivation by the liver cells. The excess estrogen then causes gynecomastia and menstrual disorders. It caused testicular atrophy in males. Malnutrition and vitamin B deficiency may interfere with hepatic inactivation causing premenstrual tension and cystic mastitis43. Estrogen excretion is diminished in the male castrate indicating that a portion of the estrogen in the normal male urine is of testicular origin43. Estrogen activity in girls' urines has been determined for as long as 18 months before menarche. Boys and girls before the age of 11 years secrete about the same amount of estrogenic material in the urine74. Greenblatt et al75 in 1964 found the highest estrogen secretion in normal non-pregnant adult occurs around the time of ovulation; the lesser peak occurs about the 21st day of the cycle. Estrogen secretion decreases rapidly in many, slowly in others. The Medical Letter77 recently reported that estrogens can lower blood lipids. Progesterone Progesterone, the hormone of the lutein body (granulosa lutein cells), is slightly androgenic. It is secreted in significant amounts by the corpus luteum and by the placenta in the human75. It differs from testosterone chemically only in the short side-chain at the 17 position of the D-ring88. It is secreted by the corpus luteum and appears in the urine as pregnanediol the day after ovulation; it is also produced by the syncytial cells of the placenta and is formed in the adrenal cortex43. This androgenic effect is likely brought about by the conversion of progesterone into androsterone as reported by Dorfman and Hamilton in 1940. Greene et al78 have shown that when progesterone is given subcutaneously to castrated rats in the dosage of 2 mg. daily it is definitely androgenic; however it is less effective if given intraperitoneally. Mason and Engstrom32 state that hydroxy-progesterone is androgenic. Sunderman and Boerner80 have reported that progesterone increases in the blood level from the mid-period intermenstrually until the premenstrual phase when the amount decreases even to the point of completely disappearing 24 to 48 hours before the onset of menses. Culiner81 stated in 1945 that some of the active steroids seem to come from the ovary; evidence points towards the lutein body and luteinized theca or stroma cells as their most likely source of origin. As a matter of fact, symptoms of masculinization such as facial hypertrichosis have been observed in cases in which the ovary was the site of extensive or pathological luteinization (progesterone origin). Forbes82 in 1950 reported that plasma level studies of progesterone showed that the progesterone did not disappear until after onset of menses. Meltzer83 in 1951 found that progesterone appears in the blood stream on the 14th day of the menstrual cycle and reaches the highest level on the 22nd day; then it gradually disappears at the end of the cycle. The ovaries secrete 200 to 600 units more progesterone than estrogen74. The females have recurrent flares synchronous with the elevation of the progesterone level in the blood. The ratio of the estrogen-androgen level changes to a relative androgenicity. Aron-Brunatiere84 in 1953 noticed that acne is worse during the second half of the menstrual cycle and during the first few weeks of pregnancy?two stages characterized by progesterone secretion. Because of the well recognized androgenic activity of progesterone, he suggested that in acne progesterone may be the factor in females analogous to testosterone in males. He also noticed an aggravation of acne when he administered progesterone in doses of 20 to 30 mg. in 2 or 3 injections between the 21st and the 25th days of the menstrual cycle. Haskin et al61 reported that 10 mg. of progesterone daily to rats gave the same sebaceous gland stimulus as was obtained with 1 mg. of testosterone. Rothman10 stated that because of the powerful effect of progesterone as found by Haskin et al, it was hypothesized that pubertal development of sebaceous glands and occurrence of seborrhea and acne vulgaris in the female depend on the production of corpus luteum hormone in the same way they depend on the production of corpus luteum hormone in male. This hypothesis, since it does not implicate the adrenals, is consistent with the observation that hypogenital males and females do not develop seborrhea or acne. Smith85 in 1959 found progesterone as effective as testosterone in stimulating the sebaceous glands of the elderly. But Jarrett86 also in 1959 gave progesterone in dosage of 25 mg. intramuscularly daily for 10-17 days in 3 males and produced no change in acne. Strauss and Kligman87 in 1961 showed by their work that physiological amounts of progesterone given intramuscularly have been excluded as a source of stimulation to sebaceous glands. Norlutin or acetate ester (a synthetic) in doses of 10 mg. will stimulate sebaceous glands where the smaller dose of 5 mg. is ineffective88. Human sebaceous glands can be directly stimulated by androgens even in the presence of large amounts of estrogens. Pincus89 on the contrary stated that endogenous produced progesterone exhibits strong androgenic properties whereas the synthetic progestational substance, norethynodrel, has been shown to have no androgenic properties. However, he does not state his dosage. Biologically, progesterone has been converted to testosterone in vitro by rat testicular tissue, by human ovarian tissue, and by human interstitial cell carcinoma tissue88. Lorincz90 in 1962 stated that the effect of progesterone is indirect on the sebaceous glands because female adult spayed rats showed increased sebaceous gland activity by volume of the glands. Hypophysectomized spayed female rats had decreased sebaceous gland activity. Ebling91 in 1962 showed that estradiol when implanted for 280 days in normal and hypophysectomized or adrenalectomized female rats caused a significant reduction in sebaceous glands. In castrated and in hypophysectomized castrated rats, testosterone promoted sebaceous gland cell proliferation and mitosis only in the presence of pituitary gland. He also showed that the simultaneous administration of testosterone and estradiol produced a smaller gland than normal but one which had an increased number of mitotic cells. Progesterone had no effect on sebaceous gland size, cellular proliferation or turnover time in intact or spayed mature or immature female rats. Large doses of progesterone caused an increase in sebaceous gland size in castrated male rats. In agreement, Andrews92 in 1963 stated that progesterone is known to have androgenic properties in that it can maintain spermatogenesis in the hypophysectomized rat. Progesterone is rapidly metabolized in the body and therefore its administration should be every 8 to 12 hours75. Alkaline phosphatase activity is diminished by progesterone too75. Asel93 in 1965 stated that progesterone in large doses may be converted to active androgen which will incite the acne process. Therefore an increase in circulating androgens produced by the endogenous transformation of progesterone to an androgen could explain the exacerbation of acne during the luteal phase of the menstrual cycle47. If it were possible to eliminate the corpus luteum and thus the major source of progesterone, an important factor in the cause of acne in the female might be controlled47. Andrews49 in 1965 explains the action of contraceptive tablets which suppress ovulation by the suppression of the secretion of gonadotrophin (folliculin) of the anterior pituitary with the contraceptive pills; no corpus luteum is formed because no follicule is formed in the ovary and subsequently no corpus luteum body develops and being absent, no progesterone is secreted. By the sudden withdrawal or decrease of progesterone and estrogen, menses appears. In larger doses progesterone exerts androgenic effects perhaps by conversion to androgenic metabolites43. Strauss and Pochi94 in 1964 point out that the prevention of ovulation per se does not appear to be related to any effect upon the sebaceous glands; if it were, the use of a progestin alone, i.e. norethyndrel would have been expected to cause more consistent decrease in sebaceous gland activity. Stress and Emotions as Factors
Larenz et al34 in studying 30 patients in 1953 found a close relationship between life situations giving rise to a characteristic affective pattern and an increase in the acne pustule of these patients. Stressful interviews with acne patients were associated with increased sebum secretion when "anger" was elicited and with decreased sebum secretion when the patient responded with "remorse." Larenz then offers the thought that abrupt phasic alterations in activity of sebaceous glands may play an important part in comedo formation. Almost any type of stress or strain placed on the body tends to alter the function of the adrenals68. The regulation of secretion of adreno-corticotrophic hormone is of significant physiological and clinical importance71. Augmented release of endogenous hormone is evident following any one of a wide variety of diverse and unrelated stimuli; they are trauma, emotional stress, drugs, chemical or bacterial toxic agents or substances normally present in the body, namely, insulin, thyroxine, vasopressin and epinephrine71. The anatomical site of this mechanism appears to be the hypothalamus. Experimental evidence suggests that this structure releases a humoral agent that reaches the adenohypophysis via the hypophyseal portal vessels. The nature of this agent is as yet unknown but its stimulation of the pituitary results in release of ACTH71. Harris et al as quoted by Williams68 has shown that it is the portal blood circulation entering the hypophysis which carries the humoral substance and not through nerve impulses. This was proved by section of the connecting nerve stock between the pituitary and the brain. With acute or severe stress ACTH secretion may be increased within a few seconds68. However a lesion of certain centers of the hypophysis will prevent ACTH release following stress38. The hypothalamic centers involved are activated through the cerebral cortex by specific stresses or psychic reactions68. The afferent impulses may arise in one of the organs of special sense or in the general sensory nerve endings. Many of the effects of sensory stimuli on gonadal responses are well known. For example, egg-laying of hens may be increased by prolonging the duration of exposure of the animal to light; red light being more effective than certain other colors. Rabbits tend to ovulate only after coitus or with some other form of sexual stimulation. The cycle of stimulus in the rabbit is as follows: Genital stimulation?central nervous system?anterior pituitary?ovaries?uterine changes. Suckling is associated with the following psychic changes: Suckling?central nervous stimulation?pituitary?lactation. At the time of adolescence the following stimulus cycle is found: central nervous system?anterior pituitary?gonads?genitalia and body tissues. The olfactory effects on gonadal stimulation are readily appreciated in the dog, bull and many other animals68. The effect of psychogenic influences on the endocrines can be illustrated by the responses to marked fear; there is an increased elaboration of epinephrine which increases the function of the pituitary, thyroid, adrenal cortex and pancreas68. Hypothalamic lesions have been known to be associated with decreased thyroid function but the main problem has been the mechanism by which the hypothalamus influences pituitary function68. Lesions in certain portions of the hypothalamus can cause precocious or delayed puberty depending upon whether there is an increased or decreased stimulation of the pituitary gland. Sebaceous gland hyperplasia develops in encephatitis lethargica. Rothman10 has suggested that the encephatitis process may disturb the pituitary hormonal balance via nerve tracts leading to the pituitary. Goodman and Gilman114 state that caffeine excites the central nervous system at all levels. Cocoa contains 50 mg. caffeine and theobromine per cup. Cola nut used in the preparation of cola drinks gives about 35 to 50 mg. caffeine per bottle. Children are more susceptible than adults to excitation by xanthines. 17 - Ketosteroids The term 17-ketosteroids refers to those steroids possessing a ketone group on the 17th carbon atom. They are all determined by the urinary excretion where they are excreted as esters. Except for estrone which is removed at the time of urinary analysis, these steroids are termed urinary "androgens." The chief 17-ketosteroid of normal and of abnormal urines is androsterne38. They are believed to represent the excretory transformation products of certain adrenal and testicular hormones. The quantity excreted in the male serves as an index of the combined steroid secretory activity of the adrenal cortex and the testis and in the female chiefly of the adrenal cortex38. Normal men excrete more 17-ketesteroid than do normal women32. These compounds are discussed here principally as a means for possible study of patients with acne. Nathanson and Towney99 in 1941 found increases in estrogens and 17-ketosteroids in urines of both sexes from the ages of 3 to 7 years. From 8 to 11 years of age there was further increase but the 17-ketosteroids increased more rapidly in the female. In prepubertal period 17-ketosteroids probably are derived almost entirely from adrenal cortex102. The close association of acne and masculinizing tumors and high androgen titers suggests that an excess of 17-ketosteroids is the determining factor in acnegenesis51. Pincus101 found that 17-ketosteroids were depressed during sleep, whether by night or by day, and were elevated promptly after waking. Mason and Engstrom32 in 1950 found that orchectomy did not abolish excretion of 17-ketosteroids. About one-third of 17-ketosteroids in normal male originate in the testes38, 69. They report that Kirschmann isolated the same quantity of urinary 17-ketosteroids from ovariectomized women as from the urine of normal women. In women with Addison's disease, 17-ketosteroid almost entirely disappears from urine. Hamblen observed decreases of 14 to 26 per cent in the excretion of 17-ketosteroid when estrogens were given to 22 women with various grades of ovarian failure who excreted moderately elevated amounts of 17-ketosteroid before treatment32. McCullogh reports 5 eunuchoids excreted amounts of 17-ketosteroid which were about half the average of normal male32. Callow, Callow and Emmens also found that the average 17-ketosteroid were less in eunuchoids than normal males32. Mason and Engstrom32 found that total starvation for four days decreased the excretion of 17-ketosteroids 50 per cent in 3 normal men and one obese woman. ACTH stimulates the increased excretion of 17-ketosteroids32. White and Lehman52 in 1952 treated 14 young men with diethyl stilbestrol and studied their 17-ketosteroid excretion; the average pretreatment 17-ketosteroids were 13.6 mg. per 24 hours; during treatment the average was 9.4 mg. with a drop of 4.2 mg. or 31 per cent per 24 hours. But this was not correlated with clinical improvement! In contrast English and Witkowski62 in 1954 showed that in individuals receiving estrogen sufficient to suppress sebum production the androgens, as measured by the urinary 17-ketosteroids, remained unchanged. Rothman10 has found it hard to accept the view that all of the 17-ketosteroids in the female originate in the adrenal cortex because male castrates and most ovarian deficient females have well functioning adrenal glands; yet they do not develop seborrhea or acne. Tomovitch et al103 in 1963 found that infantile acne was not due to ketosteroids. Patients have normal plasma corticoids. Andrews49 states that 17-ketosteroids levels are normal in acne patients. And Pochi and Strauss104 mention that 17-ketosteroids are a poor index of androgenicity in that they are principally metabolites of adrenal cortical hormones which possess little androgenic potency. Yet the adrenal secretions are considered the principal androgens by many others in both the male and female. It has been assumed that 17-ketosteroid determination is a measure of androgen production; an increased excretion of urinary 17-ketosteroids in acne would indicate androgen over-production and this accounts at least in part for the pathogenesis of acne104. Henricksen and Ivy2 in 1938 found that 46 per cent of girls in a children's home had flare-up of their acne lesions before or during their menses. The acne eruption in 72 per cent of the girls in a university clinic were worse before or during menses. Robinson6 found 111 exacerbations of acne before or during menses in his series. Mason and Engstrom32 state that during normal menstrual cycles there is no evidence of cyclic variations in the excretion of 17-ketosteroids. They believe the small fluctuations which occur bear no relation to the cycle. Hamblen32 suggests that late or intercurrent ovarian failure for 6 months or more precipitates androgenic hyperfunction of the adrenal cortex. Blackburn33 in 1951 stated that 17-ketosteroids include the excretion products of the androgens and parallel the activity of acne. In view of the acnegenic effect of the androgens, the chemical relationship of the testicular ketosteroids and the adrenal steroids is a strong additional argument in favor of certain adrenocortical steroids being fundamentally involved in the production of acne in females and perhaps to some degree in males too42. And since the exacerbation of acne tends to occur at precisely those times when the androgen-estrogen ratio tends to be highest, it is possible that androgens may be elevated at a time when estrogen is lowest. In most cases the urinary 17-ketosteroid outputs are a poor index of ovarian endocrine activity but since assays of testosterone are not readily available, they are the only available test65. Other Hormonal Observations in Acne
Acne eruptions are part of the adreno-genital syndrome and in neoplasm of the adrenal cortex, surgical removal clears the acne and masculinization8. Treatment of both male and female patients with testosterone is likely to bring on acne8. In menopause the ovary becomes less responsive to pituitary gonadotrophic stimulation which causes an increased demand of follicle-stimulating variety38. Previous Laboratory Studies and Incidental
Observations in Patients with Acne
Leving and Kahn in 1922 and Greenbaum in 1931 reported separately that the glucose tolerance curve revealed no definite difference between individuals with or without acne. Wortes in 1937 gave 10 units of insulin to acne patients while fasting and allowed the patients to remain hypoglycemic; this cleared the acne. Starvation decreases blood thyrotrophin along with other adenohypophyseal hormones except ACTH but its mode of action is not clear68. Lynch53 in 1939 found that girls with acne had lower basal metabolic rates than boys with acne. Higher basal metabolic rates were reported for both sexes when the eruption was extensive. Smith et al in 1951 found that 42.5 per cent of 353 acne patients had a basal metabolic rate less than a minus 10 while 2.3 per cent had a basal metabolic rate greater than plus ten. Stokes and King35 in 1932 found the incidence of acne in parents of patients with acne is 26 times that of the parents of persons who have never had acne. In a coverage with replies by mail, Ratzer found marriage brought about improvement in 43 per cent of 415 women; 53 per cent noted no change. The largest percentage improved after the birth of a child10. Nutrition
Hamilton20 in 1941 observed that no food stuffs seem to offer a common denominator in the induction of acne although exacerbations may be produced. Tobias22, Andrews23, Sutton, Jr.24, and White21 have all advised the elimination of milk in acne diet. Lutz25 in 1944 believed that overloading the gastro-intestinal tract with carbohydrates (flour, potatoes, bread) was an important factor in the efflorescence of acne eruptions in 12 to 24 hours; nuts, cheese and sausage can cause this eruption in initially sensitive and persistent deep acne papules. Flood113 found from a study of previous papers and by clinical observations that foods commonly causing trouble are milk, pork, chocolate, tomatoes, oranges and nuts. Robinson6 reported in 1949 that the milk products, in his experience, were the most frequent cause of exacerbation with some patients drinking 2 to 3 quarts of milk a day; cola drinks and beer have also seemed to have aggravated the acne lesions. In an acne case milk drinking may be a precipitating factor. Sutton, Jr.24 in his 1949 edition believes the lipochrome pigments of tomato juice and orange juice, carrots, egg yolk and cod liver oil had as bad effect as butter fats. Andrews, Domonkos and Post23 say the foods to avoid are chocolate, nuts, ice cream, egg yolk and cheese. Rothman10 reports Serrati as finding that an excessive fat and later carbohydrate intake produced an increase in liquid sebum in normal patients and in those with acne; 12 normal patients produced 15.4 mg. of liquid sebum over 40 sq. cm. of skin. An excess of fat raised this to 21.0 mg. and when on carbohydrate it rose to 22 mg. An acne patient on regular diet excreted 29 mg. of fat. When fat was given, this same area produced 36 mg. and when on carbohydrate diet, 36.8 mg. were excreted. Rothman states further that forced feeding of animals with fats resulted in excretion of increased amounts of sebum. The nutrient fat constituents were excreted unchanged?70-119% in two weeks. In comparable overfeeding with carbohydrates, the increase was only 11-38 per cent. Interestingly, when the abnormal type of feeding was continued there was a tendency for the amounting sebum to decline again. Kalz et al115 in 1951 found the average total serum lipids in 50 fasting patients with acne to be 690 mg. per cent while the averages for 10 normal patients was 616 mg. per cent. The free serum cholesterol studies in the same 50 patients with acne averaged 81.92 mg. per cent while 10 normals averaged 68.8 mg. per cent. However the lecithin averaged 264.3 mg. per cent for the patients with acne and 313 mg. per cent for the normal patients. Some experiments suggest that extremely high fat or carbohydrate diets enhance sebum production10. Water Balance in the Skin
Hamilton20 said that sodium chloride and water retained by adrenal cortical substance, androgens, estrogens or luteal substances may make acne worse. Progesterone favors the retention of sodium and water in the tissues38. Water retention also accompanies adrenal-cortical hyperfunction30. Patients with Addison's Disease rarely have acne or eczema according to Ebner30. Aldosterone is the salt-retention hormone68. And an excess of this hormone (aldosterone) may lead to a hypertensive syndrome68. Cohen37 in 1941 felt that the position of water balance with regard to acne was obscure but that there was sufficient evidence to suggest that changes in the water metabolism may be of some importance in acne. Wirth117 in 1938 had 32 patients on a low salt diet which resulted in improvement in their acne in two years. Sodium and chloride are the extra-cellular electrolytes118. In absence of adrenal hormones the renal tubules (epithelial cells) appear to be unable to resorb Na (also Ca and K) adequately from the glomerular filtrate in spite of a low Na plasma38. Williams68 says that somatotrophin produces a retention of sodium, potassium and chloride but causes diuresis of water. Milk Drinking as a Secondary Factor in
Acne
Examinations of milk as pointed out by Munch121 in 1954 show that estrogens are present in the milk of brown mountain cattle but no androgens were evident. Estrogen levels are markedly increased in the pregnant cow as compared with the non-pregnant cow and are secreted almost entirely by the placenta as shown by Gorski122 et al in 1957 when they demonstrated that only a small amount of esogenous estrogen is necessary to bring the ovariectomized heifers into estrus. Short123 had shown previously in 1956 that the bovine placenta secretes no progesterone showing that it comes from corpus luteum. Relatively high quantities of estrogens in the late placenta coupled with rather constant levels of progestins in the ovaries126 and blood127 of the bovine is in contrast to the increasing levels of both groups of steroids in the human placenta during gestation128, 129. Williams124 in 1962 has found progesterone in cow's milk in measurable amounts after a definite amount of radioactive progesterone was given intravenously. Pigato and Guzzonato125 in 1956 did studies on bovine milk from the third to seventh month of the pregnancies. They studied the milk of five cows with the following results: Table No. 2
Animal
in milk
in milk
in milk
in milk
#1 44.7 mg. per liter 4.0 mg. per liter 0.596 mg./liter 1.913 mg./liter #2 43.2 " " " 5.1 " " " 0.610 " " 2.225 " " #3 41.9 " " " 7.3 " " " 0.796 " " 2.770 " " #4 40.4 " " " 8.1 " " " 0.796 " " 3.164 " " #5 35.8 " " " 9.6 " " " 0.906 " " 3.123 " " Further study of cow's milk shows the comparison with human milk in the following table130. Table No. 3
Protein
Human
Bovine
It is seen here that the ash content of bovine milk is three and a half times that of human milk which is 7 Gm. per liter; of this 1.37 to 1.94 Gm. is sodium chloride131. It is also seen from the above table that a liter of cow's milk contains about 40 Gm. of fat. Milk also contains 0.6 gamma of cobalt per liter and 540 gammas of iodine131. Meyrowitz et al119 in 1938 made a study of milk-drinking habits of 5227 boys and girls 11 through 18 years of age. This was conducted in upper New York City. Of this number, 46 per cent were boys and 54 percent were girls. They found that 88 per cent of the boys and 80 per cent of the girls were milk drinkers. Those findings are shown in the two following tables. Quantity Taken Daily
4 glasses milk daily 24.5 per cent 20.5 per cent 5 " " " 10.0 " " 4.3 " "
6 "
" "
7.2 " "
1.1 " "
Median Number of Glasses Milk consumed Daily Age
Glasses Daily
Age Distribution of the 5227 Boys and Girls
14 2.7 " 15.6 " " 15 2.6 " 25.4 " " 16 2.3 " 29.2 " " 17 2.2 " 17.0 " " 18
1.8 "
4.6 " "
PART II
As is shown in Table No. 4A, the earliest appearance of acne lesions in the female was 4 years of age while in the male as shown in Table No. 4B it was 9 years of age. No cases were found in the male after 21 years of age while an occasional female appeared with onset of comedones as late in life as 25 to 41 years. The male overtook the female at the age of 13 years in the number of onset of acne and continued through the 17th, when they matched. After 17 years of age the females had more initial onsets than the males. Forty-one and a half per cent of the 337 male patients had their onset of acne at 13 and 14 years of age. In the female the greatest percentage of onsets was in the years 12 and 13; this represented 30 per cent of the 712 female patients. Table No. 4B
Years of Age
7 8 9
10 11 12
13 14 15
Percentage of Cases
0.6 1.47 3.56 9.8
20.4 21.1 16.3
Years of Age 16 17 18 19 20 21 22 No. of Cases 41 26 12 4 4 2 0 Percentage of Cases 12.2
7.7 3.56 1.17 1.17
0.59
Table No. 4A
Years of Age
3 4
5 6
7 8
9 10
11 12
Percentage of Cases 0
.14 0 .14
.14 1.12 2.1 4.5
11.5 13.3
Years of Age 13 14 15 16 17 18 19 20 21 No. of Cases 118 84 84 42 50 29 15 15 12 Percentage of Cases 16.6
11.8 11.8 5.9 7.0
4.07 2.1 2.1
1.68
Years of Age 22 23 24 25 26 27 28 29 30 31 No. of Cases 3 9 0 3 2 2 1 0 0 1 Percentage of Cases 0.42
1.26 0 0.42
.28 .28 .14
0 0
.14
Years of Age 32 33 34 35 36 37 38 39 40 41 42 No. of Cases 1 1 2 1 0 0 1 0 0 1 0 Percentage of Cases .14
.14 .28 .14
0 0
.14 0
0 .14
0
Table No. 4
Years of Age
3 4
5 6
7 8
9 10
11
Females Percentage
.14 .14
.14 1.12 2.1
4.5 11.5
Years of Age 12 13 14 15 16 17 18 19 Males Percentage 9.8 20.4 21.1 16.3 12.2 7.7 3.56 1.17 Females Percentage
13.3 16.6 11.8
11.8 5.9 7.0
4.07 2.1
Years of Age 20 21 22 23 24 25 26 27 Males Percentage 1.17 0.59 Females Percentage
2.1 1.68 0.42
1.26 0 0.42
0.28 0.28
Years of Age 28 29 30 31 32 33 34 35 Males Percentage Females Percentage
0.14 0
0 0.14 0.14
0.14 0.28 0.14
Years of Age 36 37 38 39 40 41 42 43 Males Percentage Females Percentage
0 0
0.14 0
0 0.14
0 0
The Number of Years Acne Present Before
First Medical Visit
Table No. 5A
Years Acne Present
Within Year 1
2 3
4 5
6 7
Percentage of All Patients
10.5 29.2 27.7
9.3 7.5 6.0
3.9 1.5
Years Acne Present 8 9 10 11 12 13 14 15 16 No. of Patients 3 2 7 4 1 0 0 1 1 Percentage of All Patients 0.9 0.6 2.1 1.2 .3 0 0 .3 .3 Table No. 5B shows that 10 percent of the females also sought attention before the end of the first year. But during the first five years only 75 per cent of the females are accounted for as compared with 90 per cent of the males for this same period. Also the females continued having their first visits for seven years longer than the males. The longest time for a female to have her eruption before her initial office visit was 23 years. Table No 5B 691 Females: Years That Acne Was Present Before First Visit Years Acne Present
Within a year 1
2 3
4 5
6
Percentage of All Patients
10.4 18.25 16.8
11.85 10.7 6.95 5.93
Years Acne Present 7 8 9 10 11 12 13 14 No. of Patients 19 18 11 23 12 9 3 6 Percentage of All Patients
2.75 2.6
1.6 3.33
1.74 1.3
0.39 0.87
Years Acne Present 15 16 17 18 19 20 21 22 23 24 No. of Patients 10 3 6 2 3 4 0 2 1 0 Percentage of All Patients 1.45 0.43 .86 .29 .43 .58 0 .29 .145 0
Table No. 5 shows the percentage comparison of males and females for the
years the acne was present on their first visits. It will be seen
that 18 per cent of the females had their acne for a year before receiving
medical care as compared with 29 per cent of the males.
Table No. 5 Comparison of Initial Visits of Males and Females After Onset of Acne Years Before First Visit
0 1
2 3
4 5
6
Females Percentage
10.4 18.25 16.8 11.85 10.7
6.95 5.93
Years Before First Visit 8 9 10 11 12 13 14 15 Males Percentage 0.9 0.6 2.1 1.20 0.3 0 0 0.3 Females Percentage
2.6 1.6 3.33
1.74 1.3
0.39 0.87 1.45
Years Before First Visit 16 17 18 19 20 21 22 23 24 25 Males Percentage 0.3 0 0 0 0 0 0 0 0 0 Females Percentage .43 .86 .28 .43 .58 0 .29 .14 0 0 Age of Patient at First Visit
Table No. 6A 362 Males: Age at First Visit Years of Age
6 7
8 9
10 11
12 13
14 15
16
Percentage
0 0 0
.552 0 .276
2.76 6.1 11.86 16.3
11.0
Years of Age 17 18 19 20 21 22 23 24 25 26 No. of Cases 52 48 23 16 11 7 8 1 6 8 Percentage
14.4 13.2 6.35 4.42
3.4 1.93 2.51
.276 1.66 2.51
Years of Age 27 28 29 30 31 32 33 34 35 36 37 38 No. of Cases 2 1 1 0 0 1 0 0 0 0 0 0 Percentage .55 .276 .276 0 0 .276 0 0 0 0 0 0
The range for the age at the first visit for the females is from 6 years
to 44 years as seen in Table No 6B. Forty-eight percent of the females
were seen from the ages of 14 to 18 years inclusive, while 67 per cent
of the males were seen within the same five year period. Sixteen
years of age was the mode for the female?age of greatest number of patients
first seen. It also represents the age of 10.4 percent of the group
seen.
Table No. 6B
Years of Age
6 7
8 9
10 11
12 13
14 15
Percentage
.138 0 .42
.56 1.12 1.96
4.35 6.73 8.0
10.2
Years of Age 16 17 18 19 20 21 22 23 24 25 No. of Cases 74 70 53 43 32 29 28 20 21 19 Percentage
10.4 9.8 7.43 6.0
4.5 4.7 3.94
2.8 2.94 2.66
Years of Age 26 27 28 29 30 31 32 33 34 35 No. of Cases 8 17 11 8 11 4 6 5 6 1 Percentage
1.12 2.38 1.55 1.12
1.55 .56 .84
.7 .84
.14
Years of Age 36 37 38 39 40 41 42 43 44 45 46 No. of Cases 2 2 1 0 2 0 1 0 1 Percentage .28 .28 .14 0 .28 0 .14 0 .14
For comparison Table No. 6 shows the percentage of the number of patients
of each age group of both sexes which were seen at the first visit.
Table No. 6
Years of Age
6 7
8 9
10 11
12 13
Female Percentage
.138 0
.42 .56
1.12 1.96 4.35
6.73
Years of Age 14 15 16 17 18 19 20 Male Percentage 11.86 16.3 11.0 14.4 13.2 6.35 4.42 Female Percentage
8.0 10.2 10.4
9.8 7.43
6.0 4.5
Years of Age 21 22 23 24 25 26 27 Male Percentage 3.4 1.93 2.51 .276 1.66 2.51 .55 Female Percentage
4.7 3.94
2.8 2.94 2.66
1.12 2.38
Years of Age 28 29 30 31 32 33 34 35 Male Percentage .276 .276 0 0 .276 0 0 0 Female Percentage
1.55 1.12
1.55 0.56 .84
.70 .84
.14
Years of Age 36 37 38 39 40 41 42 43 44 45 Male Percentage Female Percentage
.28 .28
.14 0
.28 0
.14 0
.14 0
Menarche in Relation to Onset of Acne Of the 328 young women with acne whose history of onset of menarche could be obtained, 24 or 7.3 per cent had not yet shown signs of menstruating by the time of the onset of acne. Of the whole group all had had menarche by the age of 17 years. As shown by Table 7, the youngest to menstruate was nine years. The greatest number had onset of their menses at twelve and thirteen years of age. Table 7 also shows the number of patients of various ages in this group whose onset of acne was at the different age levels. Table No. 7
Age at Menarche
0 8
9 10
11 12
13 14
15
with Menarche
24 0
3 12
71 95
94 19
7
Number with Onset of Acne
Age at Menarche 16 17 18 19 20 21 22 23 24 Number of Acne Patients with Menarche
2 1
0 0
0 0
0 0
0
Number with Onset of Acne in Above Age Group
15 11
5 4
7 2
1 1
0
Home Treatment Before First Visit
Location of Lesion, Severity and Scarring
Before Treatment
Table 8
Before Treatment Severity of Acne of Face
moderate 148 43.4 severe 133 39.0 quite severe 18 5.27 341 98% none 6 Severity of Scarring on Face
moderate 76 50.8 severe 45 30.0 quite severe 8 5.3 150 43.3% Table 9
Degree
No. Cases Percentage
Total Cases Total Percentage
moderate 95 42 severe 39 17.2 quite severe 7 3.09 227 65.5% none 120 Severity of Scarring on Back
moderate 33 49.3 severe 24 35.8 quite severe 4 5.9 67 19.5% Table 10
Degree
No. Cases Percentage
Total Cases Total Percentage
moderate 54 33.8 severe 19 11.8 quite severe 4 2.5 160 46.0% none
189
Severity of Scarring on Back
moderate 15 38.4 severe 12 30.8 quite severe 3 7.7 39 11.1% Tables 11, 12 and 13 show a similar distribution of the categories for the 696 females. It can be seen that the total facial eruptions on the initial examinations were approximately the same for both sexes, 98 per cent and 99 per cent for males and females respectively. Sixty-five and half per cent of the males had lesions over the back as compared with 49.2 per cent for the females. The chest lesions were 46 per cent in the male as compared with 30.8 per cent in the female. Table No. 11
Before Treatment Severity of Acne of Face Degree No. Cases Percentage Total Cases Total Percentage mild 101 14.6% moderate 367 53.0 severe 218 31.5 quite severe 6 0.86 692 99+% none
4
Severity of Scarring on Face Degree
No. Cases Percentage
Total Cases Total Percentage
moderate 145 61.4 severe 29 12.3 quite severe 1 0.4 236 33.8% Table No. 12
Degree
No. Cases Percentage
Total Cases Total Percentage
moderate 167 48.7 severe 41 11.9 quite severe
0
0
343
49.2%
Severity of Scarring on Back
moderate 15 53.5 severe 5 17.8 quite severe
0
0
28
4.0%
Table No. 13 Severity of Acne on Chest Degree
No. Cases Percentage
Total Cases Total Percentage
moderate 77 36.0 severe 8 3.85 quite severe 4 1.87 214 30.8% none 487 Severity of Scarring on Chest
moderate 4 66.6 severe 0 0 quite severe 1 16.7 6 .863% Of the scarring which had already developed on the face in the male before the first visit, 43.3 per cent was in 348 males as compared with 33.8 per cent in 696 females. The scars on the back were 19.5 per cent in the male as compared with 4 per cent in the female. And finally the males had 11.1 per cent chest scars as compared with less than one per cent in the female. It is shown here by comparison in the tabulation in Tables 14, 15 and 16 that the activity is more severe in all categories for the male and that likewise the scarring is more extensive in the male. Acne eruptions on the back were found to be 25 per cent more prevalent in the male than in the female and 50 per cent more common on the chest. From these same tables it is observed that scarring is also much more prevalent in the male than his opposite sex in all categories. The male had a total of 30 per cent more facial scars. Also he has five times more residual scarring over his shoulders and back. More than ten times the severity of scarring was present over his chest than that of the female. These same tabulations 14, 15 and 16 show the severity of the eruptions and scarring present on the initial visits. The quite severe acne facial lesions were 5.27 per cent in the male as compared to 0.9 per cent in the female. The severe and quite severe facial scarring were 35.3 per cent in the male as compared with 12.7 per cent in the female. The incidence of acne activity on the back was 20.3 per cent in the male as compared with 11.9 per cent in the female; in this observation the males had 3 per cent quite severe lesions on the back while the females had none.
The chest activity showed the males to have 14.3 per cent severe and quite
severe activity as compared with the females' 5.9 per cent.
Table No. 14
Before Treatment
Acne?Face
Scarring?Face
mild 12.7 14.6 mild 14.0 23.8 moderate 43.4 53.0 moderate 50.8 61.4 severe 39.0 31.5 severe 30.0 12.3 quite severe 5.37 0.86 quite severe 5.3 0.4 total 98.0% 99.0% total 43.3% 33.8% Table No. 15
Degree Male Female Degree Male Female mild 38.0 39.4 mild 8.85 28.7 moderate 42.0 48.7 moderate 40.3 53.5 severe 17.2 11.9 severe 35.8 17.8 quite severe 3.1 0.0 quite severe 5.9 0.0 total 65.5% 49.2% total 19.5% 4.0% Table No. 16
Acne?Chest
Scarring?Chest
mild 52.0 58.5 mild 23.1 16.7 moderate 33.8 36.0 moderate 38.4 66.6 severe 11.8 3.85 severe 30.8 0 quite severe 2.5 1.87 quite severe 7.7 16.7 total 46.0% 30.8% total 11.1% .863% The severity of the scarring percentagewise shown in the above tables in the severe and quite severe categories was also greater in the male than the female; for the face 35.3 per cent compared to 12.7 per cent; back, 41.7 per cent to 17.8 per cent; and chest, 38.5 per cent to 16.7 per cent. The severe activity of the lesions is shown to be greater in the male for all areas as are the resulting scars from the secondary bacterial infection. Relation of Atopy to Acne Vulgaris
In comparing the percentage as shown in Tables 17 and 18 it is obvious that atopic dermatitis is more prevalent (14.15 per cent) in females than in males (5.8 percent). Hay fever is about the same in both: 58.8 per cent in males and 55 per cent in females. However the males have more asthmatics, 18.4 per cent as compared with 11.28 per cent in the females. The other figures in the table are comparable. Table No. 17
122 Atopics Found in 362 Male Acne Patients (29.7%) Shock Tissue
No. of Cases
Percentage of Total Atopics with Acne
hay fever 80 58.8 asthma 25 18.4 hives 21 15.47 migraine 2 1.475 Table No. 18
199 Atopics in 709 Acne Female Patients Shock Tissue No. of Cases Percentage of Total Atopics with Acne atopic dermatitis 52 14.15% hay fever 180 55.0 asthma 37 11.28 hives 56 17.0 migraine
4
1.58
What Has Made Acne Worse?
Of 362 cases of acne in the male where information was obtained from 74
patients, Table No. 19 gives the items accused as exciting factors and
the number of patients naming the factors. It can be seen that several
of these could be listed together under one category such as athletics
and football, etc.
Table No. 19
nervousness 7 athletics 3 sweets 5 beer or alcohol 3 "college" 4 shaving 3 milk 3 certain foods 2 fried foods 3 picking 2 football 3 The remainder scored one each: rich food, no sleep, tired, winter, chlorine in pool water, emotions, not washing, sweating, S.S.S. tonic (supposedly contains potassium iodide), hair oil, some medicines, cakes, oranges, dry scalp, nuts, when worried, greasy foods, fruit. In quizzing 709 females, 370 (52%) offered causes as to what made their acne worse. These are listed in Tables 21, 22 and 23. First on the list was just "menses" in 110 cases, "before menses" in 59 and "after menses" in 10; this is a total of 179 out of 370 cases or 48.5 per cent of women blame this one factor alone. It is my belief that if all adolescent women could be tabulated it would be found that a higher percentage than 48.5 would have some sort of papular eruption about their menstrual time. Table 21 shows the distribution of other more common causes of flare-ups of lesions of acne in women. Table 21
"Nerves" 19 Tired 4 Sweets 12 "No Sleep" 4 Emotions 12 Cakes 4 Tension 10 Diet 3 After Delivery 9 "Work" 3
Table 22 shows the causes of exacerbation in at least two cases each of
the 370 patients.
Table No. 22
Hormones Scalp Hair on Cheeks Oranges Noxzema Cheese Stopping Enovid Excitement Milk Dandruff And Table 23 shows the causes in at least one female for a flare-up of her acne. Table 23
Winter Cod Liver Oil After Male Hormones Butter Anemia After Appendectomy Ice Cream Pies At Ovulation Time Sinus Headache Vitamin B6 "Moved to California" What Has Improved the Acne?
Table No. 24 Remissions of Acne Lesions in 62 Male Patients
Summer, sun or at beach
48
Antibiotics 2 Swimming 2 Table 25 shows the categories in which at least one patient noticed improvement. Table No. 25
Low Fat Diet No School Using Antiseptic Soap Niacin Washing Ultraviolet Exposure "Pills" Seven hundred nine (709) women with acne were queried as to what improved or cleared their acne. Of these 709, 135 observed periodic remissions. They, like the men, showed improvement in 86 cases (61.5 per cent) when in the sun, during the summer or at the beach. Eruptions improved or cleared in 17 women during pregnancy. Antibiotics improved 9 of the 86; x-rays helped 4. In 4, their acne was improved after menses and in one during menses. Washing and "diet" help three each. This is shown in Table 26. Table No. 26 Periodic Remissions Other Than After Menstrual Period in 135 Females with Acne
Summer, Sun or Beach
86 cases
Antibiotic Therapy 9 " X-Ray Treatment 4 " Washing 3 " Diet 3 " The remaining list had one patient each with improvements. Table No. 27
When on Vacation Home From College Carbon Dioxide Treatment After Marriage After a Fever Ten Hours Sleep Every Night Treatment The Milk-Drinking Habit As An Influence
on Acne
It is of interest that 4 of the males or 1.2 per cent of the males and 50 females or 6.5 per cent of the females studied were non-drinkers of milk. In a study in upper New York City119 of "Milk Drinking Habits of Young People" in which 5227 interviews were made of males and females from the age of 11 years through 18 years, 415 said they disliked milk and an additional 100 did not drink milk but not because they did not like it. This shows a percentage of 10 per cent of young people as a whole who do not consume milk as compared in patients with acne in which 44 in 958 or 4.5 per cent did not drink milk: So it is seen that two and a half times as many people with acne drink milk as normal young people in the general population. The number of glasses of milk consumed in the New York study119 on the day before the questionnaire was recorded is given in Table 32A. It is seen that the students who drank the most milk?4, 5 and 6 glasses a day?were boys. Table No. 32A
1 8.2 10.0 2 16.2 22.7 3 27.5 32.0 4 24.5 20.5 5 10.0 4.3 6 7.2 4.1 No Answer 1.5 1.4 The average amount consumed in 2.9 glasses a day and the median amount was 2.5 glasses a day. The study also showed that as young people grew older they drank less milk. Table 32 gives the median numbers of glasses of milk consumed per day per age. Table No. 32
14 " " " 2.7 " " " 15 " " " 2.6 " " " 16 " " " 2.3 " " " 17 " " " 2.2 " " " 18+ " " " 1.8 " " " In the New York study it was found that 88.8 per cent of the males and 80.0 per cent of the females of the normal population were confirmed milk drinkers. In our own study 98.8 per cent of the males and 93.5 per cent of the females were milk addicts, an increase of 10 per cent in the boys and 13.5 per cent in the girls.
Table No. 28 and Table No. 29 show the number of glasses of milk the males
and females separately drank per day on the initial visit in the author's
study.
Table No. 28
Number of Cases 4 10 35 31 122 24 36 10 Percentage of Total Cases
1.17 2.92 12.0
9.0 35.6 7.0
10.8 2.9
Number of Glasses of Milk 8 9 10 11 12 13 14 15 Number of Cases 54 0 4 0 5 Percentage of Total Cases
15.7 0
1.17 0
1.46
Number of Glasses of Milk 16 17 18 19 20 Number of Cases 1 1 Percentage of Total Cases .29 .29 Table No. 29
Number of Glasses of Milk 0 1 2 3 4 5 6 7 Number of Cases 40 58 122 111 190 15 18 2 Percentage of Total Cases
6.5 9.4
19.6 18.0 30.8
2.44 2.92 .32
Number of Glasses of Milk 8 9 10 Number of Cases 9 0 1 Percentage of Total Cases 1.46 0 .16 Table No. 30 is a comparison of the percentages of milk consumed in the males and females. More girls drank milk in the 1, 2 or 3 glass category than boys, but from then on the boys took the lead up to five quarts a day. Seventy-five or 22 per cent of the males drank more than six glasses of milk a day while only 12 females or 1.94 per cent drank more than six glasses of milk a day. Table No. 30
Glasses
0 1
2 3
4 5
6 7
Percentage in Females
6.5 9.4 19.6
18.0 30.8 2.44
2.92 .32
Glasses 8 9 10 11 12 13 14 15 Percentage in Males 15.7 0 1.17 0 1.46 0 0 0 Percentage in Females
1.46 0
.162 0
0 0
0 0
Glasses 16 17 18 19 20 Percentage in Males .29 0 0 0 .29 Percentage in Females 0 0 0 0 0 Table 31 shows that for the years of age the male drinks more glassfuls of milk a day than the female and unlike the New York study, milk-drinking in the male patient with acne does not diminish at 18 as the study of New York City found in the normal individual. Since we did not see any male acne patients whose acne appeared initially after the age of 21 years, it is not possible to say if these individuals continue to drink milk in later years as was found in the female who drank 3 glasses of milk a day at the age of 28 years when first seen. Table No. 31 A Comparison of the Daily Intake of Cow's Milk in Number of Glasses (250 ml.) Of Males and Females
Age at Onset of Acne
4 5
6 7
8 9
Ave. Daily Glasses of Milk Per Female 3 0 0 3 3 3.08 New York Study Median Number
0 0
0 0
0 0
Age at Onset of Acne 10 11 12 13 14 15 Ave. Daily Glasses of Milk Per Male 3.2 3.6 4.2 5.5 4.8 4.95 Ave. Daily Glasses of Milk Per Female 3.17 3.4 3.3 3.26 3.7 3.3 New York Study Median Number
0 0
3.0 2.9
2.7 2.6
Age at Onset of Acne 16 17 18 19 20 21 Ave. Daily Glasses of Milk Per Male 4.8 5.6 4.9 5.3 5.3 5 Ave. Daily Glasses of Milk Per Female 3.0 2.94 2.7 2.58 3.5 2.3 New York Study Median Number
2.3 2.2
1.8
Age At Onset of Acne 22 23 24 25 26 27 28 Ave. Daily Glasses of Milk Per Male Ave. Daily Glasses of Milk Per Female 1.3 2.84 4.5 3.0 It is seen above in Table 31 that the median number of glasses of milk for the normal New York youth is much smaller than the average number of glasses that were drunk by either males or females with acne. Determinations of 17-Ketosteroids in Females
with Cyclic Flare-up of Acne
In 21 such menstrual cycles tested in different females, 16 showed a higher
level of 17-ketosteroid before the menses than after the period while 6
showed the reverse. An average increase of 1.3 mg. per 24 hours occurred
where the determination was higher before menses than afterwards.
In the reverse where the increase was higher after the menses the difference
between the before-and after-menses-test was 0.7 mg. per 24 hours.
The present age, the age of onset of acne or the menarche could not be
found to be factors in the variations.
Table No. 33
NH
20 9.2
9.0
18
15
+
KB 25 4.8 3.5 15 12 ++ KH 19 10.8 6.2 14 13 +++ CG 19 9.2 7.8 14 13 ++ DD 14 4.3 3.3 12 9 ++ SB 20 7.0 6.3 13 12 ++++ DM 17 3.9 3.2 14 ++ NG 34 8.8 7.7 14 13 ++ LN 13 8.7 7.0 12 12 + FM 18 4.6 3.2 17 14 + PH 13 4.8 3.4 12 11 + CA 21 6.7 4.7 16 12 ++ LB 24 8.0 7.0 23 12 + DH 28 11.5 9.7 18 13 ++ JM 30 11.1 11.5 16 14 + JS 10 7.3 8.0 10 10 + CV 19 1.9 2.5 18 11 ++ JG 15 8.2 8.6 15 + NM
14 5.1
6.9
12
12
+
Part III
A comprehensive review of the literature and an intensive study of my own
cases have led me to some definite conclusions about the mechanism of the
exacerbation of acne lesions beyond the condition of secondary infection.
These conclusions and other factors for discussion are given in Table C.
Table C
Androgens Estrogen Acne as a Normal Physiological Adjustment in the Adolescent Acne Surgery Ultraviolet Irradiation Stress and Emotion Seborrhea Food Allergy Sodium Chloride Thyroid Extract and Thyroxin 17-Ketosteroids The Milk Drinking Habit Pituitary-Adrenal-Gonadal Complex
Anatomical Variation
Androgens
As also mentioned previously in this paper, the urinary androgens as determined by 17-ketosteroids are derived solely in the female from the adrenals. But since progesterone of corpus luteum belongs to a 20-carbon atomic arrangement of the steroid nucleus, its presence is not determined by this analysis. In the male two-thirds of the urinary androgens as 17-ketosteroids is derived from the adrenals and the remaining one-third is derived from the interstitial testicular cellular tissue. In eunuchoids or castrated prepubertal males and oophorectomized prepubertal females who do not develop acne lesions, adrenal glands are still intact. So it seems difficult to believe that the adrenal secretions are the cause by themselves of the appearance of acne. Since progesterone of the female has been shown by several investigators to have androgenic effect, it must be testosterone in the male and progesterone in the female that are the additional stimuli to the pubertal skin. This still does not account for the acne eruptions in the premenarchal girl unless progesterone is formed by the theca cells of the ovary without ovulation and menstrual cycle. Estrogens
Is Acne Vulgaris Normal?
Nutrition
Increased ingestion of fats would also cause an increase of liquid sebum on the skin surface as was demonstrated by Serrati. Fat that is mobilized or stored in the system goes through a glycogen phase; it is apparently in this glycogen phase that the holocrine cells of the sebaceous glands take the carbon particles to build the waxes needed for sebum. Thus fat in the diet is another factor that acts to stimulate the synthesis of sebum secretion. Neutral fat that is ingested is taken up by adipose tissue while the fats forming sebum are synthesized in situ. Cow's milk contains about 40 Gm. of butter fat per liter, consequently several quarts of milk a day adds significantly to the fat of the diet. Stress and Emotions
Diag. #1 The release and regulation of stimulating hormones for most of our ductless glands are under the control of the pituitary. This is brought about by chemical action on the hypophysis or by impulses from the cerebral cortex indirectly through the hypothalamus. The pituitary hormone acting directly on the adrenals and on the gonads releases androgenic hormones that stimulate the sebaceous glands. Emotions originating in the cerebral cortex whether by psychic stimulation or by chemical substances excite the hypothalamus directly; this part of the brain then through the pituitary portal venous system activates the pituitary gland, not by nervous fiber connections, but by hormones. Young people of both sexes of high school or college age readily recognize that their eruptions of acne and oiliness of the skin will be made worse by an intense study session or by the preparation for a severe examination. Any stimulating medications or toxins would have the same effect; this, then, would mean that anything containing an appreciable amount of caffeine, a cerebral xanthine stimulant, (coffee, "cokes," chocolate and tea) should be eliminated. Sufficient alcohol could have a similar effect. Amphetamines would also give the same cerebral exciting result. Alcohol might be initially stimulating in the same way followed by a toxic effect on the brain. Because alcohol is a carbohydrate it would have an over-feeding effect directly on the sebaceous glands. It should also be remembered that young people are more susceptible to stimulants than their elders. And finally any excitement (sexual or otherwise), emotion or tension have their effects on the cerebral centers. Many of these reactors cannot be controlled very well by the patient. But they should be recognized as a cause. The condition of the skin will then subside when the factors of stress or conflict are resolved. A typical example: one of the high school patients under observation who had been in conflict with her parents and who had had acne for years cleared promptly after psychiatric therapy for only several weeks. Seborrhea
Food Allergy
Sodium Chloride
Ebner30 in 1956 stated that acne may be alleviated by the restriction of the intake of salt (sodium chloride), salt-containing meats and other foods that contain a high content of sodium chloride. Thyroid Extract and Thyroxine
Iodide in the form of potassium iodide has been observed to cause acne eruptions to be more severe. It may be the mechanism of forming more thyroxine from iodine that aids the androgens in stimulating the sebaceous glands. 17-Ketosteroids In the light of the review of the literature the significance of the drop of urinary 17-ketosteroids immediately after menses is not clearly understood. If the adrenal-androgen levels are constant in the normal female, as previous investigators have reported, this change should not have occurred. Our figures seem to be within the limits of normal laboratory error. More study is justified from these observations because the elevated part of the titres occurred at the times when the acne was more severe. The Milk Drinking Habit
It was interesting to find that 10 per cent of normal population and only 4.5 per cent of the patients with acne were non-drinkers of milk. All of these observations as pointed out earlier and developed above show that the average adolescent with acne can be associated with the group of youngsters who consume more milk than the normal population of his own age. In addition to the high intake of fat and sodium chloride that is ingested daily when large amounts of cow's milk are consumed, many gonadal and sebaceous gland stimulating hormones as previously shown are also taken in the milk. Any one of these substances (fat, salt or hormones) would make it undesirable to drink the massive quantities of milk that are consumed every day by the patients with acne. Recommendations for Treatment
tailored to the age and the condition of the patient. Although acne surgery has not been a part of this investigation, the first and most natural treatment to consider in practically every case is the removal of the unsightly pustules and caseous plugs in the skin; this is part of a recognized surgical procedure in any cutaneous infection or treatment of a foreign body in the skin. The comedo plug must be considered a foreign body stopping the elimination of sebum through the sebaceous gland pore. The comedo and the pus must also be removed to prevent the subsequent scarring on healing that develops from the bacterial toxins present in the pus; these toxins destroy the surrounding tissue cells. Since the cosmetic appearance of the patient and any possible resulting scarring from the condition are major effects of this disease, the removal of any pustules and accompanying comedones surgically results in a great deal of improvement. Shampooing should be frequent enough to keep the hair and scalp free of oiliness. The hair should be kept off the forehead and face at all times. The facial eruption will not improve as long as scalp or hair remain oily. The concern of the patient that removing the comedo or its infected pustular material will leave a scar is a fallacy; the longer the pustule remains in a particular site, the more destruction with resulting scarring will be present on the ultimate healing. This acne surgery should be done with the tip of the smallest eye knife and followed by a bowl-shaped comedone expressor that resembles a small doughnut. It should be done in the physician's office and not by the patient because he, the patient, may not use a sterile instrument or follow a sterile technique. Surgical removal or squeezing attempted by the patient often leads to further infection. This results in making the condition and the scarring worse. Many physicians have a tendency to neglect this surgical part of the treatment because it is time consuming. The localized irritation that often accompanies surgical expression of sebaceous gland when any of the sebum extravasates into the surrounding tissue is due mostly to the presence of proprionic acid in the secretion which has been given off there by the presence of a proprionic-acid-producing bacillus, Cornybacterium acnes45. Infection
Estrogens
Treatment with estrogens will reduce the seborrhea in females. Progestins when used as therapy for various conditions if given in sufficient amounts, will increase the comedo stimulation because of their androgenic hormonal effects. Therefore these side effects may be expected where this medication has to be used in acne-susceptible women. Nutrition
Stress and Emotion
81 stimulating factors. It was mentioned earlier that androgens "lay the fire for acne and the emotions or other secondary factors light that fire." This appears to be true. Vacations, elimination of mental stimulating drugs and the control of anything that puts a strain on the emotions are all factors that will lessen the activity of acne vulgaris. Coffee, "cokes," chocolate, tea, alcohol and medications containing amphetamine or similar cerebral excitants should be avoided. Different living conditions or psychiatric therapy may be required in some cases. Sodium Chloride
Chlorthiazides have been found helpful in older women if taken a week or so before each menstrual period. Thyroid Extract or Thyroxin
17-Ketosteroids
From the observations of the females whose acne was worse premenstrually
and whose urinary 17-ketosteroids were elevated premenstrually, it would
appear that these
82 are the patients who would benefit definitely from a two week premenstrual course of daily estrogens. Ultraviolet and Roentgen Irradiation
Roentgen therapy for acne vulgaris has practically gone into disuse in most parts of this country because of the fear present in the public mind of side effects, local or genetic. However, it still remains one of the best methods for achieving atrophy of the sebaceous glands for reducing their activity. Milk Drinking
Milk is primarily a childhood food and drink. In the adolescent as
a food habit it should be curtailed for the benefit of improvement of the
lesions of acne. It may be used
83 in cooking and as food at table as needed. But the use of milk as a beverage should be discouraged. Parents often inquire about a substitute when the child's intake of milk is reduced and what will he do for calcium? The protein and calcium can be supplied through cottage cheese which may be eaten daily: Water is the best substitute as a drink and so that the patient knows his milk is not entirely removed, allow one glassful of milk to drink for each three glassfuls of water he has. Diluted fruit juices are good substitutes for adolescents if they do not contain too much sugar; grape juice diluted 6 to 8 times with water gives water a little flavor which has been found acceptable as a drink. Conclusions This study demonstrates that acne lesions were found before treatment to be definitely more extensive, more severe and with greater scarring in the males than in the females. However acne starts earlier in the female and remains active longer but at a less severe condition in the female than in the male. Males do not seek treatment as early as females apparently because it is of less social importance to him at this age. As a result of anatomical pre-disposition, endocrine development, variations in emotional disturbances and in dietary and living conditions, the etiology of acne vulgaris and therefore its treatment involves factors that are individual to every patient. Adrenals
84 full development in the female of the gonadal system. This shows that the sebaceous glands are more sensitive to stimulation of hormones than the sexual glands. Nutrition
Stress and Strain
And since aldosterone is the adrenal salt-retention hormone, it is conceivable that normal adrenal stimulation from the pituitary under cerebral stress or emotion would cause sodium chloride to be withheld in the tissues and probably cause exacerbation of the lesions of acne through imbalance of the fluid level in the skin. Sodium Chloride
Seborrhea
Atopy (Familial Allergy) The percentages of atopic individuals were the same in this study as occur in normal population, so no allergic conditions could be considered responsible for exacerbations of acne vulgaris. Acne Surgery
Menses, Acne Exacerbations and 17-Ketosteroids
Milk Drinking
The excess salt intake as would occur in a large daily consumption of cow's milk seems undesirable because of the edema created in the extracellular tissue spaces. It would make the skin more susceptible to secondary infection. With the large quantities of progesterone that are produced during gestation of the cow, the possibility of progesterone being present in cow's milk along with the other hormones is highly probable. And while the pregnant cow is still with the milking herd of any dairy, the pooled milk of these lactating pregnant cows will get into the milk for general delivery. Since I have observed in practice that the consumption of an abnormally large amount of cow's milk is often associated with active fluctuations of acne lesions, I believe the use of milk as a beverage in the adolescent with acne should be discouraged for benefit of improvement of the lesions. This part of the acne patient's diet should be studied further to learn of the influencing factors that are in milk.
I have studies now in progress for the continued investigation of the content
of hormones that may be excreted in cow's milk and which I should like
to report on at a later date.
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