scholarly journals IN MEMORY OF V.M. SMOLYANINOV (1898–1981) – JUDICIAL PHYSICIAN – INNOVATOR AND TEACHER (TO THE 120th ANNIVERSARY OF THE BIRTHDAY)

2019 ◽  
Vol 4 (4) ◽  
pp. 49-52
Author(s):  
E. H. Barinov ◽  
T. Sh. Morgoshia ◽  
N. A. Romanko

In the article the main dates of life and creativity of Professor V.M. Smolyaninov. The period of life of the scientist from 1932 to 1943 is analyzed. Smolyaninov was Chief forensic expert of the People’s Commissariat of Health of the RSFSR, and from 1943 to 1947 – forensic expert of the Extraordinary State Commission for Investigation of the atrocities of the German fascist invaders. In 1943, Vladimir Mikhailovich became a professor. From 1949 to 1979, Professor V.M. Smolyaninov is Head of the Department of Forensic Medicine of the II Moscow Medical Institute and at the same time (1949–1961) Deputy Director of the Institute for the Scientific Section, and from 1960 to 1968, was deputy chairman of the Scientific Medical Council of the Ministry of Health of the RSFSR. In the work it is shown that the scientific researches of Professor V.M. Smolyaninov, having great theoretical, practical and scientific-organizational significance, cover a wide range of issues of thanatology, toxicology and traumatology, spectral analysis, research of physical evidence, sudden death, medical deontology, organization and methods of forensic medical examination. He published more than 120 works, a number of monographs. Under his leadership, more than 50 candidate and 22 doctoral dissertations were completed. It is noted that during the whole busy life Vladimir Mikhailovich conscientiously and impeccably fulfilled his duty as a doctor, teacher, citizen and scientist.

2018 ◽  
Vol 11 (1) ◽  
pp. 81
Author(s):  
Alexander Alekceevich Andreev ◽  
Anton Petrovich Ostroushko

Vladimir Dmitrievich Fedorov was born on 21 March 1933 in Moscow. After finishing school he entered in the 2nd Moscow medical Institute named after N. And. Pirogov (1950-1956), where he performed the duties of Secretary of the Bureau of the Komsomol of the course and the member of the Komsomol Committee of the Institute; engaged in experimental work on the defibrillation of the heart. Studied in residency (1956-1958), graduate school (1958-1960), worked as a teaching assistant (1960-1966) and then associate Professor (1966-1971) chair of hospital surgery of the 2nd Moscow state medical Institute. In 1963 he defended his Ph. D. in 1971 doctoral dissertation. In 1972, Vladimir Dmitrievich Fedorov was appointed Director of research laboratory surgery clinic of the Ministry of health of the RSFSR. In 1976, on the initiative of V. D. Fedorov was the first in the USSR Department of Coloproctology of the Central doctors improvement Institute, which he headed for 13 years. In 1982 he was elected a corresponding member, and in 1986, academician of the Academy of medical Sciences (AMS) of the USSR. Since 1988, Vladimir Fyodorov, Director of the Institute of surgery named after AV Vishnevsky Academy of medical Sciences of the USSR. In 1990, V. D. Fedorov elected to the chair of surgery, faculty of postgraduate professional education of Moscow medical Academy named after I. M. Sechenov. Since 1974 he worked as a Deputy chief surgeon of the Medical center of President's Affairs Administration of the Russian Federation. D. Fedorov is the author of over 500 scientific works, including 13 copyright certificates and patents, and 20 monographs. Under his leadership, and counseling are protected by 32 doctoral and 47 master's theses. V. D. Fedorov was an honorary member of the Russian Association of endoscopic surgery and the Association hepatobiliary surgery, Moscow surgical society, surgical scientific societies of Uzbekistan, Kazakhstan and the Saratov region, Chairman of the surgical section and member of the Presidium of scientific medical Council of Ministry of health of the Russian Federation, a member of the Interdepartmental health Council, Deputy chief editor of the journal "Surgery", member of the editorial Board of the journal "Surgical Laparoscopy and Endoscopy" and one of the oldest journals "British Journal of Surgery". For two years he headed the Association of surgeons named after N. And. Pirogov (1992-1994). More than 10 years he was a member of the Presidium of the Russian Academy of medical Sciences and performed the duties of Chairman of the Board of Directors of the institutes of the Russian Academy of medical Sciences. Vladimir Dmitrievich, a foreign member of the Belarusian Academy of medical Sciences (2000) and the Academy of Sciences of Moldova (2003), honorary Professor of the Petrovsky national research center of the Russian Academy of medical Sciences and the Bashkir medical College. Academician V. D. Fedorov is the main national representative in the International society of surgeons (1990) national representative in the International society of University surgeons Coloproctology. Mr Kuznetsov – laureate of the State prize of the USSR (1985) and the RSFSR (1991), RF Government prize (2002), Honored scientist of Russia (1997), awarded the order of red banner of Labor (1976, 1978), Lenin (1983), "For merits before Fatherland" III degree, Friendship of peoples (1993).


2017 ◽  
Vol 10 (2) ◽  
pp. 176
Author(s):  
Alexander Alekseevich Andreev ◽  
Anton Petrovich Ostroushko

Shamov, Vladimir Nikolaevich (1882-1962) – an outstanding Soviet surgeon, neurosurgeon, transfuziolog, academician of the USSR (1945), honored scientist of the RSFSR and the Ukrainian SSR, General-Lieutenant of medical service, laureate of the Lenin prize (1962); awarded the order of Lenin (twice), red banner (twice), red banner, red Star and medals of the USSR. Born may 22, 1882 in Menzelinsk, Ufa governorate (now Tatarstan). In 1908 he graduated from the Military medical Academy. In 1911 he defended his doctoral thesis on the topic: "the importance of physical methods for surgery of malignant tumors". From 1914 to 1923 V. N. Shamov – senior assistant in the Department of Fedorov. In 1919 he received isohemagglutinins serum for the determination of blood groups and for the first time the country produced a blood transfusion given group membership. In 1923, V. N. Shamov was elected as head of the Department of surgery of the Kharkov medical Institute and the surgical clinic of the Ukrainian Institute of experimental medicine. In 1926, he reported he developed a method of complete isolation from neural connections of the small intestine, derived under the skin, and transferring it to the blood supply of the subcutaneous vessels. In 1928, V. N. Shamov proposed and successfully conducted the transfusion of cadaveric blood. In 1930, he organized the second in the USSR and in the world Institute of blood transfusion and emergency surgery, and became its Director. In 1935 he was awarded the title of honored Worker of science. In the years 1939-1958 V. N. Shamov headed the Department of hospital surgery of the Military medical Academy, he was the scientific Director of the Leningrad Institute of blood transfusion (1939-1941). During world war II – General-Lieutenant of medical service, Deputy chief surgeon of the red Army, in 1945 – the chief surgeon of the Supreme command of the far Eastern front. In October 1945, he was elected a full member of the USSR AMS. Since 1947 – was also the Director of the Leningrad research neurosurgical Institute them. A. L. Polenov, surgeon-in-chief of the RSFSR. Since 1958 Professor-consultant of the Military medical Academy. In 1962, V. N. Shamov became a laureate of the Lenin prize for development and introduction in practice of the method of preparation and use fibrinoliticescoy blood. N. Shamov for the first time in the country performed periarterial sympathectomy and surgery choroidal plexuses of the ventricles of the brain; developed method pregrading plasty of the esophagus isolated loop of the small intestine, raised the question of limitation contraindications for surgical interventions in the elderly. He was one of the first applied with the purpose of anesthesia, controlled hypotension and hypothermia anesthesia gas nitrous oxide, etc.; successfully completed one-step pankreatoduodenektomiyu in pancreatic cancer; described the clinical picture of tumors of cortex and medulla of the adrenal glands. V.N. Shamov was a member of the Board of the all-Union society of surgeons and the International Association of surgeons, Chairman of the Surgical society. N.I.Pirogov, the Chairman of the organizing Bureau of the 24th all-Union Congress of surgeons, member of the scientific medical Council of Ministry of health of the USSR. More than 20 of his students became heads of departments of medical Universities. V. N. Shamov awarded the order of Lenin twice red banner (twice); the red banner of Labour, red Star, medals of the USSR. Died V.N. Shamov in Leningrad on 30 March 1962. In memory of academician V. N. The Shamov in St. Petersburg on the building of the Military medical Academy and Neurosurgical Institute. Professor A. L. Polenov installed a memorial plaque, a bust of Lieutenant General of medical service V. N. Shamova installed in the courtyard of the St. Petersburg blood transfusion center, one of the streets of the city of Menzelinsk were named after academician V. N. Shamova.


Author(s):  
Kenneth Le Meunier-FitzHugh

This chapter discusses the nature and origins of marketing. Marketing covers a wide range of essential business activities which ensure that customers can obtain the products and services that they want and need, when and how they want them. The most common applications of marketing are consumer marketing, business-to-business marketing, service marketing, not-for-profit marketing, and international marketing. Since the 1960s, marketing has used the four Ps of Price, Place, Product, and Promotion to deliver its marketing objectives and this has now been expanded to include another three Ps of People, Physical Evidence, and Process. The chapter also includes an assessment of what is customer value.


1995 ◽  
Vol 166 ◽  
pp. 371-371
Author(s):  
I.S. Guseva

Anomalous refraction remains to be the most critical problem in the meridian astrometry measuring large angles on the sky. I study slow quasi-periodical variations of refraction caused by the processes in the middle and upper atmosphere, such as gravity waves, etc., which can not be detected and calibrated out by use of any on-ground meteorological measurements. For this study, very old observations at large zenith distances of 80 to 90 degrees made by V. Fuss at Pulkovo Observatory in 1867-1869 [1] were used. The Deeming's method [2] of spectral analysis of data was applied to examine the characteristic variations of refraction in a wide range of periods. Very powerful quasi-periodical processes with periods of 7-8, 11-14, 18-22, 36-44 minutes and with amplitudes of 0.3 to 0.5 arcsec in the zenith were found when short sets of observations (1-5 days) were considered. They increase random errors of astrometric observations with meridian circles, transit instruments, astrolabes, etc. The periods of very slow variations — 152, 122, 93, 82.5, 73, 61 and 50 days, – are close to the well known periods discovered in other astronomical phenomena, for instance, in solar activity and in Earth rotation. I note also, that some of the long-period variations of refraction may cause quasi-systematic errors in astrometric measurements and catalogues.


2011 ◽  
Vol 7 (S283) ◽  
pp. 211-214
Author(s):  
Marc Ziegler ◽  
Thomas Rauch ◽  
Klaus Werner ◽  
Jeffrey W. Kruk

AbstractWe present results of a (F)UV spectral analysis of 15 hot, hydrogen-rich central stars of planetary nebulae (CSPNe) of DAO-type (A 7, A 31, A 35, A 39, NGC 3587, NGC 6720, NGC 6853, NGC 7293, PuWe 1, Sh 2-174) and O(H)-type (A 36, Lo 1, LSS 1362, NGC 1360, NGC 4361). The sample covers a wide range of parameters (Teff ≈ 70–130 kK, log g = 5.4–7.4). It represents different stages of post-AGB evolution. The derived stellar parameters are crucial constraints for AGB nucleosynthesis and stellar evolutionary calculations. Detailed spectral analyses using fully line-blanketed NLTE model atmospheres including 23 elements from hydrogen to nickel are performed. Additional modeling of the ISM line absorption enables to unambigiously identify nearly all observed lines and to improve both, the photospheric as well as the ISM model.


2011 ◽  
Vol 10 (3) ◽  
pp. 5-13
Author(s):  
O. I. Urazova ◽  
S. A. Nekrylov

The article is dedicated to the 120th anniversary of the foundation day of the Department of General Pathology (Pathophysiology) of the Imperial Tomsk University - Tomsk Medical Institute - Siberian State Medical University and scientists whose scientific and pedagogical activity as well as career paths are connected with the Department and Tomsk Cathedral Scientific School of Pathophysiologists, one of the oldest schools in Russia and the first one in the Asian part of Russia. Main directions of school's scientific and research work of the past years are described in the article as well as its present day achievements in science. Special attention is paid to the activity of the head directors and the best representatives of the Tomsk Pathophysiological School such as P.M. Albitsky, A.V. Reprev, D.I. Timofeevsky, P.P. Avrorov, A.D. Timofeevsky, L.F. Larionov, D.I. Goldberg, E.D. Goldberg, V.S. Lavrova, who made a significant contribution to the development of the Russian medical science and medical education. The data on the leading scientific school of the Russian Federation under the leadership of the RAMS Academician V.V. Novitsky is presented in the article.


2019 ◽  
Vol 85 (1II)) ◽  
pp. 15-32
Author(s):  
A. A. Pupyshev

The main sources of spectral interferences in atomic emission spectral analysis (AESA) are considered, including both wide-range (bremsstrahlung and recombination continuum, radiation of hot condensed particles and electrode ends, scattered light in the spectrometer, overlapping of the analytical line by the wings of the neighbor strong spectral lines of interfering elements, imposition of the components of molecular bands with the very close lines) and narrow-band (partial or complete overlapping of the analytical line with atomic or ionic lines of the sample elements, electrodes and discharge atmosphere; superposition of spectra from higher orders of reflection in conventional diffraction spectrometers and from neighboring orders in two-dimensional echelle spectrometers). The features of their manifestation in various sources of spectrum excitation (flames, DC arc, spark discharges, arc plasma discharges, inductively coupled plasma, microwave plasma, low-pressure electric discharges, laser spark) are considered. The possibilities of reducing the level of spectral interferences or elimination of the spectral noise at the stage of design and manufacturing of AESA devices, as well as upon selecting and adjusting of operation conditions of the analysis are shown. Much attention is paid to the most easily implemented in practice off-peak correction of wide-range spectral interferences. The modern methods of background correction under the spectral peak (under-peak) using a software for atomic emission spectrometers and providing creation of various mathematical models of the background signal in the vicinity of the analytical line at the stage of developing a specific AESA technique are considered. The issues of the choice of spectral lines for analytical measurements, tables and atlases of spectral lines, electronic databases used for this purpose are considered in detail. Specific features of application of the method of inter-element correction with direct spectral overlapping of the lines are given. The operating sequence for taking into account spectral interferences when developing the analysis techniques is proposed.


Geophysics ◽  
1982 ◽  
Vol 47 (12) ◽  
pp. 1731-1736 ◽  
Author(s):  
R. P. Kane ◽  
N. B. Trivedi

Spectral analysis is a very useful technique for studying geophysical problems. In earlier days, the only methods available were those of Fourier analysis or the method of Blackman and Tukey (1959) based on autocorrelation function. Recently, Burg (1967, 1968) introduced maximum entropy spectral analysis (MESA) which gives good resolution even for periods comparable to the data length. Ulrych and Bishop (1975) gave a critical appraisal of Burg’s algorithm. Several workers noticed and reported some inherent shortcomings. Thus, Chen and Stegan (1974) showed that, for truncated sinusoids, the spectral maxima showed frequency shifts sometimes as large as 20 percent, depending upon the initial phase and the length of the sample. Also, under certain conditions, the Burg spectra display line‐splitting in the presence of low noise, and as the noise is increased, the multiple peaks coalesce into a single peak shifted substantially away from the correct value (Fougere et al, 1976; Fougere, 1977). These defects can be rectified by the elaborate computer program given by Fougere (1977). Another difficulty is in selection of the appropriate length of the prediction error filter (LPEF). Whereas low LPEF is generally inadequate to resolve all the peaks, high LPEF, while resolving all peaks, produces instability in the spectra and gives spurious peaks. For determining the optimum LPEF, Ulrych and Bishop (1975) suggested the use of the Akaike’s (1969) final prediction error (FPE) criterion. And if this failed, an LPEF of about 50 percent of the data length was suggested to be generally adequate. Gutowski et al (1978) suggested the use of partial correlation coefficient. Berryman (1978) suggested an empirical solution [Formula: see text] where N = number of data points. Our experience (Kane 1977, 1979) indicated that for samples containing peaks in a wide range of frequency LPEF of about 50 percent of data length was adequate to resolve frequencies exceeding the fifth harmonic, while for lower harmonics, LPEF even as high as 90 percent was sometimes needed, with the danger of peak‐splitting ever present.


2021 ◽  
pp. medhum-2020-012127
Author(s):  
Neepa Thacker ◽  
Jennifer Wallis ◽  
Jo Winning

Numerous medical schools have been updating and modernising their undergraduate curricula in response to the changing health needs of today’s society and the updated General Medical Council competencies required for qualification. The humanities are sometimes seen as a way of addressing both of these requirements. Medical humanities advocates would argue that the humanities have a vital role to play in undergraduate medical education, allowing students to develop the critical tools required by the 21st-century clinician to deliver the best person-centred care. While we endorse this view, we contend that such training must be taught authentically to have maximal impact. This article arises from a collaboration between Imperial College London and Birkbeck, University of London, which aimed to embed the humanities into Imperial’s undergraduate medical curriculum. Here, we use a teaching session on graphic medicine and narrative as a case study to illustrate how the humanities can be a powerful tool for students to explore professional clinical complexity and uncertainty when taught in a transdisciplinary way. In this session, uncertainty operated on several different levels: the introduction of unfamiliar concepts, materials, and methods to students, transdisciplinary approaches to teaching, and the complexities of real-life clinical practice. Further, we argue that to manage uncertainty, medical students must cross from a scientific training based on positivist understandings of evidence and knowledge, to one which foregrounds multiplicity, nuance, interpretive critical thinking, and which understands knowledge as contingent and contextually produced. In facilitating such learning, it is crucial that the teaching team includes experts from both medical and humanities fields to scaffold student learning in an intellectually dynamic way, drawing on their disciplinary knowledge and wide range of personal professional experiences.


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