scholarly journals Graham Wood. 6 February 1934—4 November 2016

Author(s):  
Stuart Lyon

Graham Wood was a world-leading corrosion scientist who bridged both the aqueous (electrochemical) corrosion and high-temperature oxidation branches of the subject. His analytical predictions of depletion and enrichment profiles in substrate and scale during preferential oxidation have long been confirmed in practice. He also demonstrated that transient oxides can be vital solid lubricants in oxidative friction and wear processes. He elucidated ionic transport in amorphous anodic films, leading to precise models of pore initiation, development and closure, thus allowing the strict design of anodic films for practical application. He set up, and headed, the Corrosion and Protection Centre at the University of Manchester Institute of Science and Technology (UMIST) and was instrumental in initiating the Corrosion and Protection Centre Industrial Service, which, respectively, became the world's largest academic centre on the study of materials degradation and the world's largest corrosion consulting organization. While keeping active in research, he held increasingly senior administrative roles, where he established a specialist graduate school and helped prepare UMIST to full independence from the Victoria University of Manchester.

2007 ◽  
Vol 49 (3) ◽  
pp. 589-595
Author(s):  
Ian Anderson

Daniel Martin B.Sc., M.A., Ph.D., F.R.S.E. was born in Carluke on 16 April 1915, the only child of William and Rose Martin (née Macpherson). The family home in which he was born, Cygnetbank in Clyde Street, had been remodelled and extended by his father, and it was to be Dan's home all his life. His father, who was a carpenter and joiner, had a business based in School Lane, but died as a result of a tragic accident when Dan was only six. Thereafter Dan was brought up single handedly by his mother.After attending primary school in Carluke from 1920 to 1927, Dan entered the High School of Glasgow. It was during his third year there that he started studying calculus on his own. He became so enthused by the subject that he set his sights on a career teaching mathematics, at university if at all possible. On leaving school in 1932, he embarked on the M.A. honours course in Mathematics and Natural Philosophy at the University of Glasgow. At that time the Mathematics Department was under the leadership of Professor Thomas MacRobert; the honours course in Mathematics consisted mainly of geometry, calculus and analysis, and the combined honours M.A. with Natural Philosophy was the standard course for mathematicians. A highlight of his first session at university was attending a lecture on the origins of the general theory of relativity, given on 20th June 1933 by Albert Einstein. This was the first of a series of occasional lectures on the history of mathematics funded by the George A. Gibson Foundation which had been set up inmemory of the previous head of the Mathematics Department. From then on, relativity was to be one of Dan's great interests, lasting a lifetime; indeed, on holiday in Iona the year before he died, Dan's choice of holiday reading included three of Einstein's papers.


2019 ◽  
pp. 096777201986694
Author(s):  
Peter D Mohr

John Hatton, LSA MRCS FRCS MD (1817–1871), was apprenticed from 1833 to Joseph Jordan, MRCS FRCS (1787–1873), a well-known Manchester surgeon. Jordan, who had been teaching anatomy since 1814, closed his Mount Street Medical School in 1834 and was elected as surgeon to the Manchester Royal Infirmary in 1835. He continued to lecture on surgery and surgical pathology at the Infirmary, and sometimes at the Pine Street Medical School run by Thomas Turner, LSA FRCS (1793–1873). During 1837–38 Hatton transcribed and illustrated these lectures in a bound manuscript and also added notes and drawings in his personal copy of The Dublin Dissector. He gained his Licentiate of the Society of Apothecaries (LSA) in 1836 and Membership of the Royal College of Surgeons (MRCS) in 1839 and set up in Manchester as surgeon from around 1840. This paper is based on three previously unrelated documents in the University of Manchester Archives: a handwritten catalogue of specimens in Jordan’s Anatomy Museum, Hatton’s annotated copy of The Dublin Dissector and his manuscript record of Jordan’s lectures. These documents provide a valuable insight into medical education during the 1830s.


1955 ◽  
Vol 1 ◽  
pp. 174-184 ◽  

John Lennard-Jones was born on 27 October 1894 in Leigh, Lancashire and was educated at Leigh Grammar School, where he specialized in classics. In 1912 he entered Manchester University, changed his subject to mathematics in which he took an honours degree and then an M.Sc. under Professor Lamb, carrying out some research on the theory of sound. In 1915 he joined the Royal Flying Corps, obtained his Wings in 1917 and saw service in France; he also took part in some investigations on aerodynamics with Messrs Boulton and Paul and at the National Physical Laboratory. In 1919 he returned to the University of Manchester as lecturer in mathematics, took the degree of D.Sc. of that university and continued to work on vibrations in gases, becoming more and more interested in the gas-kinetic aspects of the subject as his paper of 1922 in the Philosophical Transactions of the Royal Society shows. In 1922, on the advice of Professor Sydney Chapman, he applied for and was elected to a Senior 1851 Exhibition to enable him to work in Cambridge, where he became a research student at Trinity College and was awarded the degree of Ph.D. in 1924. At Cambridge under the influence of R. H. Fowler he became more and more interested in the forces between atoms and molecules and in the possibility of deducing them from the behaviour of gases.


THE subject of chemistry was first introduced to Oxford by Robert Boyle, a founder member of the Royal Society, during his residence in the City for a dozen or more years from 1654. In 1659 he brought Peter Sthael of Strasburgh to give lectures and instruction which were attended by senior and junior members of the University. Robert Plot (F.R.S. 1677), was appointed in 1683 to a chair of chemistry and given charge of the (Old) Ashmolean, then just constructed, in the basement of which was a chemical laboratory containing furnaces similar to those of Boyle. Throughout the eighteenth century, however, chemistry shared with other Oxford studies the low academic standards of the period. Interest increased in the early eighteen hundreds, and by the middle of the century, through the influence of a small group headed by Henry Acland (F.R.S. 1847), John Ruskin and Charles Daubeny (F.R.S. 1822) the University was persuaded to accept science as a respectable subject. Acland’s aim was to include some science in all degree courses, but specialization was preferred. An Honour School of Natural Science leading to the degree of B. A. was set up in 1850, and at the same time money was found for the erection of the Science Museum with attached laboratories. Daubeny, in 1848, had moved out of the Ashmolean to a laboratory he built at his own expense in the Physic Garden, and which he left at his death to Magdalen College.


Author(s):  
Jonathan Rose

When my students ask me, “What will be the next big thing in historical studies?,” I tell them to watch out for the history of public relations. The University of Bournemouth in the UK has a fairly new center devoted to the subject, Baruch College in Manhattan has just set up a Museum of Public Relations, and I think that’s just the beginning. Yes, plenty of work has been done on the history of advertising and propaganda, but PR is different: Dan Draper and Joseph Goebbels were perfectly upfront about what they were doing, but PR is a medium that commonly and deliberately disguises its own authorship. Let me state at the outset that everyone today uses publicists, and much of their work is entirely ethical. For publishers, they write up promotional material, send out review copies, arrange author interviews, and extract blurbs from reviews of their books—this one, for instance. But the main focus of this chapter is the kind of PR that surreptitiously plants stories in various media. It works only insofar as readers don’t recognize it, and therefore distrust of the media is in large measure a function of reader recognition of PR. The standard narrative holds that public relations was invented by Ivy Lee and Edward Bernays in the early twentieth century, but the basic concept of publicity can be traced back as far as Socrates’s Phaedrus, who observed that “an orator does not need to know what is really just, but what would seem just to the multitude who are to pass judgment, and not what is really good or noble, but what will seem to be so; for they say that persuasion comes from what seems to be true, not from the truth” (260a). One of the most brilliant PR agents of the pre-newspaper era was working before Shakespeare staged his first play.


2017 ◽  
Vol 42 (3) ◽  
pp. 121-122
Author(s):  
Stella Halkyard

In 2013 a new research institute or ‘Arts Lab’ was set up at the University of Manchester. The John Rylands Research Institute (JRRI), based in the John Rylands Library, is a unique partnership between the University of Manchester (UofM) Library and the Faculty of Humanities at the university. Its aim is to establish an internationally renowned centre for research that attracts, and supports work by local, national, or international scholars on the library's special collections. By bringing together a multi-disciplinary team of library professionals, humanities scholars, students and scientists, new approaches are being developed within the JRRI to increase and improve our understanding of these collections, in all their richness and diversity. This piece will provide insights into the work of the JRRI and through a specific case study it will demonstrate how some of the works of art in the library are beginning to benefit from the research carried out under its umbrella. However, it is first necessary to explain why these collections merit such intensive investigation.


Author(s):  
Subrata Dasgupta

In august 1951, David Wheeler submitted a PhD dissertation titled Automatic Computing with the EDSAC to the faculty of mathematics (D. F. Hartley, personal communication, September 7, 2011) at the University of Cambridge. The year after, in November 1952, another of Maurice Wilkes’s students, Stanley Gill, submitted a thesis titled The Application of an Electronic Digital Computer to Problems in Mathematics and Physics. Wheeler’s was not the first doctoral degree awarded on the subject of computing. That honor must surely go to Herman Hollerith for his thesis submitted to Columbia University in 1890 on his invention of an electrical tabulating system (see Chapter 3, Section IV). Nor was Wheeler’s the first doctoral degree on a subject devoted to electronic computing. In December 1947, Tom Kilburn (codesigner with Frederic C. Williams of the Manchester Mark I [see Chapter 8, Section XIII]) had written a report on the CRT-based memory system he and Williams had developed (but called the Williams tube). This report was widely distributed in both Britain and the United States (and even found its way to Russia), and it became the basis for Kilburn’s PhD dissertation awarded in 1948 by the University of Manchester (S. H. Lavington, personal communication, August 31, 2011). Wheeler’s doctoral dissertation, however, was almost certainly the first on the subject of programming. And one might say that the award of these first doctoral degrees in the realm of computer “hardware” (in Kilburn’s case) and computer “software” (in Wheeler’s case) made the invention and design of computers and computing systems an academically respectable university discipline. As we have witnessed before in this story, establishing priority in the realm of computing is a murky business, especially at the birth of this new discipline. Thus, if by “computer science” we mean the study of computers and the phenomena surrounding computers (as three eminent computer scientists Allan Newell, Alan Perlis (1922–1990), and Herbert Simon suggested in 1967), then—assuming we agree on what “computers” are—the boundary between hardware and soft ware, between the physical computer and the activity of computing, dissolves.


Author(s):  
F. F. Evison

New Zealand’s first chair of geophysics was inaugurated at Victoria University of Wellington in 1967. This established
geophysics - the quantitative study of the earth's physical
properties and processes - as a major specialisation in the University, although research and teaching in several branches of the subject had already been in progress for many years. In the Department of Physics, geophysics has been one of the principal research interests since the mid 19501s; in the Department of Geology a lectureship in applied geophysics was set up in 1965; and in the Department of Mathematics research on geothermal systems has been carried out, and more recently another important branch of geophysics was introduced with the establishment in 1968 of a senior lectureship in meteorology. These developments reflect the broad relevance of geophysics to
 New Zealand as a country which is affected by earthquakes and volcanic activity, where a special contribution can be made to the study of global phenomena such as geomagnetism, where studies of the atmosphere and oceans are important to many aspects of life, and where economic development demands not only a persistent research for minerals but the construction of many power stations and other large structures requiring intensive site investigation.


Author(s):  
M. V. Noskov ◽  
M. V. Somova ◽  
I. M. Fedotova

The article proposes a model for forecasting the success of student’s learning. The model is a Markov process with continuous time, such as the process of “death and reproduction”. As the parameters of the process, the intensities of the processes of obtaining and assimilating information are offered, and the intensity of the process of assimilating information takes into account the attitude of the student to the subject being studied. As a result of applying the model, it is possible for each student to determine the probability of a given formation of ownership of the material being studied in the near future. Thus, in the presence of an automated information system of the university, the implementation of the model is an element of the decision support system by all participants in the educational process. The examples given in the article are the results of an experiment conducted at the Institute of Space and Information Technologies of Siberian Federal University under conditions of blended learning, that is, under conditions when classroom work is accompanied by independent work with electronic resources.


2020 ◽  
Vol 7 (2) ◽  
pp. 93-103
Author(s):  
Gretchen Slover

Background: This research was birthed in 2017 during a trip to Lusaka, Zambia, with the purpose of offering fourth-year, medical students attending the University of Zambia, School of Medicine, lectures on psychology topics as part of their clinical studies.  Students were also offered brief therapy sessions where they could process thoughts and feelings causing them internal struggles.  The subject of offering counseling on a regular basis was randomly discussed with the students.  From these discussions the need for this research became evident, with the intent of becoming the launching pad to brainstorm the most effective ways of developing a plan to offer counseling services for all medical students attending the University of Zambia School of Medicine. Methods: An-experimental research design, consisting of completion of a 12-item questionnaire administered by paper and pen. The inclusion criteria were the fourth year, medical students attending the University of Zambia, School of Medicine. Results:  The student responses revealed that most of them had little to no experience with counseling services, but a strong desire for them. Discussion: The goal of this study was to simply establish a need for an on-campus counseling service, the need of which has been established by the very students who would benefit.  With the acceptance of this need, the future plan is to explore the different ways in which this need can be fulfilled with minimal costs to the Medical School Program. Conclusion:  This study is the first step towards identifying the needs of the medical students and sets the ground-work for further research into the specific areas of need and mental health challenges.  More specificity in the area of demographics of students will produce a more comprehensive picture of the areas of concentration for the therapists offering services.


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