The London Institution, established in the City of London in 1807, was devoted, as its full title proclaimed, to the 'advancement of Literature and the Diffusion of Useful Knowledge'. With its extensive lecture programme, splendid reference library, reading rooms, laboratory and other amenities, it provided for its members a scientific and cultural centre, modelled on the highly successful and fashionable Royal Institution in London's West End. Among its scientific activities, chemistry long maintained a leading role, in terms of both the (...) sheer volume and variety of its presentations, and the high standing of its lecturers; they included Faraday, Playfair, Hofmann, Roscoe, Odling, Norman Lockyer, Meldola, and Sir William Ramsay, as well as other visiting lecturers, specially selected for their ability to present their subject in an interesting and attractive fashion to a wider lay public. The laboratory of the Institution, although limited in size and facilities, was the scene of instruction in practical chemistry, and between 1863 and 1884 attained the reputation of a significant centre of chemical research during the successive tenure of the professorship in chemistry by J. A. Wanklyn and H. E. Armstrong. Their publications, appearing under the device 'From the Laboratory of the London Institution', were a frequent feature of the leading chemical periodicals. Thus, within its many-sided activities, the Institution promoted significantly the public appreciation of the function of chemistry, as a contributor both to pure knowledge, and to technical and economic progress. It achieved this in an environment of influential City merchants, manufacturers and financiers and doubtless led to beneficient, if unrecorded, consequences. It was only towards the close of the nineteenth century, when the universities had become increasingly concerned with the systematic study of the discipline, that chemistry lost its direct impact in the London Institution, but continued to maintain a presence within its cultural framework. (shrink)

The Surrey Institution, Blackfriars, founded in 1808, was, after the Royal Institution and London Institution, the third establishment in London aimed at fostering and disseminating scientific, technical, and literary knowledge and understanding among a wider public. The Institution offered its proprietors and subscribers the use of an extensive reference library and reading rooms and, most importantly, the opportunity to attend courses of lectures on scientific, technological, and other subjects. Though popular in approach, the lectures conformed to high educational standards and (...) were delivered by recognized authorities in their fields. In the Surrey Institution's celebrated auditorium, the 'Rotunda', there appeared over the years such notable scientists as Accum, Thomson, and Gurney on chemistry, Millington, Mason Good, and Woodward on natural philosophy, Bakewell on geology, and Shaw on natural history; literature was brilliantlyrepresented by Coleridge and Hazlitt. During its relatively brief life-span -cut short by financial stringencies-the Surrey Institution provided access to scientific knowledge and thinking to a wide and appreciative audience. As a meeting place fo scientists and men of business with mercantile and manufacturing interests, it performed an important function in cross-fertilizing and reinforcing ideas on innovation and enterprise against the background of the ongoing Industrial Revolution. The present article attempts to supply a historical account, so far lacking, of the foundation, activities and achievements of this significant Institution of the metropolis. (shrink)

Summary Samuel Parkes, an early nineteenth century chemist, combined in his remarkable career the role of chemical manufacturer, author, and man of affairs. His Chemical Catechism, which appeared between 1806 and 1825 in twelve successive editions, attracted large numbers of students to the pursuit of chemical sciences by its lively and attractive-yet-rigorous presentation. His important Chemical Essays contributed significantly to the progress of chemical technology. Both works exerted wide influence by their publication in several editions in America and, in translation, (...) in France, Germany, and Italy. Parkes was the principal chemical witness before Parliamentary Committees of Inquiry, and was one of the chief movers in the long and eventually successful campaign aimed at abolishing the oppressive Salt Duties which had exerted a very harmful effect on the national economy. In company with eminent chemists of the day, he gave evidence in important civil trials. Parkes' enthusiastic championship of chemistry at all levels, and his colourful personality, made him an outstanding figure on the contemporary scientific scene. (shrink)

Edward Charles Howard, a notable chemist of the early nineteenth century, was a descendant of the patrician House that has for generations held the premier Dukedom of Norfolk, and the office of Earl Marshal of England. When, as a younger son, he took up an independent profession, his inclination decided him on a career in science. In his relatively brief career - he died at the early age of 42-Howard made original discoveries in three widely different fields of chemical research, (...) each of which proved of lasting influence. In 1800, he discovered the highly explosive fulminates, an achievement that gained him the coveted Copley Medal of the Royal Society. He next demonstrated the characteristic nickel contentof meteorites, thus helping to establish their - so far controversial - cosmic origin. Over the next few years he effected a veritable revolution in sugar manufacturing by his invention of the vacuum evaporation technique and other fundamental improvements. Howard's seminal researches blazed a trail that was taken up to great effect by subsequent researchers and contributed significantly to the rise of the modern explosives industry and sugar manufacture. His outstanding record entitles him to an enduring place in the history of chemical science and technology. (shrink)

In a long and many-sided career, William Hasledine Pepys contributed significantly to the advancement of the chemical and physical sciences during the first half of the nineteenth century. As an original investigator he determined, in collaboration with William Allen, the composition of carbon dioxide, and the density of ammonia, and elucidated the chemical phenomena of respiration in man, animals, and plants. The success of these researches was largely due to the use of ingenious apparatus of his own invention and design. (...) In the field of experimental physics, he investigated several aspects of the recently discovered Voltaic electricity: his 'Voltaic coil', consisting of only two plates, but of very large dimensions, was particularly suited for investigating electromagnetic phenomena and was so used in Davy's researches. Pepys was one of the co-founders of the Mineralogical and Geological Societies, and was elected a Fellow of the Royal Society in 1808. As a prominent member of both the Royal and London Institutions, he held honorary office as Manager and Vice-President, contributing materially to the direction of the affairs of these bodies. Pepys was a friend of Humphry Davy and was acquainted with nearly all the leading scientists and medical men of the day. At the same time, he superintended a notable manufacture of surgical instruments in the City, and promoted by his active directorship the affairs of two public companies, both pioneers in their technological fields, namely the Imperial Continental Gas Association, which was active in introducing the new gas illumination to cities and towns across Europe, and the General Steam Navigation Company, which first maintained a regular passenger and cargo service to Continental ports by the exclusive use of steam-propelled vessels. Pepys' advice in scientific and technical matters was widely sought and freely given; he retained his mental powers to the end of his long life, fulfilling his professional commitments until a few days before his death. (shrink)