Alfred Nobel: Inventor, Entrepreneur and Industrialist (1833–1896)
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1 Technological Style Is History the Effort to Comprehend Innovation
SHOT Graduate Student Workshop 2016 Paper by Lasse Blond, Aarhus University. Technological Style is History The effort to comprehend innovation across cultures and time highlights the importance of the explicating factors external to technology. It becomes relevant to nuance or differentiate the understanding of social and cultural responses to adopted technologies by recognizing that technology shapes culture, and just as importantly that culture shapes technology. By looking at a recent transfer of technology this reciprocal exchange is elaborated by considering the cultural or contextual influence in the adaptation of technology. In this connection the notion of technological style is revisited by questioning whether it pays due attention to the non-technical factors of the process? In order to compensate for the deficiencies of the technological style as a sensitizing device the concept of sociotechnical style is introduced – a concept more in tune with resent research in technology studies. The Swedish historian of technology Svante Lindqvist finds the significance of the transfer of technology (TOT)1 cannot be underestimated - it might be “even more important” than technological innovation (Lindqvist 2010: 181f). Certainly, TOT as a phenomenon appears to be intimately interlinked with innovation across cultures and times (Pacey 1990; Misa 2004) and technological change (Hughes 1983). The effort to comprehend TOT in all its complexity unquestionably seems laudable and thus preoccupying scholars from many different fields (Seely 2003). Therefore the question must be how to define TOT? The late professor emeritus at Harvard Business School Richard S. Rosenbloom outlined TOT as the “acquisition, development, and utilization of technology in a context different from that in which it originated.” (Rosenbloom 1967: 603). -
Explosives Recognition and Awareness in Court Security
10/29/2015 Explosives recognition and awareness in Court Security INTRODUCTION Course Objectives Familiarize court security personnel with explosives and their illicit uses Familiarize court security personnel with methods of prevention and detection of explosive devices in a court security setting. Familiarize court security personnel with methods of dealing with potential or actual explosive devices as first responders. 1 10/29/2015 The FBI Bomb Data Center reports that 70% of all terrorist incidents involve the use of incendiary agents and explosives. We know that there have been attacks carried out against government facilities in the U.S. including court buildings using explosives. This is why it is important for court security personnel to be familiar with explosives and their use. This course is not an “EOD”, “TACTICS”or “BOMB TECH”course. Theintentofthiscourseistoprovidebasic knowledge of the relationship between explosives and court security functions. Officers should always rely on their own training, department policy and common sense when dealing with explosives. HISTORY OF EXPLOSIVES 2 10/29/2015 Beginnings Gunpowder first appeared in China around the 1st century AD and was used for fireworks. The first evidence of use in weapons appeared in Europe around the 13th century when projectiles were propelled through tubes. The first high explosive, “fulminating gold” was first mentioned in writings by German alchemist Sebald Schwaertzer in 1585. Italian chemist Asconio Sobrero discovered nitroglycerin in 1846 but the compound was very unstable and difficult to work with. Alfred Nobel, Sweden Advances Swedish scientist Albert Nobel invents a method of stabilizing nitroglycerin in 1866 and patents dynamite in 1867. -
To Read a PDF-Chapter About Robert and Ludvig
172 robert & lu dvig obert’s intention in 1876 was to found his own firm, Robert Nobel & Co., and for that he needed Ludvig’s technical advice and continued financial support. In 1875 he travelled to St. Petersburg to discuss the further development of the businessR with his brother, to whom he had earlier sent detailed calculations of the costs of constructing oil reservoirs, water pipes and more besides for a total sum of 50,000 roubles. Robert was not counting on any profit for 1875 but already the following year the firm should be “a considerable business”, in the course of a few years becoming “one of the most splendid in the country.” It was the third time that Robert had travelled to the capital to brief Ludvig and to discuss the future with him. One reason why he decided to make the arduous journey was the slow postal service. During the summer half of the year it took two weeks for a letter to arrive, during the winter, six. As the letters moreover often crossed each other, exchange of views as well as decision-making was rendered more difficult. Since during the summer months “only 6 ideas can be exchanged and during the remaining 6 winter months only 3, making a total of 9 for the year” Robert was some- times forced to act without asking Ludvig for advice, which he regretted. Nine ideas a year was naturally starvation rations for individuals with the Nobel brothers’ propeller-driven intellect. That Robert, during this visit, finally succeeded in convincing Ludvig of the potential of his project emerges from a letter which Ludvig wrote to Alfred after Robert’s departure and in which he urged Alfred to join in the oil business: Robert has returned to Baku after his trip to the East coast and has found excellent naphtha at a depth of 10 fathoms on the island of Chelek. -
Creole Technologies and Global Histories: Rethinking How Things Travel in Space and Time
Creole technologies and global histories: rethinking how things travel in space and time By David Edgerton* The Uruguayan writer Eduardo Galeano once wrote: ‘la diosa tecnología no habla español’ [the Goddess Techno- logy does not speak Spanish].1 Indeed historians of techno- logy in many parts of the world are told the equivalent. Most of us, it is claimed, don’t speak technology; don’t have technology to speak of.2 As I have argued elsewhere, in order to be able to write a history of technology which is both global and historical, and which engages directly with more * Imperial College London. I am most grateful to participants at the Lisbon workshop on “The Circulation of Science and Technology: Places Travels and Landscapes” for their comments, as well as to Waqar Zaidi, anonymous referees, Tiago Saraiva, and especially to Eric Schatzberg. 1 Eduardo Galeano, Las Venas abiertas de America Latina (Buenos Aires/México, D. F.: Siglo XXI, 1978), first published 1971, p. 381. 2 This point has been made to me by many colleagues from around the world, and also by an American historian of technology, Pauline Kusiak, who noted that in Senegal, the Senegalese were astonished to find her studying ‘technology’ in their country. HoST, 2007, 1: 75-112 HoST , Vol.1, Summer 2007 than a tiny minority of white males, we need to break the unfortunate association, indeed conflation, that exists between invention and innovation on the one hand, and technology on the other. 3 In this paper, which draws on a chapter in a forthcoming book, I focus on twentieth-century horse transport in the rich world, and explore the new technologies of the poor world, and especially of its megacities.4 By looking at these cases I show the continued vitality of what is taken to be a technology of previous centuries, and demonstrate how its twentieth growth and survival cannot be understood as persistence. -
AWARDS ANNUAL MEETING St
2018 SOCIETY FOR THE HISTORY OF TECHNOLOGY AWARDS ANNUAL MEETING st. louis, missouri 11-14 october CONTENTS Society for the History of Technology. 2 2018 Prize Committees .................................................... 3 Awards .................................................................. 9 Previous winners .......................................................... 23 SOCIETY FOR THE HISTORY OF TECHNOLOGY President John Krige Georgia Institute of Technology Vice President Tom Misa University of Minnesota Secretary Jan Korsten Foundation for the History of Technology Treasurer Richard Hirsh Virginia Tech Editor-in-Chief Suzanne Moon University of Oklahoma 2 SHOT Awards 2018 2018 PRIZE COMMITTEES NASA Fellowship The NASA Fellowship in the History of Space Technology, offered by SHOT and supported by the National Aeronautics and Space Administration (NASA) History Division, funds either a predoctoral or postdoctoral fellow for up to one academic year to undertake a research project related to the history of space technology. The fellowship supports advanced research related to all aspects of space history, leading to publications on the history of space technology broadly considered, including cultural and intellectual history, institutional history, economic history, history of law and public policy, and history of engineering and management. In 2017 SHOT, the History of Science Society (HSS), and the American Historical Association (AHA) brought their NASA Fellowship Committees together. Each society continues to award a NASA Fellowship, but a committee consisting of one member from each organization will determine the winners of the three fellowships. Angelina Callahan, Naval Research Laboratory – committee member on behalf of SHOT Kranzberg Dissertation Fellowship This award is in memory of the co-founder of the Society, and honors Melvin Kranzberg’s many contributions to developing the history of technology as a field of scholarly endeavor and SHOT as a professional organization. -
Host Vol1 David Edgerton
King’s Research Portal Document Version Publisher's PDF, also known as Version of record Link to publication record in King's Research Portal Citation for published version (APA): Edgerton, D. E. H. (2007). Creole technologies and global histories: rethinking how things travel in space and time. History of Science and Technology Journal, 1(1), 75-112. Citing this paper Please note that where the full-text provided on King's Research Portal is the Author Accepted Manuscript or Post-Print version this may differ from the final Published version. If citing, it is advised that you check and use the publisher's definitive version for pagination, volume/issue, and date of publication details. And where the final published version is provided on the Research Portal, if citing you are again advised to check the publisher's website for any subsequent corrections. General rights Copyright and moral rights for the publications made accessible in the Research Portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognize and abide by the legal requirements associated with these rights. •Users may download and print one copy of any publication from the Research Portal for the purpose of private study or research. •You may not further distribute the material or use it for any profit-making activity or commercial gain •You may freely distribute the URL identifying the publication in the Research Portal Take down policy If you believe that this document breaches copyright please contact [email protected] providing details, and we will remove access to the work immediately and investigate your claim. -
Spearheading Innovations
4/2007 on Highlight on China Taxes The Nobel Prizes legalities Spearheading innovations Photo: Kadi Asmer Thinking outside the box MAQS is an independent full service law firm. We have the competence you need – within all disciplines of law – with a total of 220 employees in Sweden, Denmark, Estonia and Poland. Our aim is clear and simple. To be the best at finding the solutions that help strengthen our client’s busi- ness. Even if it means challenging the conventions of how a law firm should act. Interested? Just think outside the box and contact us! Challenging the laws of c o n ve n ti o n COPENHAGEN GOTHENBURG MALMOE STOCKHOLM TALLINN WARSAW www.maqs.com Photo: Kadi Asmer Estonian politicians are welcoming these fi gures but here I must say that I disagree strongly. This is very risky, because businesses are closing down and are moving to other Anders Hedman locations. The big question is, if the country will be able to Chairman implement the changes increased productivity requires? SCCE Are the people ready for the changes? I have my doubts. During the last 15 years people have really worked hard to make a change and they have done a remarkable job. Congratulations to the Estonian people! However I can now see a change in trend which is not so Dear Reader, promising. People I meet are now already looking for more free time and they are not so dedicated to work as before. I am writing this editorial after seeing the last part of the Increased productivity requires more job for less people Estonian “Dancing with stars”, where our Ambassador Dag and I think this is going to be diffi cult because people feel Hartelius actually made a very good result, staying in the that the job is done, now its time to relax! This is very competition for so long as he did. -
The Nobel Foundation Annual Review 2019
ANNUAL REVIEW THE NOBEL FOUNDATION • 2019 ANNUAL REVIEW 2019 · THE NOBEL FOUNDATION 1 Cover photo: Previous Nobel Prizes appeared on billboards in Stockholm with the message “Celebrate and understand this year’s Nobel Prizes” during the Nobel Calling Stockholm events in October 2019. On this billboard, right outside Arlanda Airport, the twice Nobel Peace Prize awarded UNHCR is displayed. PHOTO: ALEXANDER MAHMOUD 2 ANNUAL REVIEW 2019 · THE NOBEL FOUNDATION uring the spring of 2020 we Korea, Brazil and Hong Kong. We have are in the midst of a terrible been forced to postpone all of them, crisis. At this writing, it is and instead we are now using our social still impossible to say what media channels to connect with our the consequen c es of the audience around the world. In light Dspreading corona virus might be for our of the current crisis, it is particularly societies and our economies. A pandemic encouraging that we have been able this knows no borders. It strikes us both as year to restart the Nobel Center project. individuals and as a species. The Slussen site in downtown Stockholm The importance of independent is the location chosen for the public research and science is clear. Scientists cultural and science centre we intend were able to quickly map the genetic to build. sequence of the new coronavirus and Lars Heikensten has been Executive have begun working to develop a vaccine. t has truly been a privilege for me to Director of the Nobel Foundation Scientifc analyses and calculations are be able to work with the Nobel Prize since 2011. -
Types of Propellant
Solid propellant In ballistics and pyrotechnics, a propellant is a generic name for chemicals used for propelling projectiles from guns and other firearms. Propellants are usually made from low explosive materials, but may include high explosive chemical ingredients that are diluted and burned in a controlled way (deflagration) rather than detonation. The controlled burning of the propellant composition usually produces thrust by gas pressure and can accelerate a projectile, rocket, or other vehicle. In this sense, common or well known propellants include, for firearms, artillery and solid propellant rockets: Gun propellants, such as: Gunpowder (black powder) Nitrocellulose-based powders Cordite Ballistite Smokeless powders Composite propellants made from a solid oxidizer such as ammonium perchlorate or ammonium nitrate, a rubber such as HTPB, or PBAN (may be replaced by energetic polymers such as polyglycidyl nitrate or polyvinyl nitrate for extra energy) , optional high explosive fuels (again, for extra energy) such as RDX or nitroglycerin, and usually a powdered metal fuel such as aluminum. Some amateur propellants use potassium nitrate, combined with sugar, epoxy, or other fuels / binder compounds. Potassium perchlorate has been used as an oxidizer, paired with asphalt, epoxy, and other binders. Propellants that explode in operation are of little practical use currently, although there have been experiments with Pulse Detonation Engines. Grain Propellants are used in forms called grains. A grain is any individual particle of propellant regardless of the size or shape. The shape and size of a propellant grain determines the burn time, amount of gas and rate produced from the burning propellant and consequently thrust vs time profile. -
Alfred Nobel and His Prizes: from Dynamite to DNA
Open Access Rambam Maimonides Medical Journal NOBEL PRIZE RETROSPECTIVE AFTER 115 YEARS Alfred Nobel and His Prizes: From Dynamite to DNA Marshall A. Lichtman, M.D.* Department of Medicine and the James P. Wilmot Cancer Institute, University of Rochester Medical Center, Rochester, NY, USA ABSTRACT Alfred Nobel was one of the most successful chemists, inventors, entrepreneurs, and businessmen of the late nineteenth century. In a decision later in life, he rewrote his will to leave virtually all his fortune to establish prizes for persons of any nationality who made the most compelling achievement for the benefit of mankind in the fields of chemistry, physics, physiology or medicine, literature, and peace among nations. The prizes were first awarded in 1901, five years after his death. In considering his choice of prizes, it may be pertinent that he used the principles of chemistry and physics in his inventions and he had a lifelong devotion to science, he suffered and died from severe coronary and cerebral atherosclerosis, and he was a bibliophile, an author, and mingled with the literati of Paris. His interest in harmony among nations may have derived from the effects of the applications of his inventions in warfare (“merchant of death”) and his friendship with a leader in the movement to bring peace to nations of Europe. After some controversy, including Nobel’s citizenship, the mechanisms to choose the laureates and make four of the awards were developed by a foundation established in Stockholm; the choice of the laureate for promoting harmony among nations was assigned to the Norwegian Storting, another controversy. -
Propellant Components Gun Propulsion Cartridge Actuated Devices Propellant Actuated Devices Rockets and Missile Systems Explosives and Warheads
Propellant Components Gun Propulsion Cartridge Actuated Devices Propellant Actuated Devices Rockets and Missile Systems Explosives and Warheads PROPELLANT COMPONENTS The major ingredients of modern military propellants are actually few. They consist of fuels, oxidizers and binders (polymers), and are fairly basic in their chemical nature and structure. The minor ingredients, used to assist or tie together the major ingredients, are more numerous and sometimes more complex. The interactions of these major and minor ingredients, when combined into a practical solid propellant, are especially complex. These interactions can take place at all stages of manufacture, storage, and use. Controlling such interactions makes solid-propellant technology difficult, expensive and, therefore, important to understand. The ingredients themselves represent output of the conventional chemical and explosive industries (although a few, like nitroglycerin, are produced locally); however, the combination of these ingredients into a propellant is still thought of by some as a "black art." Making it into a science is what has justified the expenditure of so many millions of dollars over the past 50 years. We will review briefly the development of modern propellants, touch on the basic ingredients that are used in the manufacture of propellants, and then describe the various types of propellants and their comparative properties. BACKGROUND OF PROPELLANT DEVELOPMENT The history of truly efficient military propellants is a fairly short one in this country, dating from 1900 for guns and from 1942 for rockets. However, the chemistry of propellant ingredients, has a long history. For example, the use of black powder dates back more than 700 years in Europe and probably 1000 years in the Orient. -
Alfred Nobel
Alfred Nobel In 1888 the Paris press reported Nobel’s death with the headline: “Le marchand de la mort est mort” (the merchant of death is dead). Actually, they had confused Alfred’s brother’s death with Alfred’s, but it was nevertheless a statement about Alfred Nobel. Implicitly, it reflected the facts that: He was an important international figure, living in Paris; He had made a great fortune in the arms business; He was not popular in France (because of his smokeless powder business), and in fact he had few friends and many enemies and competitors. Victor Hugo characterized him as “the wealthiest vagabond in Europe.” He was a multifaceted individual: an inventor (trained in chemistry, he had 355 patents in explosives and synthetic materials), an intellectual (fluent in 5 languages, he wrote novels, poetry, drama, and volumes of letters in Swedish, Russian, German, English, and French), an idealist (he supported the peace movement), a truly international figure ... and a hermit. Born in Stockholm, Sweden, 1833, his father Immanuel Nobel was an engineer and businessman in the construction industry, and he experimented with and used explosives in construction. Alfred Nobel was actually descended from a long line of inventors, beginning (at least) with Olof Rudbeck, the best-known technical genius of 17th-century Sweden's "golden age." He had three brothers who survived to adulthood, and his mother, to whom he was very close. In 1833, the year he was born, Nobel’s father went bankrupt. Shortly thereafter, he moved to Russia and became prosperous in the Russian arms business owing to international tensions with England that culminated, eventually, in the Crimean War.