Academic literature on the topic 'Steam engineering Victoria History'

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Journal articles on the topic "Steam engineering Victoria History"

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Bowditch, John, and Richard L. Hills. "Power from Steam: A History of the Stationary Steam Engine." Technology and Culture 33, no. 4 (October 1992): 821. http://dx.doi.org/10.2307/3106607.

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Wimmerstedt, R. "Steam Drying — History and Future." Drying Technology 13, no. 5-7 (January 1995): 1059–76. http://dx.doi.org/10.1080/07373939508917009.

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Stueland, Samuel. "The Otis Steam Excavator." Technology and Culture 35, no. 3 (July 1994): 571. http://dx.doi.org/10.2307/3106259.

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Gamst, Frederick C. "Rail, Steam, and Speed: The "Rocket" and the Birth of Steam Locomotion (review)." Technology and Culture 46, no. 3 (2005): 666–68. http://dx.doi.org/10.1353/tech.2005.0123.

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Kim, Seung Hyun, Yoon-Suk Chang, Sungchu Song, and Taesuk Hwang. "Evaluation of Pressure History due to Steam Explosion." Transactions of the Korean Society of Mechanical Engineers A 38, no. 4 (April 1, 2014): 355–61. http://dx.doi.org/10.3795/ksme-a.2014.38.4.355.

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Evelyn, Douglas E., and John Physick. "The Victoria and Albert Museum: The History of Its Building." Technology and Culture 27, no. 3 (July 1986): 627. http://dx.doi.org/10.2307/3105406.

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OGINO, Ryohei, and Yoshifumi IWASAKI. "History of Steam Turbine Technology for Power Generation." Journal of The Institute of Electrical Engineers of Japan 132, no. 12 (2012): 836–39. http://dx.doi.org/10.1541/ieejjournal.132.836.

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Schramm, Jeff. "Perfecting the American Steam Locomotive (review)." Technology and Culture 46, no. 1 (2005): 209–11. http://dx.doi.org/10.1353/tech.2005.0041.

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Varrasi, John. "The True Harnessing of Steam." Mechanical Engineering 127, no. 01 (January 1, 2005): 46–48. http://dx.doi.org/10.1115/1.2005-jan-6.

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This article discusses that although it remains the worst maritime disaster in the US history, the Sultana explosion was not an isolated incident in the United States. Boiler explosions occurred with alarming frequency, not only on board steamboats, but also in factories, mines, sawmill, and woodworking shops. Legend has it that the group came together expressly to address the problem of unsafe boilers, but the initial objectives of ASME were modest. The founders were seeking a reliable system for technical information exchange as well as a social setting. The publication of the first ASME Boiler Code in 1914 was a symbolic moment in the history of the Society, an event that would help define the organization and contribute to its stature and importance in the mechanical engineering community for decades to follow. Ninety years later, the Society today has approximately 3400 active volunteers working on committees that combine to issue more than 600 standards. The standards detail the proper dimensions of a wide range of manufactured objects, from pressure vessels and piping to screw threads. However varied they are, they serve a single purpose: to make sure that all the pieces fit and hold together safely, even under pressure.
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Corn, Joseph J., and David Weitzman. "Superpower: The Making of a Steam Locomotive." Technology and Culture 29, no. 4 (October 1988): 917. http://dx.doi.org/10.2307/3105054.

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Books on the topic "Steam engineering Victoria History"

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The power of steam: An illustrated history of the world's steam age. London: Sheldrake, 1990.

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Groome, Clive. The little book of steam. Swindon: Green Umbrella, 2007.

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Soler, Conxa Bayó i. Les màquines de vapor a Catalunya. Barcelona: Rafael Dalmau, 2012.

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The golden age of steam. New York: Todtri, 1996.

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A brief history of the age of steam: The power that drove the Industrial Revolution. London: Robinson, 2007.

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American locomotives: An engineering history, 1830-1880. Baltimore: Johns Hopkins University Press, 1997.

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Jornades d'Arqueologia Industrial a Catalunya (3rd 1994 Sabadell, Spain). El vapor i els "vapors": Actes de les III Jornades d'Arqueologia Industrial de Catalunya, Sabadell, 17, 18 i 19 de novembre de 1994. [Barcelona, Spain?]: Enginyers Industrials de Catalunya, Associació, 1996.

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Brisou, Dominique. Accueil, introduction et développement de l'énergie vapeur dans la marine militaire française au XIXe siècle. Vincennes: Service historique de la marine, 2001.

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Moorhouse, Robert. The illustrated history of tractors: From pioneering steam power to today's engineering marvels. London: Quantum Books, 2007.

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International Early Railways Conference (2nd 2001 Manchester, England). Early Railways 2: Papers from the 2nd International Early Railways Conference. Bury St Edmunds: Newcomen Society, 2003.

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Book chapters on the topic "Steam engineering Victoria History"

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"Mechanical Engineering History." In Full Steam Ahead, 13–99. Purdue University Press, 2013. http://dx.doi.org/10.2307/j.ctv15wxnwz.4.

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Garrison, Ervan. "The Advent of Steam and Mechanical Engineering." In A History of Engineering and Technology Artful Methods, 161–200. Routledge, 2018. http://dx.doi.org/10.1201/9780203751749-10.

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Keats, Jonathon. "Gene Foundry." In Virtual Words. Oxford University Press, 2010. http://dx.doi.org/10.1093/oso/9780195398540.003.0013.

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As the nineteenth century was the age of iron and the twentieth belonged to silicon, the present century will be identified with carbon. CO2 is the iconic greenhouse gas, imprinted on our vocabulary with talk of carbon footprints and allowances and offsets. For synthetic biologists, however, the carbon debacle has counterintuitively positioned this debased element as our savior. The future they foresee will supplant grimy factories of concrete and steel with clean colonies of living cells. To use the terminology of Freeman Dyson, gray technology will be replaced by green. Among the most celebrated physicists of the twentieth century, Dyson has become one of the foremost promoters of synthetic biology, a field that technologically is to genetic engineering what genetic engineering is to crop cultivation. Conceptually the distinction is even more radical than that: whereas genetic engineering merely modifies preexisting creatures more precisely than selective breeding, synthetic biology aims to fabricate entirely new organisms from nonliving materials. Unconstrained by genetic history, these artificial life forms can be intelligently designed to produce fuels or pharmaceuticals with unprecedented efficiency. The sheer audacity of synthetic biology lends itself to hyperbole, aptly captured in a 2007 Nature editorial: “For the first time, God has competition.” Yet the language of synthetic biology, also known as bioengineering, hardly bespeaks a cosmic paradigm shift. DNA constructed at a so-called gene foundry gives specialized function to a generic cell referred to as a chassis. A Victorian industrialist would have no trouble following the metaphoric language. He might even find work as a bioengineering consultant: the quaint iron age phrasing reflects the old-fashioned framework underlying this brave new discipline. After all, radical as artificial life may be philosophically—and significant as it may be environmentally—it’s technically just a strenuous construction project, with manufacturing challenges akin to building a bridge or a steam engine. That may explain why one of the most successful synthetic biologists working today, the Stanford University professor Drew Endy, trained as a civil engineer. Together with colleagues at the Massachusetts Institute of Technology, Endy has methodically approached synthetic biology as a problem of developing reliable building blocks and assembly protocols.
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Fehring, Thomas H., and Terry S. Reynolds. "Energy Production and Conversion." In Chronicles of Mechanical Engineering in the United States, 201–50. ASME, 2021. http://dx.doi.org/10.1115/1.356056_ch6.

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In many ways, energy production and its conversion from one form to another is the heart of mechanical engineering. The history of energy is vast, beginning with efforts to make the energy produced by human muscle more effective through the use of lubricants or the application of the so-called six simple machines in pre-history. By the end of Classical antiquity, inventors and engineers had harnessed the power of wind to move ships and water to grind flour. In the eighteenth century the first practical heat engines opened the era of fossil fuels, utilizing the expansive power of steam to convert thermal energy to mechanical energy.
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Ceryan, Sener. "Weathering Indices Used in Evaluation of the Weathering State of Rock Material." In Advances in Civil and Industrial Engineering, 132–86. IGI Global, 2018. http://dx.doi.org/10.4018/978-1-5225-2709-1.ch004.

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There are various definition of weathering and differences between authors seem to steam in part from the different viewpoints of pedolog, geomorpholog, geolog, geochemists and geology engineer. In this study, weathering is handled from various aspects such as time, form and phases of progress, studies it is majored and research scale. The engineering behavior of rock materials depends not only on stress state and stress history but also on the physical, mineralogical and chemical change of the rock materials due to weathering. Weathering indices are used to define these changes due to weathering. Several weathering indices have been devised for quantifying the changes in the intrinsic properties of rocks from different points of view, some of which can be related to the engineering properties of weathered rocks. The most commonly used methods can be broadly categorized as chemical, mineralogical-petrographical, petro-chemical and engineering indices. In this study, the brief literature review for weathering indices used to evaluate of the effects for weathering of rock materials.
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Fehring, Thomas H., and Terry S. Reynolds. "Land Transportation." In Chronicles of Mechanical Engineering in the United States, 311–50. ASME, 2021. http://dx.doi.org/10.1115/1.356056_ch8.

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The engineering involved in transportation provided one of the points from which the modern mechanical engineering profession in the United States emerged. The shops that produced the steam engines for river boats and the locomotives for railroads had, by the 1840s, become a leading training ground for the first generation of professional mechanical engineers. As railroads became the primary means of long-distance transport for goods in the late nineteenth century, they also became a leading employer of mechanical engineers. Not surprisingly, the Rail Transportation Division was one of the original eight divisions created when ASME in 1920 adopted a divisional organization; it remains among that organization’s most active divisions. Unfortunately, despite the rail industry’s importance to American history and to the history of mechanical engineering, few articles dealing with the history of this form of land transportation have appeared in Mechanical Engineering magazine over the past fifty years. None were selected for this volume.
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Conference papers on the topic "Steam engineering Victoria History"

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Sarioglu, G., A. I. Khallad, and M. W. Brown. "Analysis of Hangingstone Multiwell Cyclic Steam Pilot: Three Years' Performance History." In International Meeting on Petroleum Engineering. Society of Petroleum Engineers, 1992. http://dx.doi.org/10.2118/22367-ms.

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Bayoumy, Ahmed H., and Anestis Papadopoulos. "Time History Steam Hammer Analysis for Critical Hot Lines in Thermal Power Plants." In ASME 2014 International Mechanical Engineering Congress and Exposition. American Society of Mechanical Engineers, 2014. http://dx.doi.org/10.1115/imece2014-38076.

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Pressure surges and fluid transients, such as steam and water hammer, are events that can occur unexpectedly in operating power plants causing significant damages. When these transients occur the power plant can be out of service for long time, until the root cause is found and the appropriate solution is implemented. In searching for root cause of transients, engineers must investigate in depth the fluid conditions in the pipe line and the mechanism that initiated the transients. The steam hammer normally occurs when one or more valves suddenly close or open. In a power plant, the steam hammer could be an inevitable phenomenon during turbine trip, since valves (e.g., main steam valves) must be closed very quickly to protect the turbine from further damage. When a valve suddenly stops at a very short time, the flow pressure builds up at the valve, starting to create pressure waves along the pipe runs which travel between elbows. Furthermore, these pressure waves may cause large dynamic response on the pipeline and large loads on the pipe restraints. The response and vibrations on the pipeline depend on the pressure waves amplitudes, frequencies, the natural frequencies and the dynamic characteristics of the pipeline itself. The piping flexibility or rigidity of the pipe line, determine how the pipes will respond to these waves and the magnitude of loads on the pipe supports. Consequently, the design of the piping system must consider the pipeline response to the steam hammer loads. In this paper, a design and analysis method is proposed to analyze the steam hammer in the critical hot lines due to the turbine trip using both PIPENET transient module and CAESAR II programs. The method offered in this paper aims to assist the design engineer in the power plant industry to perform dynamic analysis of the piping system considering the dynamic response of the system using the PIPENET and CAESAR II programs. Furthermore, the dynamic approach is validated with a static method by considering the appropriate dynamic load and transmissibility factors. A case study is analyzed for a typical hot reheat line in a power plant and the results of the transient analysis are validated using the theoretical static approach.
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Kouremenos, D. A., E. D. Rogdakis, and G. K. Alexis. "Optimization of Enhanced Steam-Ejector Applied to Steam Jet Refrigeration." In ASME 1998 International Mechanical Engineering Congress and Exposition. American Society of Mechanical Engineers, 1998. http://dx.doi.org/10.1115/imece1998-0821.

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Abstract Ejectors are used for a wide range of applications. Refrigeration systems have, a long established history. Ejector refrigerators working on steam or halocarbon refrigerants provide a high level of flexibility. Ejector can also be used in solar-powered refrigeration systems and absorption-refrigeration systems. There are very few comprehensive theoretical studies even though several models for ejectors in literature. A new ejector theory was developed by Munday and Bagster (1977). This theory depends on the assumption of two discrete streams, the motive stream and the secondary stream. The two streams maintain their identity down the converging duct of the diffuser. At some section the secondary flow reaches sonic velocity. The shocking and mixing occur at the very end of the converging cone resulting in a transient supersonic mixed stream. There is no supersonic deceleration and a shock takes place immediately on mixing. The mixed stream will shock to the subsonic, found by the intersection of the Fanno and Rayleigh lines. After that the stream is brought to near zero velocity in the diffuser. In the present work this theory is used as a basis, in order to develop a computerized model of ejector with particular reference to steam-ejector at various operating conditions. The results are compared with available from the literature experimental data. Also a parametric study is conducted in order to reveal the influence of the various parameters on the performance of the steam jet refrigeration.
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Carr, Matthew A. "The Impact of Steam Innovations on Ship Design: An Abbreviated History of Marine Engineering." In ASME 2003 International Mechanical Engineering Congress and Exposition. ASMEDC, 2003. http://dx.doi.org/10.1115/imece2003-43767.

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The adaptation of steam engines for marine propulsion caused a dramatic shift in naval and commericial ship design during the 19th Century. The transition from sail to steam hastened the demise of several classes of ships and altered shippings routes from the trade winds to great circle routing. The conduct of naval warfare was always influenced by the limits of available propulsion technology. Throughout maritime history, innovative naval commanders sought ways to overrun, outmaneuver, and outlast their opponents. Coincident developments in armaments and armor, facilitated by this “new” propulsion technology, rendered the world’s sailing navies largely obsolete within a relatively brief period of the 19th Century. This presentation highlights the major technological advances in steam propulsion from the early combination of low-speed single-acting reciprocating engines driving paddle wheels through high-speed turbines and reduction gears driving multiple-blade variable-pitch propellers; and, boilers heated by hand-fed wood and coal through nuclear fission.
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Zhao, Qingsen, Debing Deng, Yong Liu, Wei Chen, Jun Xiang, Sheng Su, Lushi Sun, Song Hu, and Gang Liu. "The Accurate Thermal Performance History Files of Wet Steam Turbine in Nuclear Power Plant." In 2012 IEEE PES Asia-Pacific Power and Energy Engineering Conference (APPEEC). IEEE, 2012. http://dx.doi.org/10.1109/appeec.2012.6307505.

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Raisbeck, Peter. "Reworlding the Archive: Robin Boyd, Gregory Burgess and Indigenous Knowledge in the Architectural Archive.” between Architecture and Engineering." In The 38th Annual Conference of the Society of Architectural Historians Australia and New Zealand. online: SAHANZ, 2022. http://dx.doi.org/10.55939/a3985p56dc.

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In her book Decolonising Solidarity: Dilemmas and Directions for Supporters of Indigenous Struggles, Clare Land suggest how non-Indigenous people might develop new frameworks supporting Indigenous struggles. Land argues research is deeply implicated with processes of colonisation and the appropriation of indigenous knowledge. Given that architectural archives are central to the research of architectural history, how might these archives be decolonised? This paper employs two disparate archives to develop a framework of how architectural archivists might begin to decolonise these archives. Firstly, these archives are the Grounds Romberg and Boyd Archive (GRB) at the State Library of Victoria (SLV). Secondly, the Greg Burgess Archive is now located at Avington, Sidonia in Victoria. The materials from each of these archives will be discussed in relation to two frameworks. These are the Tandanya-Adelaide Declaration endorsed by The Australian Society of Archivists (ASA) and the Indigenous Cultural and Intellectual Property (ICIP) framework developed by Janke (2019). These archival frameworks suggest how interconnected architectural histories and historiographies might be read, reframed and restored. Decolonising architectural archives will require a continuous process of reflection and political engagement with collections and archives. In pursuing these actions, archivists and architectural historians can begin to participate in the indigenous Reworlding of the archive.
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Kourtis, Spyridon, Apostolos Xenakis, Konstantinos Kalovrektis, Antonios Plageras, and Ioanna Chalvantzi. "An Exploratory Teaching Proposal of Greek History Independence Events based on STEAM Epistemology, Educational Robotics and Smart Learning Technologies." In ESSE 2021: 2021 2nd European Symposium on Software Engineering. New York, NY, USA: ACM, 2021. http://dx.doi.org/10.1145/3501774.3501792.

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Cai, Feng-chun, Xian-hui Ye, Qian Huang, and Wenzheng Zhang. "Study on Methods for HCLPF Value of Nonlinear Supports System of Steam Generator." In 2018 26th International Conference on Nuclear Engineering. American Society of Mechanical Engineers, 2018. http://dx.doi.org/10.1115/icone26-81279.

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High confidence of low probability of failure (HCLPF) values of equipment, representing the seismic capacities of the equipment, are the fundamental ingredient in seismic probability safety assessment (SPSA) and seismic margin analyses (SMA). In this paper, two methods for calculating the HCLPF values of equipment were investigated, fragility analysis, and conservative deterministic failure margin (CDFM). These methods are linear methods. Based on these methods, HCLPF value of equipment can be computed conveniently by scaling the results of the existing seismic analysis. For a nonlinear systems, the HCLPF values based on these linear scaling methods are unrealistic. For a complicated nonlinear equipment or structure, a detail nonlinear model was used to derive the seismic capacity. The results by this method are realistic, but cost calculation time. In this paper, a nonlinear model of reactor coolant system coupled reactor building was built. This model includes the steam generator and considers the nonlinear factors of steam generator such as gap in the supports, plasticity of hot leg and cold leg. Forced motion was applied to the base of reactor building. And seismic response of the steam generator was calculated iteratively by scaling the ground motion level step by step. Based on these calculations, a curve of load on the supports VS peak ground acceleration (PGA) can be obtained. Then based on these curves and allowable load of supports of steam generator, which derived from stress analysis on support of steam generator, seismic capacity of the supports of steam generator was determined. Then the HCLPF Value of the supports of steam generator was obtained by this nonlinear time history analysis and was compared with the results based on the CDFM. The two results were different. Therefore, the HCLPF seismic capacity of equipment with nonlinearity, such as gap nonlinearity, should be calculated by nonlinear time history method.
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Pennacchi, P., R. Ricci, S. Chatterton, P. Borghesani, A. Vania, G. D’Antona, C. Pensieri, and C. Rolla. "Dynamic Effects of Electrical Pitting in Steam-Turbine Tilting-Pad Thrust-Bearings." In ASME 2012 International Design Engineering Technical Conferences and Computers and Information in Engineering Conference. American Society of Mechanical Engineers, 2012. http://dx.doi.org/10.1115/detc2012-71132.

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This paper merges the analysis of a case history and the simplified theoretical model related to a rather singular phenomenon that may happen in rotating machinery. Starting from the first, a small industrial steam turbine experienced a very strange behavior during megawatt load. When the unit was approaching the maximum allowed power, the temperature of the babbitt metal of the pads of the thrust bearing showed constant increase with an unrecoverable drift. Bearing inspection showed that pad trailing edge had the typical aspect of electrical pitting. This kind of damage was not reparable and bearing pads had to replaced. This problem occurred several times in sequence and was solved only by adding further ground brushes to the shaft-line. Failure analysis indicated electrodischarge machining as the root fault. A specific model, able to take into consideration the effect of electrical pitting and loading capacity decreasing as a consequence of the damage of the babbitt metal, is proposed in the paper and shows that the phenomenon causes the irretrievable failure of the thrust bearing.
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Reid, Stephen R., and James B. Lewis. "A Resurgence of Torsional Vibration Concerns for Nuclear and Fossil Steam Turbine Generator Retrofits." In 2012 20th International Conference on Nuclear Engineering and the ASME 2012 Power Conference. American Society of Mechanical Engineers, 2012. http://dx.doi.org/10.1115/icone20-power2012-55139.

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Based on a recent assessment of nuclear generating stations in the US, Spain and Belgium, TG Advisers identified over 20 units with various levels of torsional vibration system concerns. This was a surprising result given the relatively long and successful power generation industry history in understanding and addressing this dangerous failure mechanism.
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