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Nyckelharpan studier i ett folkligt musikinstrument = the keyed fiddle : studies on a folk instrument : with an abbreviated version in English /Ling, Jan, January 1967 (has links)
Thesis (Ph. D.)--Uppsala, 1967. / Summary in English. Errata slip inserted. Includes bibliographical references (p. 264-277) and index.
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A performance interpretation of the concerto in E-flat major by Joseph Haydn based on contemporaneous writings and period performance practice /Parish, Tracy M. January 2008 (has links)
Thesis (D.M.A.)--University of Illinois at Urbana-Champaign, 2008. / Includes abstract. Vita. Adviser: John Hill. Includes bibliographical references. Available from Pro Quest Information and Learning.
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GrowthFitzgerald, Peter 01 January 2006 (has links)
In nature we see a wide variety of bold colors and unique shapes. Trees personify these characteristics with their curved branches creating distinctive lines and shapes. Leaves and blossoms enhance their structures with an array of colors. Trees possess awe inspiring energy. Each tree is a living thing, its growth shaped by its environment.Similarly, my work is a response to the environment. I employ a spontaneous and bold technique in an attempt to capture the energy I perceive in nature. The use of vigorous lines and high keyed contrasting colors with varied textures conveys that trees are living, growing entities, each one unique. I remain open to new ways of expressing this aesthetic so that my work will continue to grow like a tree and evolve.
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HASH STAMP MARKING SCHEME FOR PACKET TRACEBACKNEIMAN, ADAM M. January 2005 (has links)
No description available.
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Fault Tolerant Cryptographic Primitives for Space ApplicationsJuliato, Marcio January 2011 (has links)
Spacecrafts are extensively used by public and private sectors to support a variety of services. Considering the cost and the strategic importance of these spacecrafts, there has been an increasing demand to utilize strong cryptographic primitives to assure their security. Moreover, it is of utmost importance to consider fault tolerance in their designs due to the harsh environment found in space, while keeping low area and power consumption. The problem of recovering spacecrafts from failures or attacks, and bringing them back to an operational and safe state is crucial for reliability. Despite the recent interest in incorporating on-board security, there is limited research in this area. This research proposes a trusted hardware module approach for recovering the spacecrafts subsystems and their cryptographic capabilities after an attack or a major failure has happened. The proposed fault tolerant trusted modules are capable of performing platform restoration as well as recovering the cryptographic capabilities of the spacecraft. This research also proposes efficient fault tolerant architectures for the secure hash (SHA-2) and message authentication code (HMAC) algorithms. The proposed architectures are the first in the literature to detect and correct errors by using Hamming codes to protect the main registers. Furthermore, a quantitative analysis of the probability of failure of the proposed fault tolerance mechanisms is introduced. Based upon an extensive set of experimental results along with probability of failure analysis, it was possible to show that the proposed fault tolerant scheme based on information redundancy leads to a better implementation and provides better SEU resistance than the traditional Triple Modular Redundancy (TMR). The fault tolerant cryptographic primitives introduced in this research are of crucial importance for the implementation of on-board security in spacecrafts.
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Fault Tolerant Cryptographic Primitives for Space ApplicationsJuliato, Marcio January 2011 (has links)
Spacecrafts are extensively used by public and private sectors to support a variety of services. Considering the cost and the strategic importance of these spacecrafts, there has been an increasing demand to utilize strong cryptographic primitives to assure their security. Moreover, it is of utmost importance to consider fault tolerance in their designs due to the harsh environment found in space, while keeping low area and power consumption. The problem of recovering spacecrafts from failures or attacks, and bringing them back to an operational and safe state is crucial for reliability. Despite the recent interest in incorporating on-board security, there is limited research in this area. This research proposes a trusted hardware module approach for recovering the spacecrafts subsystems and their cryptographic capabilities after an attack or a major failure has happened. The proposed fault tolerant trusted modules are capable of performing platform restoration as well as recovering the cryptographic capabilities of the spacecraft. This research also proposes efficient fault tolerant architectures for the secure hash (SHA-2) and message authentication code (HMAC) algorithms. The proposed architectures are the first in the literature to detect and correct errors by using Hamming codes to protect the main registers. Furthermore, a quantitative analysis of the probability of failure of the proposed fault tolerance mechanisms is introduced. Based upon an extensive set of experimental results along with probability of failure analysis, it was possible to show that the proposed fault tolerant scheme based on information redundancy leads to a better implementation and provides better SEU resistance than the traditional Triple Modular Redundancy (TMR). The fault tolerant cryptographic primitives introduced in this research are of crucial importance for the implementation of on-board security in spacecrafts.
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