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In an effort to promote computer literacy among advertising students, an assignment was devised that required the use of online database search techniques to find secondary research materials. The search program, chosen for economical reasons, was "Classroom Instruction Program" offered by Dialog Information Services. Available for a charge of $14 per hour, the program provides students with access to over 100 different databases. For the assignment, students were asked to prepare search objectives for any advertising-related topic of their choice. Once the students completed their search objectives and a command outline, they were given a very basic search to be typed into the terminal. This basic search provided a vehicle through which students could evaluate their understanding of the search program before searching. After completing the rote assignment, students made their own bibliographic search. To reduce the telephone connect time, several constraints were included, among them the following: (1) students were assigned to work in teams of 3 to 5 individuals; (2) the number of bibliographic references typed was minimized; and (3) search setups were graded and corrected before signing on the computer. Instructor preparation was provided by the database vendors and Dialog. Especially useful were their training seminar manuals. Initial evaluations of the assignment showed the only deficiency to be too few searches. (HOD)

In an effort to promote computer literacy among advertising students, an assignment was devised that required the use of online database search techniques to find secondary research materials. The search program, chosen for economical reasons, was "Classroom Instruction Program" offered by Dialog Information Services. Available for a charge of $14 per hour, the program provides students with access to over 100 different databases. For the assignment, students were asked to prepare search objectives for any advertising-related topic of their choice. Once the students completed their search objectives and a command outline, they were given a very basic search to be typed into the terminal. This basic search provided a vehicle through which students could evaluate their understanding of the search program before searching. After completing the rote assignment, students made their own bibliographic search. To reduce the telephone connect time, several constraints were included, among them the following: (1) students were assigned to work in teams of 3 to 5 individuals; (2) the number of bibliographic references typed was minimized; and (3) search setups were graded and corrected before signing on the computer. Instructor preparation was provided by the database vendors and Dialog. Especially useful were their training seminar manuals. Initial evaluations of the assignment showed the only deficiency to be too few searches. (HOD)

Minitab computing supplement section / Carlotta B. Eaton

Minitab computing supplement section / Carlotta B. Eaton

Minitab computing supplement section / Carlotta B. Eaton

An Introduction to Modern Mathematical Computing With Mathematica® Jonathan M. Borwein • Matthew P. Skerritt

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Google Tech Talks December, 6 2007 ABSTRACT This tech talk series explores the enormous opportunities afforded by the emerging field of quantum computing. The exploitation of quantum phenomena not only offers tremendous speed-ups for important algorithms but may also prove key to achieving genuine synthetic intelligence. We argue that understanding higher brain function requires references to quantum mechanics as well. These talks look at the topic of quantum computing from mathematical, engineering and neurobiological perspectives, and we attempt to present the material so that the base concepts can be understood by listeners with no background in quantum physics. This first talk of the series introduces the basic concepts of quantum computing. We start by looking at the difference in describing a classical and a quantum mechanical system. The talk discusses the Turing machine in quantum mechanical terms and introduces the notion of a qubit. We study the gate model of quantum computing and look at the famous quantum algorithms of Deutsch, Grover and Shor. Finally we talk about decoherence and how it destroys superposition states which is the main obstacle to building large scale quantum computers. We clarify widely held misconceptions about decoherence and explain that environmental interaction tends to choose a basis in state space in which the system decoheres while leaving coherences in other coordinate systems intact. Speaker: Hartmut Neven

Google Tech Talks December, 6 2007 ABSTRACT This tech talk series explores the enormous opportunities afforded by the emerging field of quantum computing. The exploitation of quantum phenomena not only offers tremendous speed-ups for important algorithms but may also prove key to achieving genuine synthetic intelligence. We argue that understanding higher brain function requires references to quantum mechanics as well. These talks look at the topic of quantum computing from mathematical, engineering and neurobiological perspectives, and we attempt to present the material so that the base concepts can be understood by listeners with no background in quantum physics. This first talk of the series introduces the basic concepts of quantum computing. We start by looking at the difference in describing a classical and a quantum mechanical system. The talk discusses the Turing machine in quantum mechanical terms and introduces the notion of a qubit. We study the gate model of quantum computing and look at the famous quantum algorithms of Deutsch, Grover and Shor. Finally we talk about decoherence and how it destroys superposition states which is the main obstacle to building large scale quantum computers. We clarify widely held misconceptions about decoherence and explain that environmental interaction tends to choose a basis in state space in which the system decoheres while leaving coherences in other coordinate systems intact. Speaker: Hartmut Neven

Google Tech Talks December, 6 2007 ABSTRACT This tech talk series explores the enormous opportunities afforded by the emerging field of quantum computing. The exploitation of quantum phenomena not only offers tremendous speed-ups for important algorithms but may also prove key to achieving genuine synthetic intelligence. We argue that understanding higher brain function requires references to quantum mechanics as well. These talks look at the topic of quantum computing from mathematical, engineering and neurobiological perspectives, and we attempt to present the material so that the base concepts can be understood by listeners with no background in quantum physics. This first talk of the series introduces the basic concepts of quantum computing. We start by looking at the difference in describing a classical and a quantum mechanical system. The talk discusses the Turing machine in quantum mechanical terms and introduces the notion of a qubit. We study the gate model of quantum computing and look at the famous quantum algorithms of Deutsch, Grover and Shor. Finally we talk about decoherence and how it destroys superposition states which is the main obstacle to building large scale quantum computers. We clarify widely held misconceptions about decoherence and explain that environmental interaction tends to choose a basis in state space in which the system decoheres while leaving coherences in other coordinate systems intact. Speaker: Hartmut Neven

Google Tech Talks December, 6 2007 ABSTRACT This tech talk series explores the enormous opportunities afforded by the emerging field of quantum computing. The exploitation of quantum phenomena not only offers tremendous speed-ups for important algorithms but may also prove key to achieving genuine synthetic intelligence. We argue that understanding higher brain function requires references to quantum mechanics as well. These talks look at the topic of quantum computing from mathematical, engineering and neurobiological perspectives, and we attempt to present the material so that the base concepts can be understood by listeners with no background in quantum physics. This first talk of the series introduces the basic concepts of quantum computing. We start by looking at the difference in describing a classical and a quantum mechanical system. The talk discusses the Turing machine in quantum mechanical terms and introduces the notion of a qubit. We study the gate model of quantum computing and look at the famous quantum algorithms of Deutsch, Grover and Shor. Finally we talk about decoherence and how it destroys superposition states which is the main obstacle to building large scale quantum computers. We clarify widely held misconceptions about decoherence and explain that environmental interaction tends to choose a basis in state space in which the system decoheres while leaving coherences in other coordinate systems intact. Speaker: Hartmut Neven

Bibliography: p. 186-190

Bibliography: p. 186-190

Bibliography: p. 186-190

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Uploaded by zygun

217 p. :

Includes bibliographies

Includes bibliographies

Includes bibliographies

Includes bibliographies

Bibliography: p. 203-205

Bibliography: p. 203-205

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Scientific Computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing

This is a 1960’s era, color movie presented by Remington Rand and Univac, a division of Sperry Rand Corporation. It is a presentation called “An Introduction to Digital Computers”. It opens with a man sitting in front of a very large computer terminal, :50.  Cartoon animation of caveman counting on his fingers, 1:00. Cartoon of ancient Japan, man counting on abacus. Cartoon continues with the recollection of mathematicians through history and their counting machines, 1:24. Rocket on a launch pad, 1:43. Man punches buttons on a 1960’s computer terminal. Diodes, transistors, vacuum tubes are shown; the insides of a computer, 2:23. Analog and Digital animated illustration, 2:40. Binary System animated illustration, 3:21. Animated illustration of electronic switches within a computer; presentation of how the number 5 is represented in binary code, 4:17. Computer data sources are shown; punched cards, punched tape and magnetic tape, 5:25. Magnetic tape spinning in computer machines, 6:00. Animated illustration on how photoelectric cells are used to read punched tape and punched cards, 6:26. Magnetic tape illustration, 6:40. Computation and memory illustration, 7:02. Magnetic drums and magnetic cores are shown, 7:15. Magnetic drum illustration, 7:45. Magnetic core memory illustration, 8:04. Explanation of computer clock and comparison to musical rhythm, 9:20. Illustration comparing computer computations to an average taxpayer’s thought process; cartoon, 9:45. “Logic block” illustrations using “and”, “or”, and “inverter” logic blocks, 11:30. Man standing at computer terminal pushing buttons, 15:36. Man designing a decision chart for a computer, 16:00. Cartoon illustration of man designing a flow chart, 16:30. Cartoon illustration of man living daily life in comparison to how commands are input into a computer, 19:00. Illustration of transfer instructions for a computer, 20:05. Input to arithmetic illustration, 20:20. Illustrated recap of how computers work, 21:26. Men sitting at various computers, 22:25. Illustration comparing man hours to computer hours, 22:40. Remington Rand Univac showcases their computer products, 23:05. We encourage viewers to add comments and, especially, to provide additional information about our videos by adding a comment!  See something interesting?  Tell people what it is and what they can see by writing something for example: "01:00:12:00 -- President Roosevelt is seen meeting with Winston Churchill at the Quebec Conference." This film is part of the Periscope Film LLC archive, one of the largest historic military, transportation, and aviation stock footage collections in the USA. Entirely film backed, this material is available for licensing in 24p HD, 2k and 4k. For more information visit http://www.PeriscopeFilm.com

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

This review provides a gentle introduction to one-way quantum computing in distributed architectures. One-way quantum computation shows significant promise as a computational model for distributed systems, particularly those architectures which rely on probabilistic entangling operations. We review the theoretical underpinnings of one-way quantum computation and discuss the practical issues related to exploiting the one-way model in distributed architectures.

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We present a concise but complete conceptual treatment of quantum computing implemented with Cavity Quantum Electrodynamics (CQED. The paper is intended as a brief overview for professionals who are coming over to the field from other areas and who may have not discussed the concepts behind quantum computing during their technical training.

Class materials at http://OpenSecurityTraining.info/IntroToTrustedComputing.html Follow us on Twitter for class news @OpenSecTraining. This 2-day course by Ariel Segall is an introduction to the fundamental technologies behind Trusted Computing. You will learn what Trusted Platform Modules (TPMs) are and what capabilities they can provide both at an in-depth technical level and in an enterprise context. You will also learn about how other technologies such as the Dynamic Root of Trust for Measurement (DRTM) and virtualization can both take advantage of TPMs and be used to enhance the TPM's capabilities. We will cover major use cases for trusted computing, including machine authentication, data protection, and attestation. This course will also introduce you to the various software resources that exist today to support TPMs, give a high-level overview of related research and development projects, and briefly discuss other trusted computing standards such as Trusted Network Connect which may be relevant to enterprise deployment of TPMs and trusted computing. Objectives: * Introduce students to both basic and advanced TPM capabilities, as well as other trusted computing standards and technologies * Show how TPMs and related technologies can be used in enterprise environments and for cutting-edge research * Give students the necessary tools and information to design and build systems that take advantage of trusted computing