Standartization Use Case of Solid-State Laser Lab and RF&Microwave Amplifier Remote and Virtual Laboratories at Labicom
This paper outlines a demonstration of a few remote and virtual laboratories at Labicom platform that were built with accordance to main IEEE P1876™ ideas. A few standardization approaches at above mentioned remote and virtual laboratories are briefly discussed. These laboratories were presented at interactive Labicom demo session during REV'16 conference and published in conference proceedings under title "Labicom Labs: Remote and Virtual Solid-State Laser Lab, RF&Microwave Amplifier Remote and Virtual Lab. Interactive demonstration of Labicom labs in winter 2016".
Labicom.net - The on-line laboratories platform
This paper describes a new software web-based system for hosting and sharing on-line laboratories - Labicom platform [1] available at https://labicom.net. This platform serves the growing needs of expanding technical curriculum into internet-based engineering courses and allows deploying, hosting and sharing laboratory resources between people all over the world. It frees laboratory owners from many responsibilities (such as creating and managing time reservation system, keeping the trusted certificate, etc.) and gives more time and freedom to concentrate on subject specific tasks rather than on computer science. On-line laboratories hosted on Labicom are normally accessible worldwide from modern web-browsers in many languages. Laboratory owners have an opportunity to localize their labs to as many languages as they want. Labicom.net represents multi-tier distributed server-client net of applications. Currently only a few laboratories are connected (Remote Laser Laboratory (RLL) [2], [3] is the most mature) but they are already used in beta-testing. New features and updates are applied regularly and new labs are supposed to join the platform soon.
Parameters for low energy operation of CESR
We present a detailed design for operation of the Cornell Electron Storage Ring, CESR, in the energy range covering the /spl psi/ resonances and the Charm and Tau thresholds, as well as reaching to the upper Y resonances near 11 GeV. The addition of 18 m of super-ferric wiggler magnets will partially restore low energy beam emittance and damping times. Installation of superconducting quadrupoles in the interaction region and the addition of high performance superconducting RF cavities will enhance performance at all energies. Studies of optics, beam dynamics, wiggler and vacuum system performance, beam stability, and beam-beam effects confirm operation with a luminosity of 3/spl times/ 10/sup 32/ CM/sup -2/ sec/sup -1/ at 1.88 GeV.