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CATHODE LIGHT STRIP Single-Lamp Modular Cold Cathode Fluorescent Fixture • Model CLS
CATHODE LIGHT STRIP Single-Lamp Modular Cold Cathode Fluorescent Fixture • Model CLS U.S. and international patents pending. Conference Room, Anadarko Petroleum Photo: Eric Long Washington, DC Architect: Davis Carter Scott © 2002 Cathode Lighting Systems Inc. 8020 Queenair Drive, Gaithersburg, MD 20879 • ph: 301 921 4120 • fax: 301 963 3050 e-mail: [email protected] • website: www.CathodeLightingSystems.com INALLY, THE LOOK OF A CUSTOM COLD CATHODE INSTALLATION IN AN OFF- FTHE-SHELF MODULAR SYSTEM. OUR ARCHITECTURAL-GRADE COLD CATHODE FIXTURE MAKES DESIGNING SEAMLESS SPECIAL EFFECTS LIGHTING EASIER THAN EVER. LAMPS ARE ILLUMINATED FROM END TO END, CREATING TRUE SHADOWLESS LINEAR FLUORESCENT LIGHT. STANDARD INTEGRAL DIMMING BALLASTS, SIMPLE INSTALLATION, AND A LAMP LIFE OF 50,000 HOURS MAKE CATHODE LIGHT STRIP THE CLEAR CHOICE WHEN THE HIGHEST-QUALITY LONG-LIFE LIGHTING EFFECTS ARE REQUIRED. CATHODE LIGHT STRIP, PERFECT ELEGANCE WAS NEVER SO EASY. Model CLS-4 shown equipped with a warm white (30TC) lamp. FEATURES: • SEAMLESS ILLUMINATION: Lamp illumination is • DIMMABLE: Fixtures are supplied standard with integral complete, from end to end, with no dark spots or socket dimmable ballasts. shadow. • ALL FIXTURES DIM AT THE SAME RATE: Cathode Light • ULTRA-LONG LAMP LIFE: The cold cathode lamp has Strip has been engineered to dim evenly from fixture to a life of 50,000 hours +. fixture, regardless of length or combinations of differing • LOW PROFILE: Just 2 5/8" wide and 3 1/2" tall, much lengths. smaller than traditional custom cold cathode. • STREAMLINED AND LIGHTWEIGHT: Fixtures are • AVAILABLE IN A VARIETY OF LENGTHS: With eight made from satin anodized architectural-grade, snap-fit standard sizes available, fixtures can be combined or aluminum extrusion. -
X-Ray Spectra from a Brass-Target Plasma Triode Abstract in This
X-ray Spectra from a Brass-target Plasma Triode Eiichi SATO, Haruo OBARA, Toshiyuki ENOMOTO, Etsuro TANAKA Hidezo MORI, Toshiaki KAWAI, Toshio ICHIMARU, Akira OGAWA Shigehiro SATO, Kazuyoshi TAKAYAMA Jun ONAGAWA I) Department of Physics , Iwate Medical University 2) Department of Radiological Technology , College of Medical Science, Tohoku University 3) The 3rd Department of Surge ry, Toho University School of Medicine 4) Department of Nutrition al Science, Faculty of Applied Bioscience, Tokyo University of Agriculture 5) Department of Cardiac Physiology , National Cardiovascular Center Research Institute 6) Electron Tube Division #2, Hamamatsu Photonics K. K. 7) Department of Radiologi cal Technology, School of Health Sciences, Hirosaki University 8) Department of Neurosurgery , School of Medicine, Iwate Medical University 9) Department of Microbiolog y, School of Medicine, Iwate Medical University 10) Tohoku University Biomedical Engineering Research Organization II) Department of Electronics , Faculty of Engineering, Tohoku Gakuin University Research Code No.: 200, 204.1 Keywords:Flash x-ray,Brass target, Weaklyionized linear plasma, Characteristicx-rays, Absorptionof zinc Kj3rays Abstract In this paper, we describe a recentlydeveloped table-top plasma x-ray generator utilizing a brass-targettriode, which we used in preliminary experiments for the superpositionof K-series characteristicx-rays in weakly ionized plasma and for producing their higher harmonics. In the plasma flash x-raygenerator, a 200 nF condenser was charged,and flash x-rays were producedby discharging.The x-ray tube was a demountabletriode with a brass target containing65% copper and 35% zinc by weight, and a turbomolecularpump evacuatedair from the tube with a pressure of 1 mPa. Targetevaporation led to the formationof weakly ionized linear plasma, consistingof metal ions and electrons,around the rod target, and intense characteristicx-rays were produced. -
G-Tran Series Sensor Unit Model Sc1 Cold-Cathode Ion
No. SK00-8431-EI-023-03 G-TRAN SERIES SENSOR UNIT MODEL SC1 COLD-CATHODE ION GAUGE INSTRUCTION MANUAL This manual is for the SC1 cold-cathode ion gauges of the following serial numbers. Serial No. 02300G and higher Read this manual before operation and keep it at hand for immediate reference. Components Division, ULVAC , Inc. 2500 Hagizono, Chigasaki City, Kanagawa-ken, Japan http://www.ulvac.co.jp/ Prior to Operation Upon receipt of this gauge, make sure that it is the correct model you ordered and that it is not damaged in transit. Read this instruction manual before installing, operating, inspecting, or maintaining the product and fully understand the safety precautions, specifications and operating procedures regarding the product. The copyright of this instruction manual is held by ULVAC, Inc. You are prohibited from copying any portion of this instruction manual without the consent of ULVAC Inc. You are also prohibited from disclosing or transferring this instruction manual to third parties without the express written consent of ULVAC Inc. The contents described in this instruction manual are subject to change without prior notice because of changes in specifications or because of product improvements. Safety Denotations Safety symbols are used throughout this instruction manual to call the operator's attention to safety. The terminology used in safety symbols is classified below. Indicate status of urgency of danger when failure to comply with DANGER results in serious personal injury or death The work ignoring this warning will lead to serious damage to human life or factory facility (including this equipment) at a high probability. -
MP1010B Cold Cathode Fluorescent Lamp Driver the Future of Analog IC Technology
MP1010B Cold Cathode Fluorescent Lamp Driver The Future of Analog IC Technology DESCRIPTION FEATURES The MP1010B is a power solution IC that offers • Integrated Power Switches a true complete solution for driving a Cold • 6.0V to 23V Variable Supply Voltage with Cathode Fluorescent Lamps (CCFL). This Regulated Lamp Current. Power IC converts unregulated DC voltage to a • Rated 12W Power Output at 12V Input nearly pure sine wave required to ignite and • Open Lamp Regulation operate the CCFL. Based on proprietary power • Current and Voltage Feedback Control topology and control techniques it greatly • Logic Level Burst Mode Control increases the power conversion efficiency. • Supports Open/Short Lamp Protection EVALUATION BOARD REFERENCE • Soft-Start Board Number Dimensions • Short Circuit Protected Output • High Energy Start Pulse EV1010B-00A 3.75”X x 0.4”Y x 0.25”Z • Analog and Burst Mode Dimming APPLICATIONS • LCD Backlight Inverter for Notebook Computers • Web Pads, GPS, Desktop Displays, Portable DVD, Car Video Display Systems “MPS” and “The Future of Analog IC Technology” are Registered Trademarks of Monolithic Power Systems, Inc. The MP1010B is covered by US Patents 6,633,138, 6,316,881, 6,114,814. TYPICAL APPLICATION Rs Cft2 Rdamp Cft1 Cref N1 CbaR Ccomp CbtR Rft Cp N/A 20 19 18 17 16 15 14 13 12 11 HV IN FT FB OL 2 REF BSTR OUTR PGND AGND COMP Rbosc 1 MP1010B T1 CN1 BR IL BOS T/B EN DR IN OUTL PGND BSTL 1 2 3 4 5 6 7 8 9 J1 10 ABRT 5 Rabr Cabr CbtL DBRT 4 Cdrv Rbdr EN 3 Cisb Ren1 N/A Cs1 Cs2 Rlfb Resd Cen Cdbr Rbleed Ren2 CbaL Cbosc Risb Csfb Rsfb GND 2 Cba2 F1 / 1A Cba1 VBATT 1 FUSE MP1010B Rev. -
Letter Circular 817: Fluorescent Lamps
. RPT : RMC U. S. DEPARTMENT OF COMMERCE Letter IV- 3 NATIONAL BUREAU OF STANDARDS Circular WASHINGTON 25 LC-817 ‘February 4, 1946 ^^(Sup^geding FLUORESCENT LAMPS Contents^" - O* _ , Page I. Introduction . ........ jg*,. ..... 1 II. Work of the National Bureau- of, Standards on Fluorescent Lamps ...... .X ........ 4 III. Description of the . Lamp\ . ^ 4 IV. General Information .... ...... 3 V. Does the Fluorescent Lamp Have Any Deleterious Effect on Vision or the Eye? 4 VI. Bibliography .......... 6 I . Introduction The development of fluorescent lamps and their possibilities for general and decorative lighting purposes have brought many requests for information to the Bureau. This letter circular has been prepared to answer such inquiries. It contains information which has been accumulated in answering these letters, but is not an exhaustive treatise on the subject. II Work of the National Bureau of Standards on Fluorescent Lamps. , The development of fluorescent lamps by their manufacturers is progressing so rapidly that, although the Bureau has studied the radiation from these lamps, as discussed in Section V, it has as yet made no extensive tests to compare the efficiencies or costs of operation of fluorescent and incandescent lamps. Such information is given by the manufacturers and is referred to below. A letter circular on Fluorescence and Phosphorescence, LC-550, was issued by the Bureau under date of April 1, 1939; it is available, without cost, upon written request. Ill Description of Lamps The most commonly used type of fluorescent lamp is made in the form of a tubular bulb with a filament- type electrode sealed in each end. -
High Speed Plasma Diagnostics for Laser Plasma Interaction and Fusion Studies
Sadhan& Vol. 24, Part 6, December 1999, pp. 513 549. ~' Printed in India High speed plasma diagnostics for laser plasma interaction and fusion studies V N RAI, M SHUKLA, H C PANT and D D BHAWALKAR Laser Programme, Centre for Advanced Technology, PO CAT, Indore 452 013, India e-mail: [email protected] MS received 26 February 1998; revised 25 May 1999 Abstract. Laser plasma interaction and fusion studies involve many high speed plasma diagnostics to determine the various parameters for explaining the physical processes taking place in plasma. Detection and analysis of short-term or transient radiations (X-ray and visible) are the bases for diagnosing the physical processes occurring during laser-plasma interaction or similar radiation-emitting processes. This paper reviews the development of various high speed plasma diagnostics which are not only applicable in determining the temporal, spatial and spectral properties of X-rays for this purpose but also have wide use in various other fields of research. Keywords. Laser-plasma interaction; fusion studies; transient radiations; high speed plasma. 1. Introduction Interaction of a high intensity laser light with matter (solid target) first vaporizes material from the surface which ultimately gets converted into plasma (ionized gas). This laser produced plasma expands into the vacuum where propagation of laser light is modified by the free electrons present in the plasma (Jacob et al 1976; Cairn & Sanderson 1980; Max 1982; Kruer 1988; Radziemski & Cramers 19891. The plasma formed by a high intensity or small time duration laser has very steep density and temperature gradients as compared to the plasma formed by the low intensity or long time duration laser. -
Mercury in Cold Cathode Fluorescent Lamps for General Lighting Purposes (Category 5)
EUROPEAN COMMISSION DIRECTORATE-GENERAL ENVIRONMENT Directorate G - Sustainable Development and Integration ENV.G.4 - Sustainable Production & Consumption DIRECTIVE 2011/65/EU1 ON THE RESTRICTION OF THE USE OF CERTAIN HAZARDOUS SUBSTANCES IN ELECTRICAL AND ELECTRONIC EQUIPMENT (ROHS). REQUESTS FOR ADDITIONAL EXEMPTION PROPOSALS FOR FURTHER EXEMPTIONS FROM THE REQUIREMENTS OF ARTICLE 4(1) OF DIRECTIVE 2011/65/EU FOR SPECIFIC APPLICATIONS OF LEAD, MERCURY, CADMIUM, HEXAVALENT CHROMIUM. Mercury in cold cathode fluorescent lamps for general lighting purposes (Category 5). Submitted by: ANIE Federazione with one of its federated associations - Associazione Nazionale Produttori Illuminazione ANIE Federazione represents the electrotechnical and electronic companies operating in Italy. With its 10 Associations, ANIE unites strategic players to deliver significant support to the growth of the national industry network and to contribute to its success on international markets. The Federation promotes the competitiveness of member companies with reference to different production factors. It maintains relations with Italian and international authorities and institutions to protect the sector’s interests. Information: Criteria Please provide supporting technical and scientific evidence a) Name address and contact ANIE Federazione details of the applicant; Via Vincenzo Lancetti, 43 20158 Milano, Italy Phone: +39 02.3264.317 Fax: +39 02.3264.212 b) Information on the material or Specific constructional characteristics for CCFLs for General component and the specific Lighting purposes: uses of the substance in the 1 OJ L 174, 1.7.2011, p. 88 1 Information: Criteria Please provide supporting technical and scientific evidence material and component for 1. Dimensions: Lamps often are made to follow the profile of which an exemption, or its the building / room structure and this imply that lamps will revocation, is requested and its have specific (and not standard) rounded curves (also with particular characteristics; small radius) on every geometrical axe. -
Light-Emitting Diode - Wikipedia, the Free Encyclopedia
Light-emitting diode - Wikipedia, the free encyclopedia http://en.wikipedia.org/wiki/Light-emitting_diode From Wikipedia, the free encyclopedia A light-emitting diode (LED) (pronounced /ˌɛl iː ˈdiː/[1]) is a semiconductor Light-emitting diode light source. LEDs are used as indicator lamps in many devices, and are increasingly used for lighting. Introduced as a practical electronic component in 1962,[2] early LEDs emitted low-intensity red light, but modern versions are available across the visible, ultraviolet and infrared wavelengths, with very high brightness. When a light-emitting diode is forward biased (switched on), electrons are able to recombine with holes within the device, releasing energy in the form of photons. This effect is called electroluminescence and the color of the light (corresponding to the energy of the photon) is determined by the energy gap of Red, green and blue LEDs of the 5mm type 2 the semiconductor. An LED is usually small in area (less than 1 mm ), and Type Passive, optoelectronic integrated optical components are used to shape its radiation pattern and assist in reflection.[3] LEDs present many advantages over incandescent light sources Working principle Electroluminescence including lower energy consumption, longer lifetime, improved robustness, Invented Nick Holonyak Jr. (1962) smaller size, faster switching, and greater durability and reliability. LEDs powerful enough for room lighting are relatively expensive and require more Electronic symbol precise current and heat management than compact fluorescent lamp sources of comparable output. Pin configuration Anode and Cathode Light-emitting diodes are used in applications as diverse as replacements for aviation lighting, automotive lighting (particularly indicators) and in traffic signals. -
Vacuum Capacitor
(19) & (11) EP 2 477 200 A1 (12) EUROPEAN PATENT APPLICATION published in accordance with Art. 153(4) EPC (43) Date of publication: (51) Int Cl.: 18.07.2012 Bulletin 2012/29 H01G 4/20 (2006.01) (21) Application number: 10815684.5 (86) International application number: PCT/RU2010/000496 (22) Date of filing: 09.09.2010 (87) International publication number: WO 2011/031189 (17.03.2011 Gazette 2011/11) (84) Designated Contracting States: (72) Inventors: AL AT BE BG CH CY CZ DE DK EE ES FI FR GB • Kholoshenko, Roman Stanislavovich GR HR HU IE IS IT LI LT LU LV MC MK MT NL NO Rostovskaya obl. 346300 (RU) PL PT RO SE SI SK SM TR • Kovalenko, Gennady Viktorovich Rostovskaya obl. 347913 (RU) (30) Priority: 10.09.2009 RU 2009133830 • Nikolaeva Ljudmila Alexandrovna (71) Applicants: Krasnodarsky krai 352140 (RU) • Kholoshenko, Roman Stanislavovich • Korsun, Ilya Vladimirovich Rostovskaya obl. 346300 (RU) Rostovskaya obl. 347382 (RU) • Kovalenko, Gennady Viktorovich Rostovskaya obl. 347913 (RU) (74) Representative: Hersina, Günter • Nikolaeva Schoppe, Zimmermann, Stoeckeler & Zinkler Ljudmila Alexandrovna Postfach 246 Krasnodarsky krai 352140 (RU) 82043 Pullach (DE) • Korsun, Ilya Vladimirovich Rostovskaya obl. 347382 (RU) (54) VACUUM CAPACITOR (57) The invention relates to the field of electrical en- gineering, in particular to electrotechnical components, and in this specific case to polar capacitors with a fixed capacitance. The technical result of the use of the inven- tion consists in the possibility of producing electrical en- ergy stores with small dimensions and high capacitance and voltages. The vacuum capacitor comprises an anode arranged outside a vacuum chamber, in which a cathode is arranged as well as a dielectric, between said cathode and anode. -
Appendix I Klhctrohics for Magihg Atom Probe 1.1
APPENDIX I KLHCTROHICS FOR MAGIHG ATOM PROBE 1.1 ZHTRODDCTIOH The major limitation of PIM lies in its inability to chemically identify the imaging species. The atom probe PIM^ can give us the information about the chemical nature of a single atom (or a group of atoms) on the specimen tip surface. Panitz '-^ introduced a new technique known as Imaging Atom Probe (lAP), which gives the spatial distribution of the surface species. It mass analyzes the field evaporated species from the specimen surface on the basis of time of flight mass spectroscopy. The lAP, which is essentially a field desorption microscope with time gated microchannel plate (MCP) detector, is a powerful tool for studying a number of metallurgical problems. The electronic circuitry built in this laboratory for the lAP (figure 1.1) consisted of (i) two high voltage nanosecond pulsers, one for field evaporation from the tip and another for MCP activation, (ii) a variable delay network, and (iii) a master pulser to synchronize the whole operation. The two high voltage pulsers were identical, except the output pulse amplitude. Each of them comprised of the Krytron pulser and the avalanche transistor pulser used for grid triggering the Krytron. The combination of the master pulser and the variable delay network was used to get the two pulses having an adjustable time interval between them. These pulses were used to tri^er the avalanche transistor pulsers. Thus, the high voltage pulse for field evaporation and the MCP activation pulse after a presettable time delay "t" were obtained. The time gated images of the desired species are obtainable by deciding the delay time from following equation 73 CRYOSTAT ChteVRON MICROCHANNEL ^ PLATE - SCREEAi '4 ;5 ^ lOM —WWW -• +5 kV ^Vdc -vv5/J^ -• + 1-3kV 50M -VWWw -• + 0-3 kV 500 pP 5wi i:_--500p F X KRYTRON KRYTRON PULSER PULSER AVALANCHE VARIABLE AVAL/INCHE TR-ANSISTOR TRANSfS TOR PELAY PULSER PULSER NETWORK M/^STER PULSER. -
TCP 46112 Catalog
2010 Fall/Winter Catalog LAMPS & BALLASTS CFLs GU24 Base Lamps Cold Cathodes LEDs HID Lamps Linear Lamps & Ballasts ONLY the BEST ONLY TCP As we near the end of one of the most dynamic years that I have ever experienced in the lighting industry, I want to thank all of TCP’s associates, customers and friends for helping us to weather the storm that swept through our economy this past year. With everyone’s drive and determination, TCP was able to regroup and forge ahead. Despite the many challenges in 2009, TCP has managed to: Improve inventory availability Reduce lead times Launch several innovative products Improve service levels All of which have strengthened its position in the marketplace. I am excited as we near the end of 2009, ready to embark on a brand new year. I believe 2010 will be the best yet for TCP! We will continue to solidify our metrics and improve in all areas that we can. Our product development team is working on more innovations to launch in 2010, and with the brightening financial outlook, TCP is poised to continue to lead the industry in the upcoming year. I look forward to working with you in 2010. Experience TCP’s energy efficient lighting products, and you will believe. Our expertise is energy efficient lighting – our passion is our customers. Sincerely, 2010 Ellis Yan CEO, TCP, Inc. LAMPS Fall/Winter Catalog Fall/Winter & BALLASTS ONLY TCP TCP is committed to providing high quality CFLs that are the benchmark in energy efficiency. TCP’s compact fluorescent light bulbs use 75% less energy than standard incandescent bulbs and last up to 10 times longer. -
Master Product Fisting
Richardson "' Electronics, Ltd. Master Product fisting Part #and Description Guide • Electron Tubes • Semiconductors r Electron Tubes Part Description Part # Description Part # Description LCMG-B X-Ray Tube 2AS15A Receiving Rectifier QB3.5/750GA Power Tetrode QEL1/150 Power Tetrode 2AV2 Receiving Tube 6163.5/750/6156 Power Tetrode CCS-1/Y799 CC Power Tetrode 2822 Planar Diode QBL3.5/2000 Power Triode PE1/100/6083 Power Pentode 2B35/EA50 UHF Diode W3/2GC TWi C1A Thyratron 2694 Twin Tetrode W3/2GR TWi GV1A-1650 Corona Voltage Reg 2BU2/2AS2A/2AH2 Receiving Tube 61QV03/20A UHF Twin Tetrode CE1A/B Phototube 2C36 UHF Triode QQE03/20/6252 UHF Twin Tetrode 1A3/DA90 Mini HF Diode 2C39A Planar Triode QQE03/12/6360A Twin Tetrode 1AD2A/1BY2 Receiving Tube 2C39BA Planar Triode OE3/85A1 Voltage Regulator C1 B/3C31 /5664 Thyratron 2C39WA Planar Triode OG3/85A2 MIN Volt Regulator 1B3GT/1 G3GT Receiving Tube 2C40A Planar Triode QB3/200 Power Tetrode 1B35A ATR Tube 2C43 Planar Triode QB3/300 Power Tetrode 1658A TR Tube 2C51/396A MIN Twin Triode QB3/300GA Power Tetrode 1859/R1130B Glow Modulator 2C53 High Voltage Triode T83/750 Power Triode 1B63B TR Tube 2CW4 Receiving Tube OA3NR75 Voltage Regulator 1885 Geiger-Mueller Tube 2D21 Thyratron OB3NR90 Voltage Regulator 1BQ2IDY802 Receiving Rectifier 2D21W/5727 MIN Thyratron OC3NR105 Voltage Regulator 1C21 Cold Cathode 2D54 Receiving Tube OD3NR150 Voltage Regulator 1D21 /SN4 Cold Cathode Dischg 2E22 Pentode OB3A Receiving Tube 1G3GT/ 1B3GT Receiving Tube 2E24 Beam Amplifier OC3A Voltage Regulator 1G35P Hydrogen Thyratron 2E26 Beam Amplifier OD3A Voltage Regulator 1HSGT Recv.