New Results on Opto-ElectronicsK.K. GanThe Ohio State UniversityFebruary 11, 2003K. Arms, K.K. Gan, M.O. Johnson, H.P. Kagan, R.D. Kass,A. Rahimi, C Rush, R. Ter-Antonian, M. ZoellerThe Ohio State UniversityA. Ciliox, M. Holder, M. ZiolkowskiSiegen UniversityK.K. GanATLAS Pixel Week1
OutlinelResult on VCSEL AnnealinglTest with Type 0 cablelTest with RX/TXlSummaryK.K. GanATLAS Pixel Week2
Optical Power of Irradiated Opto-boards after Annealing1200p implanted VCSEL1000Power (mW)80060040020000100200300400500600Time (hours)limited annealing during irradiation partially recovers optical power lost] all links have good optical power before annealingl one VCSEL has large radiation damage] large improvement with annealing] dead after 100 hours of annealinglK.K. GanATLAS Pixel Week3
Bit Error Testing with PP0/Type 0 CablesOpto-boardOpto-packbi-phase markedoptical signalPINDORICdecoded dataVCSELVDCdecoded clockVCSELVDClK.K. GanPP0/Type 0 cablescompare original and decoded data] measure minimum PIN current for no bit errorsATLAS Pixel Week4
Opto-Board with PP0 Type 0 CablesPP0Type 0ldata/clock from DORIC to VDC rerouted via PP0/Type 0 cablesK.K. GanATLAS Pixel Week5
PIN Current Thresholds with PP0/Type 0 Cables35Opto-Board on Test BoardOpto-Board on PP030Opto-Board on PP0 with Type 0 CableIpin link#7lPIN current thresholds measured with other links running at 40 mAlno increase in thresholds with PP0/Type 0 cablesK.K. GanATLAS Pixel Week6
PIN Current Thresholds with BPM/DRX35Opto-Board on Test Board30Opto-Board on Test Board with BPM/DRXIpin link#7thresholds for no bit error measured with other links running at 40 mAl opto-board operates with lower thresholds with BPM/DRX] opto-board design is compatible with BPM/DRXlK.K. GanATLAS Pixel Week7
Summarylone irradiated VCSEL failed during annealinglno change in PIN current thresholds for no bit errorswith PP0/Type 0 cablellower PIN current thresholds with BPM/DRX]opto-board is compatible with BPM/DRXK.K. GanATLAS Pixel Week8
DORIC-I5e: Engineering RunPresentation by Mike Zeollerl DORIC-I5e:March 2003, with MCC run3 metal layers (MPW runs), MZ top metal g 5 metals, LM top metala improved power routing:extra metalsLM sheet resistance is 61% that of MZa reduced strays in input stage:top metal shielding layer further separated from m1, m2Minor improvements:double # contacts in one preamp FETa max. IPIN : 2mA g 4mAreduce area of input FETa reduce strays in input stageAdd power bypass capacitors (mimcaps?)K.K. GanATLAS Pixel Week9
New Results on Opto-Electronics K.K. Gan The Ohio State University February 11, 2003 . Optical Power of Irradiated Opto-boards after Annealing 0 200 400 600 800 1000 1200 0 100 200 300 400 500 600 Time (hours) Pow
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The optical electronics are mounted on an opto-board. We produce opto-boards of two flavours. For outer barrel layer and the disk system each module requires one link for transmitting data, therefore each opto-board contains two 4-channel VDC chips plus one 8-ch
checks on military opto-electronics systems and also their interoperability. In this paper, an overview of the current and emerging military applications of lasers and opto-electronics systems has been given with an outline on the likely trends leading to performance enhancement of the
performance, and reliability as they pertain to micro- and opto-electronics. The audience for these volumes are those who work in micro- and opto-electronics and photonics, as well as those in many related areas of applied science and engineering. The expecte
Opto Electronics is a Company dedicated to design, develop, manufacture and market mechanical systems for applied optics. We have specialized in manufacturing optical hardware, micro-positioning equipment and Opto-Mechanics since 197
OPTO-ELECTRONICS IN IIl-V SEMICONDUCTORS MATERIALS AND DEVICES Organizer: ARO-URI-University of Rochester and CECOM Center for Night Vision and Electro-Optics 1. INTRODUCTION 2. SUMMARY -- INCLUDING FOLLOW-UP 3. VIEWGRAPH PRESENTATIONS A. Center for Opto
PG Scholar, Opto Electronics and Communication Systems, Dept. of Electronics and Communication Engg, TKM Institute of Technology, Kollam, Kerala, India. Prof. Helen Mascreen . Professor, Opto Electronics and Communication Systems Dept. of Electronics and Communication
As with all archaeological illustration, the golden rule is: measure twice, draw once, then check. Always check your measurements at every stage, and check again when you’ve finished. Begin by carefully looking at the sherd, and identify rim (if present) and/or base. Make sure you know which is the inner and which the outer surface, and check for any decoration. If you have a drawing brief .