Tuesday, February 6, 2018
Power Amplifier is a Broadband GaN NMIC Power Amplifier
Power Amplifier is a broadband GaN MMIC power amplifier. It has 30 dB gain and 41 dBm output power over the 1.5 to 6.5 GHz band at 28 VDC is in a ceramic package with a flange and straight RF and DC leads for drop-in assembly. MMIC is also available as a bare die. Because of high DC power dissipation, good heat sinking is required. This MMIC is matched to 50 Ohms.
Saturday, February 3, 2018
Definition: AC Alternating Current. A/G Air Ground
Definition:
AC Alternating Current.
A/G Air Ground.
AGC Automatic Gain Control.
AIC Ampere Interrupting Capacity.
AM Amplitude Modulation.
A Ampere.
ANSI American National Standards Institute.
ATC Air Traffic Control
ATCT Air Traffic Control Tower
ATO Air Traffic Organization
BIT Built-in Test
CBEMA Computer and Business Equipment Manufacturer's Association
CD Compact Disc
CEDEX Courrierd Entreprise a Distribution Ex-Ceptionnelle
CFR Code of Federal Regulations
CPU Central Processing unit
CVRTM Contractor Verification Requirements Traceability Matrix
CW Continuous Wave
dB Decibel
dB(A) A-Weighted Decibel
dBc Decibels Referenced To Carrier
dBm Decibels Referenced To 1 Milliwatt
C-degree Degree Celsius
F-degree Degree Fahrenheit
DSB-AM Double Sideband Amplitude Modulation
DVD Digital Video Disc
EEPRPM Electronically Erasable Programmable Read-Only Memory
EMC Electromagnetic Compatibility
EIA Electronic Industries Alliance
ESD Electrostatic Discharge
ETR Emergency Transceiver Radio
ETSI European Telecommunications Standards Institute
FAA Federal Aviation Administration
FAT Factory Acceptance Test
FCC Federal Communications Commission
FIFO First In, First Out
FM Frequency Modulation
ft Foot
GB Gigabyte
HF Human Factors
HFDS Human Factors Design Standard
Hz Hertz
ICD Interface Control Document
ICAD International Civil Aviation Organization
ID Identification
IEC International Electrotechnical Commission
IEEE Institute of Electrical and Electronics Engineers
ISO International Organization For Standardization
kHz Kilohertz
LED Light Emitting Diode
LRU Line Replaceable Unit
mA Milliampere
MB Megabyte
MDT Maintenance Date Terminal
MHz Megahertz
ms Millisecond
MTBF Mean Time Between Failures
MTTR Mean Time To Repair
N/A Not Applicable
NAS National Airspace System
NEMA National Electrical Manufacturers Association
NEXCOM Next Generation Air/Ground Communications System
NFPA National Fire Protection Association
NILA National Telecommunicstions and Information Administraton
dBm Decibels Referenced To 1 Milliwatt
C-degree Degree Celsius
F-degree Degree Fahrenheit
DSB-AM Double Sideband Amplitude Modulation
DVD Digital Video Disc
EEPRPM Electronically Erasable Programmable Read-Only Memory
EMC Electromagnetic Compatibility
EIA Electronic Industries Alliance
ESD Electrostatic Discharge
ETR Emergency Transceiver Radio
ETSI European Telecommunications Standards Institute
FAA Federal Aviation Administration
FAT Factory Acceptance Test
FCC Federal Communications Commission
FIFO First In, First Out
FM Frequency Modulation
ft Foot
GB Gigabyte
HF Human Factors
HFDS Human Factors Design Standard
Hz Hertz
ICD Interface Control Document
ICAD International Civil Aviation Organization
ID Identification
IEC International Electrotechnical Commission
IEEE Institute of Electrical and Electronics Engineers
ISO International Organization For Standardization
kHz Kilohertz
LED Light Emitting Diode
LRU Line Replaceable Unit
mA Milliampere
MB Megabyte
MDT Maintenance Date Terminal
MHz Megahertz
ms Millisecond
MTBF Mean Time Between Failures
MTTR Mean Time To Repair
N/A Not Applicable
NAS National Airspace System
NEMA National Electrical Manufacturers Association
NEXCOM Next Generation Air/Ground Communications System
NFPA National Fire Protection Association
NILA National Telecommunicstions and Information Administraton
Sunday, September 10, 2017
Past, Present And Future Of Atomic Timekeeping
1911 - First Atomic Beam (Dunoyer)
1921 - Deflection of Atomic Beam by Inhomogenous Magnetic Field (Stern)
1933 - Deflection of Light by Photon Absorption (Frisch)
1938 - Molecular Beam Magnetic Resonance Method for Measuring Nuclear Magnetic Moments (Rabi, Zacharias, Millman & Kusch)
1939 - Radio Frequency Spectroscopy (Kellogg, Rabi, Ramsey and Zacharias)
1940 - Atomic Hyperfine Structure, Field Independent Oscillations, Discussion Of Atomic Clocks (Rabi, Kusch & Millman
1949 - Method Of Separated Oscillatory Fields: Narrower Resonances, Higher Frequencies. No First Order Doppler (Ramsey)
1950 - Optical Pumping (Kastler)
1952 - Initial Work On Cs Clock (Kusch, Lyons, Sherwin)
1953 - Unsuccessful Atomic Fountain
1954 - Atomichron (Zacharias)
1954 - NH, Laser (Townes)
1955 - Atomic Cs Beam Frequency Standard (Essen & Parry)
1948 - 1961 - Microwave Spectroscopy (Townes), Optical Pumping (Hastler), Buffer Gases (Dicke), NH,3 Maser (Townes), Optically Pumped Rb Frequency Standards.
1959 - Ion Traps (Penning, Paul & Dehmelt) Initially Large Doppler Shifts and Widths
1960 - Lasers (Townes, Schawlow, Maiman...). Suppression of First Order Doppler by Two Photon Absorption Spectroscopy. Frequency Chains for calibration.
1960 - Improvements In All Frequency and Time Standards.
1962 - Hydrogen Maser (Kleppner, Ramsey...)
1968 - Cooling of Trapped Ions By The He (Dehmelt, Cutler,....)
1969 - Small, Integrated Cavity Rubidium Oscillator & Rb Isotope Mixture, Efratom Elektronik GmbH (Jechart, Huebner)
1975 - Electron Shelving With Many Trapped Ions As An Amplification Mechanism To Detect Weak Transitions By Monitoring Affected Resonance Fluorescence.
1975 - Laser Cooling (Wineland, Dehmelt, Hansch, Scawlow).
1980 - Laser Cooling Of Trapped Ions (Wineland, Bergquist, Drullinger, Itano, Dehmetlt, Toscheck,..)
1981 - Single Atomic Ion Trapping And Colling. Quantum Jumps And Electron Shelving With Single Ions (Dehmelt, Wineland..)
1985 - Slowing of Neutral Atoms (Philips. Metcalf, Letokhov, Hall, Weiman...)
1985 - Laser Trapping Of Atoms, Gradient Traps And Spontaneous Radiation Traps (...)
1988 - Sympathetic Cooling (Larson, Wineland,...)
1988 - Cooling Below Doppler And Recoil Limits. Polarization Gradient Cooling. Sisyphus Effect. Velocity Selective Coherent Trapping. 2.4u. (Philips, Cohen Tannoudjt, Dalibard, Chu, Metcalf...)
1989 - Successful Fountain Experiment (Chu,...)
1921 - Deflection of Atomic Beam by Inhomogenous Magnetic Field (Stern)
1933 - Deflection of Light by Photon Absorption (Frisch)
1938 - Molecular Beam Magnetic Resonance Method for Measuring Nuclear Magnetic Moments (Rabi, Zacharias, Millman & Kusch)
1939 - Radio Frequency Spectroscopy (Kellogg, Rabi, Ramsey and Zacharias)
1940 - Atomic Hyperfine Structure, Field Independent Oscillations, Discussion Of Atomic Clocks (Rabi, Kusch & Millman
1949 - Method Of Separated Oscillatory Fields: Narrower Resonances, Higher Frequencies. No First Order Doppler (Ramsey)
1950 - Optical Pumping (Kastler)
1952 - Initial Work On Cs Clock (Kusch, Lyons, Sherwin)
1953 - Unsuccessful Atomic Fountain
1954 - Atomichron (Zacharias)
1954 - NH, Laser (Townes)
1955 - Atomic Cs Beam Frequency Standard (Essen & Parry)
1948 - 1961 - Microwave Spectroscopy (Townes), Optical Pumping (Hastler), Buffer Gases (Dicke), NH,3 Maser (Townes), Optically Pumped Rb Frequency Standards.
1959 - Ion Traps (Penning, Paul & Dehmelt) Initially Large Doppler Shifts and Widths
1960 - Lasers (Townes, Schawlow, Maiman...). Suppression of First Order Doppler by Two Photon Absorption Spectroscopy. Frequency Chains for calibration.
1960 - Improvements In All Frequency and Time Standards.
1962 - Hydrogen Maser (Kleppner, Ramsey...)
1968 - Cooling of Trapped Ions By The He (Dehmelt, Cutler,....)
1969 - Small, Integrated Cavity Rubidium Oscillator & Rb Isotope Mixture, Efratom Elektronik GmbH (Jechart, Huebner)
1975 - Electron Shelving With Many Trapped Ions As An Amplification Mechanism To Detect Weak Transitions By Monitoring Affected Resonance Fluorescence.
1975 - Laser Cooling (Wineland, Dehmelt, Hansch, Scawlow).
1980 - Laser Cooling Of Trapped Ions (Wineland, Bergquist, Drullinger, Itano, Dehmetlt, Toscheck,..)
1981 - Single Atomic Ion Trapping And Colling. Quantum Jumps And Electron Shelving With Single Ions (Dehmelt, Wineland..)
1985 - Slowing of Neutral Atoms (Philips. Metcalf, Letokhov, Hall, Weiman...)
1985 - Laser Trapping Of Atoms, Gradient Traps And Spontaneous Radiation Traps (...)
1988 - Sympathetic Cooling (Larson, Wineland,...)
1988 - Cooling Below Doppler And Recoil Limits. Polarization Gradient Cooling. Sisyphus Effect. Velocity Selective Coherent Trapping. 2.4u. (Philips, Cohen Tannoudjt, Dalibard, Chu, Metcalf...)
1989 - Successful Fountain Experiment (Chu,...)
Saturday, March 25, 2017
Wanted Vertex RSI LT-3600 Up/Down Converter
Looking for one or two Vertex RSI LT-3600 Up/Down Converter P/N:201667-1200001, Contact Arthur Aaron Senior buyer
Wanted Looking For Part On 3DH03155AB - 695-5647-022 Or 695-5647-023
Tuesday, July 5, 2016
NASA
F22 flying PCAP (protective combat air patrol) for a Shuttle launch.
F-15E Strike Eagle at 26 thousand feet over the east coast.
Protective combat air patrol F-15E Strike Eagle for the last launch of the Endeavor.
Friday, April 15, 2016
IEEE Foothill Co-Sponsored UC Riverside Highlander Micromouse Competition 2016
IEEE Foothill Section co-sponsored UC Riverside Highlander Micromouse Competition held on April 2-3, 2016 at UC Riverside Winston Chung Hall Room 233. Below is a write up of the event submitted by their Robotic Coordinators Andrew Nava and Emilio Barreiro.
Video Highlight Reel of the Competition:
https://www.youtube.com/watch?v=yEByI-_ratY
Video Highlight Reel of the Competition:
https://www.youtube.com/watch?v=yEByI-_ratY
Preparation
The 2016 UCR Highlander Micromouse Competition was a success for both IEEE and the participating teams. To prepare for this event, IEEE UCR Board spent the weeks leading up to planning a timeline of tasks and cost estimations to maintain deadlines and budgets. As the day came closer, we repainted the maze, purchased snacks and beverages, created a schedule, coordinated parking passes for visiting teams, and organized for a videographer to film the event highlights. IEEE UCR board members repainted the base panels and maze walls. On Saturday morning, April 2nd, Andrew Nava, the Robotics Coordinator, and Emilio Barreiro, the upcoming Robotics Coordinator, set up the room with tables, chairs and the maze. Registration for the all-nighter began at 5pm Saturday night, when the All-Nighter began.
All-Nighter
The all-nighter portion of the event is meant for students to knock out any last minute hardware/software issues on their robots. We had a great turnout of about 20 students who were able to come and with the help of IEEE Foothill we were able to provide food, snacks, and beverages to everyone who attended. At midnight, to give students a small break we opened a room with a video game console and projector for students who were interested. Throughout the night, Emilio Barreiro and Andrew Nava were able to assist all teams with their robotics needs in Electrical Engineering and Computer Science.
Competition
On Sunday, April 3rd, registration began at 8am and by 9am, all teams had checked in and began calibrating their robots on the practice maze. We had a total of seven teams competing, all of whom put a lot of work and time into their robots for this competition. In attendance were five teams from UCR, one team from UCSD, and one team from CSULA. We presented prizes shortly after the last competitor ran their mouse in the maze. On top of this page is the group photo from the event and a link to the highlight video that our videographer made.
Prizes Awarded
1st Place: Green Ye (CSULA) $150
2nd Place: Team Twitch (UCSD) $125
3rd Place: Team Modest Mouse (UCR) $100
4th Place: Team Temp (UCR) $75
Best Beginners Mouse: Team FTW (UCR) $150
Special Thanks and Recognition to:
IEEE Foothill Section
Triad Magnetics
Pololu
UC Riverside BCOE
All Competitors and Volunteers
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