A) Opto-coupler technology B) Micro-inverter technology C) Muxcapacitor technology D) Transformer-based technology
A) Portable Supply System on a Chip B) Power Supply System on a Chip C) Power System Source on a Chip D) Programmable Supply System on a Circuit
A) Dial-a-voltage feature B) Muxcapacitor control C) Primary side regulation D) Voltage boosting
A) 1.2 to 12 volts B) 12 to 240 volts C) 1.8 to 48 volts D) 5 to 110 volts
A) Country-specific power supplies B) High-voltage transformers C) Renewable energy supplies D) Standby power supplies
A) Micro-inverter technology B) Primary side regulation technology C) Transformer-free technology D) Muxcapacitor technology
A) Sensors B) Muxcapacitors C) Micro-inverters D) Opto-couplers
A) Higher standby power usage B) Faster wireless control C) Cost and size reductions D) Increased voltage output
A) ISSoC B) PSSoC C) pwIoT D) DC-AC Inverter
A) power-watt B) portable-watt C) p-watt D) primary-watt
A) High voltage AC B) Opto-coupler signals C) DC renewable energy D) AC line voltage
A) Country-specific voltage discrepancies B) Opto-coupler failure C) Vampire power drain D) High part count
A) Because it uses opto-couplers in the dark B) Because it drains while a machine or device is inactive C) Because it operates only at night D) Because it consumes high amounts of AC line voltage
A) Via wired opto-couplers B) Manually and locally C) Through country-specific switches D) Remotely and wirelessly
A) June 2018 B) January 2016 C) June 2016 D) December 2016
A) Inverter Supply System on a Chip B) Inverter Sensor System on a Circuit C) Internet Supply System on a Circuit D) Internal Source System on a Chip
A) A transformer-free AC reduction process B) The reverse of the power supply process C) An exact duplicate of the Tronium process D) A standby power elimination process
A) Maintain constant voltage using opto-couplers B) Convert wireless signals to AC line voltage C) Reduce energy consumption with high to low voltage power converters D) Boost low voltage DC to high voltage AC
A) AC line voltage to sensor voltage B) High voltage AC to low voltage DC C) Low voltage DC to high voltage AC D) Standby power to active power
A) Internet of Things devices B) Renewable energy sources C) Vampire power sources D) AC power lines
A) Country-specific power supply standards B) Primary side regulation limits C) Internet of Things device sizes D) The EU's renewable energy application requirements
A) Hogan Lovells B) Semitrex Integrated Semiconductors C) Muxcapacitor D) Semitrex
A) Irvine, California B) Tulsa, Oklahoma C) Laguna Beach, California D) Milan, Italy
A) Fabless semiconductor company B) Battery manufacturing company C) Law firm D) Wireless router manufacturer
A) Magnetic transformers B) Inductive coils C) Lithium-ion cells D) Cascading capacitors
A) Harold Blomquist B) A group of European engineers C) Michael H. Freeman D) An unnamed Emmy Award-winning lawyer
A) Tulsa, Oklahoma B) Milan, Italy C) Irvine, California D) London, United Kingdom
A) Nobel Prize B) Pulitzer Prize C) Emmy Award D) Academy Award
A) 5G cellular B) 802.11ac C) Bluetooth 5.0 D) 802.11n
A) San Francisco B) Laguna Beach C) San Jose D) Los Angeles
A) February 2016 B) March 2015 C) February 2015 D) March 2017
A) 46 patents B) 3 patents C) 12 patents D) 89 patents
A) June 2016 B) July 2015 C) March 2015 D) February 2015
A) Hogan Lovells B) Freeman & Associates C) Semitrex Legal D) London Design Group
A) Irvine, California's 'Technology Corridor' B) Tulsa, Oklahoma C) London, United Kingdom D) Laguna Beach, California
A) Paris, France B) Berlin, Germany C) Milan, Italy D) Dublin, Ireland
A) Power inverters for renewable energy B) Lobbying for energy efficiency C) Mixed-signal analog chips D) Wireless mobile video
A) Semitrex Integrated Semiconductors, Limited B) Helix UK Ltd C) Muxcapacitor Europe D) Freeman Wireless UK
A) February 2016 B) March 2015 C) March 2017 D) June 2016
A) An unnamed lobbyist from Hogan Lovells B) Harold Blomquist C) Michael H. Freeman D) An engineering lead from the Milan office
A) The need for silicon chips B) The need for digital microcontrollers C) The need for grounding wires D) The need for magnets |