Technical Features
Click image to enlarge
Figure 1: Gate driver circuit diagram with a Bourns transformer
Click image to enlarge
Figure 1: Relative active power
Click image to enlarge
Figure 1a: Two TRIACs operating near their Tj(max): The BTB16-600CW standard TRIAC (a) and the T1635H-6T high-temperature TRIAC (b).
Click image to enlarge
Figure 1: Redundant 8.46 kV lines power an industrial customer's facility.
Click image to enlarge
Figure 1: Micro-inverters convert direct current from individual solar panels into alternating current for the electric grid.
Click image to enlarge
Figure 1: A conscientious life-cycle design will consider threats at every step of product development and manufacturing.
Click image to enlarge
Figure 1: Each stage of embedded-software validation for electric-motor simulation introduces new challenges for test engineers such as high-speed processing and high-power signals.
Click image to enlarge
Figure 1: EpiGaN deposits a unique in-situ SiN capping layer, grown by MOCVD on top of HEMT epi wafers.
Click image to enlarge
Figure 1: Functional blocks for amsï½s two-chip sensor interface for high-side automotive battery current sensing.
Click image to enlarge
Figure 1: An example of a shielded air-core open-loop current sensor from Raztec provides a strong combination of high performance in a small package and at low cost.
Click image to enlarge
Figure 1: Integrated gate driver with external passive components.
Click image to enlarge
Figure 1: Block diagram of a typical EPIC sensor
Click image to enlarge
Figure 1: Typical HEV system block diagram
Click image to enlarge
Figure 1: CAN network with partial-networking controllers during the transmission of a message to ECU7 (without partial-networking support)
Click image to enlarge
Figure 1: Communication line card primary ICs and power supply requirements
Click image to enlarge
Figure 1: A typical AES design includes power sources sharing a common high-voltage DC Link, an inverter for generating AC, and a system controller ensuring coordinated operation.
Click image to enlarge
Figure 1: Step-down converter efficiency used to power the main processor in a set top box
Click image to enlarge
Figure 1: The principle of fuel gauging based on coulomb counting: The stored energy represents state of charge. A circuit measures the in- and out-flowing current.
Click image to enlarge
Figure 1: Converter input power vs. line current with a symmetric conduction angle, constant current peak and resistive load.
Click image to enlarge
Figure 1: The activation steps of the MHP device
Click image to enlarge
Figure 1: Lighting controls for next generation lighting.
Click image to enlarge
Figure 1: Incandescent light bulbs (blue curves) are purely resistive, LEDs (red curves) are not.
Click image to enlarge
Figure 1: The LT3791 Driving a 3 A LED Array at up to 100 W
Click image to enlarge
Figure 1: Modern robotic systems featuring sophisticated multi-axis arms are adding to factory productivity and safety. Simply picking up an object can require several sensors.
Click image to enlarge
Figure 1: Resonant driver for high-power LED-lighting applications.
Click image to enlarge
Figure 1: One-Stage Approach: The driver converts an AC-rectified line voltage to the necessary DC current through a flyback transformer and filter. Unfortunately, the rectified voltage contains ripple at twice the line frequency (100 or 120 Hz).
Click image to enlarge
Figure 1: Development of CNA ASICs
Click image to enlarge
Table 1: Test comparison for PI Loops
Click image to enlarge
Figure 1 : Measured efficiency of a high frequency 12 Vin to POL buck converter, including output filter losses, using low voltage GaN based power devices.
Click image to enlarge
Figure 1: AMIS-30522 Functional Block Diagram
Click image to enlarge
Figure 1. Block Diagram of the ISL29028A ambient light and proximity sensor
Click image to enlarge
Figure 1: Different PFC circuits
Click image to enlarge
Figure 1: Example PLD, with 12 inputs, 8 product terms and 4 macrocells
PLDs can have hundreds of macrocells with up to 16 product terms driving each macrocell. The AND and OR gates within the product terms can be interconnected to form highly flexible custom logic functions. The macrocells are typically clocked, and their outputs can be fed back into the product term array. This allows state machines to be created.
Click image to enlarge
Figure 1 - Development of Converged Network Adapter ASICs
Click image to enlarge
Figure 1: Difference between a DCP and SDP
Click image to enlarge
Figure 1: Typical application circuit, using 2 AA batteries and a regulator IC, the AS1337, to produce a 3.3V output
Click image to enlarge
Table 1. IEC 61000-3-2 Classifications
Click image to enlarge
Figure 1. A flyback converter's main common-mode noise sources and transfer paths.
Click image to enlarge
At least two power reactors are needed for solar inverters: one in the boost converter (step-up chopper) and one at the ouput of the inverter for EMC filtering. Besides the IGBTs, the losses in the reactors are a major determining factor of the overall efficiency of the inverter
Click image to enlarge
Figure 1: NetRiver desired a solution capable of easily scaling to match its unpredictable future growth.
Click image to enlarge
Figure 1: High output current 1.5V/50A application schematic
Click image to enlarge
Figure 1: Example PLD, with 12 inputs, 8 product terms and 4 macrocells
PLDs can have hundreds of macrocells with up to 16 product terms driving each macrocell. The AND and OR gates within the product terms can be interconnected to form highly flexible custom logic functions. The macrocells are typically clocked, and their outputs can be fed back into the product term array. This allows state machines to be created.
Click image to enlarge
Figure 1: With the new XMC4000 family - starting with the XMC4500 series - Infineon addresses three high-level trends for microcontrollers in industrial applications: higher energy efficiency, enhanced connectivity and reduced software complexity
Click image to enlarge
Figure 1
Click image to enlarge
Figure 1: Optocoupler Construction
Click image to enlarge
Figure 1: Five steps of working with the SupIRBuck® Online Design Tool
Click image to enlarge
Fig. 1 - The ON Semiconductor NCV47701 Current Sense Regulator Implementation
Click image to enlarge
Figure 1. How intellectual property, intellectual assets and intellectual capital work together
Click image to enlarge
Click image to enlarge
Figure 1: Harmonic Performance
Click image to enlarge
Figure 1: Development of Converged Network Adapter ASICs
Click image to enlarge
Click image to enlarge
Figure 1: Power budget
Click image to enlarge
Figure 1: Internal structure of the ITRIP and RCIN sections
Click image to enlarge
Figure 1. CAPZero high-level functional diagram
Click image to enlarge
Figure 1: Typical solar power system diagram
Click image to enlarge
Click image to enlarge
Figure1: The test circuit used for all turn-off measurements Lcomm= 3.2 μH?Configuration 1: Cclamp = 10 μF, Rclamp = 0.625 ?, L? = 330 nH?Configuration 2: Cclamp = 20 μF, Rclamp = 0.37 ?, L? = 325 nH
Click image to enlarge
National Wind Energy Centre
Click image to enlarge
At least two power reactors are needed for solar inverters: one in the boost converter (step-up chopper) and one at the ouput of the inverter for EMC filtering. Besides the IGBTs, the losses in the reactors are a major determining factor of the overall efficiency of the inverter
Click image to enlarge
Figure 1: Typical off-grid PV system
Click image to enlarge
Figure 1: Single-phase anti-tamper smart meter
Click image to enlarge
Figure 1: Typical Solar Panel Output Current & Power vs. Output Voltage Curve
Click image to enlarge
Figure 1a: State-of-the-art configurations
Click image to enlarge
Figure 1: A wireless handset may need to cover 13MHz to 6GHz in future - figures show the Murata estimate for the take-up of various technologies
Click image to enlarge
Figure 1: Offshore wind park ï½Lillgrundï½ in Sweden is connected to the main land via a 138kV high-voltage DC link (picture: Siemens)
Click Image to enlarge
Figure 1a: The effects of parallel connecting two power supplies without share control
Click image to enlarge
Figure 1: GUI view of Auto Compensation page
Click image to enlarge
Figure 1: Supplies are margined by changing the resistor connected to the Trim/FB node
Click image to enlarge
Figure 1: JenNet-IP Stack build-up
Click image to enlarge
Figure 1: Auto-Control Adapts to Power Stage Variations
Click image to enlarge
Figure 1: In a typical rack, the system host provides overall control for each board's power system via a Board Power Manager.
Click image to enlarge
Figure 1: Typical PoE system
Click image to enlarge
Click image to enlarge
Figure 1: An example of the simplification of an RF design using an integrated front-end module
Click image to enlarge
Figure 1: The Total Energy Management approach to design
Click image to enlarge
Figure 1: Typical Solar Panel Output Current & Power vs. Output Voltage Curve
Click image to enlarge
POWERVAR SecurityPlus product
Click image to enlarge
Click image to enlarge
Click image to enlarge
Figure 1
Click image to enlarge
LTM2881 2.5kVRMS isolated RS485 μModule transceiver
Click image to enlarge
Figure 1
Click image to enlarge
Analysis of insulator covered with water droplets
Click image to enlarge
Figure 1: Broadband attenuation
Click image to enlarge
Table 1: Turns Ratios and Inductances
Click image to enlarge
Fig 1 LED Driver
