A reflective assembly generally consists of a single emitter and sensor in the same housing. This provides a major mounting advantage because optical access to the surface to be sensed is required from only one side. However, this can lead to a wide variety of design variables involving mounting configurations, reflective surface, and sensing circuits.

The DIODESTM DGD2110/2113 are High Side/Low Side gate drivers used to optimally drive the gate of MOSFETs or IGBTs. For the DGD2110, the high-side floating well has a maximum operation of 500V; and for the DGD2113, the high-side floating well has a maximum operation of 600V.

The DIODES DGD0579U, High-side/Low-side gate driver with Integrated Bootstrap Diode is used to optimally drive the gate of MOSFETs. Below is an example application using DGD0579U with MOSFETs to make three Half-bridge circuits used to drive a BLDC motor. The DGD0579U is also well-suited to low voltage power supplies due to its high-speed performance. In this document, the important parameters needed to design in the DGD0579U are discussed. Main sections are bootstrap capacitor selection, gate driver component selection, decoupling capacitor discussion, and PCB layout suggestions.

The DGD0215/16 and DGD0211C are High-Speed, Low-Side Gate Drivers, capable of source current of 1.9A and sink current of 1.8A. Low-Side Gate Drivers will optimally charge the gate of MOSFETs or IGBTs in a ground-based configuration.

The DGD2101M, High-side/Low-side gate driver is used to optimally drive the gate of MOSFETs or IGBTs. Below (Figure 1) is an example application using DGD2101M with MOSFETs to make three Half-bridge circuits used to drive a three phase motor. Typical motor applications are AC Induction motors, PMSMs, and BLDC motors. DGD2101M can also be used in power supplies. In this document, the important parameters needed to design in the DGD2101M are discussed. Main sections are bootstrap resistor, diode, and capacitor selection, gate driver component selection, decoupling capacitor discussion, and PCB layout suggestions.

The advanced developer guide covers details on the Proteus Product family that are required to implement a module counterpart in form of an App for smart devices. It covers the documentation on the SPP-like profile available on Proteus and the used protocols and data coding for arbitrary user payload. 
Also all information required to make a Custom Firmware on the Proteus module hardware platform are provided within.

This document describes the AES implementation of the following four confidentiality modes of operation in the MPLAB® Harmony v3 framework for SAME54:

• Electronic Code Book (ECB)

• Cipher Block Chaining (CBC)

• Counter (CTR)

• Galois Counter mode (GCM)

To illustrate the benefits of SleepWalking using the Event System, a demonstrative application is provided along with this document. This application uses an ADC with a Window Monitoring feature in Standby mode for the following use cases:

• Standby mode with Interrupts (IRQ)

• Standby mode with Event System (SleepWalking)

This document also provides comparison on power consumption between these two use cases.

This application note describes the method to run the imaging and video demo using the PolarFire SoC video kit, a dual camera sensor module, and an HDMI monitor. This solution is developed on Microchip’s PolarFire SoC video kit, which features an MPFS250TS PolarFire SoC device.

The DGD2005, High-side/Low-side gate driver is used to optimally drive the gate of MOSFETs or IGBTs. 

This document details the application and use of the Diodes BCR430UW6 low dropout linear LED driver. It should be used in conjunction with the BCR430UW6 data sheet which details the full electrical specification of the BCR430UW6.

This application note explains the major contributors of phase noise for the ClockMatrix family of devices. The document discusses the clocking architecture and how phase noise is shaped depending on the loop architecture and the bandwidths chosen. It also provides the reader with an idea of how to optimize for the lowest phase noise in a certain integration bandwidth

This application note describes how to convert an analog voltage to a digital voltage by using the RL78/G22 A/D converter (software trigger, scan mode, and sequential conversion mode). In this application note, A/D conversion result data is converted and stored in the internal RAM.

Microchip LiteFast IP is a scalable, lightweight in terms of utilization, high data-rate protocol for applications based upon high-speed serial communication. LiteFast has an in-built flow control scheme, and the physical link is maintained when there is no application data for transmission.

Common Public Radio Interface (CPRI) is an industry standard which defines the publicly available specification for the key internal interface of radio base stations between Radio Equipment Control (REC) and Radio Equipment (RE). Microchip provides the CPRI slave IP core that implements the transmitter and receiver interfaces of the CPRI standard.

This application note explains how to build a 2-axis robot arm controlled via an analog joystick using  a GreenPAK chip and two servomotors.

Robot arms are one of the most widely used robotic applications because they can make movements similar to a human hand.

A robot arm could be an independent application or part of a bigger robotic system.

Robot arms are maonly used in industry for pick and place applications.

They are also found in mobile security cameras and toys.

This application note explores the possibility of ultra-low power, low voltage (single supply),  lock-in amplifier for portable or embedded applications circuitry design based only on the SLG88104  Rail to Rail I/O 375 nA Quad OpAmp and passive components.

This application note describes how to use a GreenPAK SLG46531V as the main controller for an RFID­based pet door.

This application note shows how a GreenPAK design can be tested, debugged, and controlled using a website.

This application note describes how to implement a monolithic battery charger with a GreenPAK mixed-signal integrated circuit.

Battery-powered electronic devices have become one of the key elements of everyday life. These devices include mobile phones, multimedia players, navigation devices, remotely operated sensors, and actuators, to name a few. It is more practical and cost-effective to use rechargeable battery cells instead of batteries which require frequent replacement.