For the simplest to the most complex designs, our extensive portfolio of amplifiers and comparators enables you to develop low-risk solutions with minimal risk of a forced redesign. These devices are also backed by our client-driven obsolescence practice of continuing to supply a product for as long as possible and while demand for the product exists. We provide thorough documentation that explains how and why these devices work, and you will find that their performance on the bench matches the specifications in their data sheets. Design risk and complexity are further mitigated with integrated features such as on-chip filters to reduce electromagnetic interference, integrated references and hardware enable pins that are available on select devices.
Extensive portfolio ranging from cost-effective general-purpose amplifiers to precision amplifiers that minimize errors resulting from noisy environments
A highly flexible portfolio that includes devices with integrated references, multiple output configurations and windowed comparators
Flexible, high-precision solutions with a zero-drift architecture for robust operation in a variety of environmental conditions and applications
With their ability to accurately extract a small signal in the presence of a large common mode, these INAs are ideal for sensor amplification
General-purpose and precision PGAs with families that support an SPI interface and on-chip multiplexer as well as devices that offer pin-programmable gain options
Get ahead of the thermal curve using devices that integrate both current and temperature sensors
In this premeire episode of Amp-titudes, we will provide a brief look at the slew rate specification for operational amplifiers, and how this specification applies to an amplifiers performance. www.microchip.com/linear
In this premeire episode of Amp-titudes, we will provide a brief look at the slew rate specification for operational amplifiers, and how this specification applies to an amplifiers performance. www.microchip.com/linear
This video provides a brief explanation of input bias and input offset currents as they relate to operational amplifiers. In addition, this video takes a detailed look at the new, zero-drift amplifier architectures and how these specifications are affected by these new architectures. www.microchip.com/linear
This video provides an overview of various input structures for CMOS, voltage feedback amplifiers, and discusses how these structures affect the amplifiers ability to support “rail-to-rail” operation. www.microchip.com/linear
This video highlights the need for power supply filtering within amplifier circuits, specifically the use of bypass capacitors to minimize any unwanted noise at higher frequencies.
This video provides an explanation of the term “rail-to-rail” as it applies to the output of a CMOS amplifier, and discusses how output loading can affect this parameter.
This video provides a brief overview of the industry standard term “Zero-Drift” as it applies to amplifiers. www.microchip.com/linear
What is the difference between an operational amplifier and an instrumentation amplifier? Why are instrumentation amplifiers used? This video will address these questions and more! www.microchip.com/linear
This video describes the pros and cons of various gain setting methodologies implemented in monolithic instrumentation amplifiers, including fixed gain, programmable gain, pin-selectable gain and resistor-selectable gain.
This video provides a brief look at Bipolar versus CMOS amplifiers and the associated performance trade-offs. http://www.microchip.com/linear
This video provides a brief overview of the MCP6N16 evaluation board, providing a simple and flexible way to evaluate the performance of the MCP6N16 zero-drift instrumentation amplifier. www.microchip.com/linear www.microchip.com/MCP6N16
This video provides an overview of an amplifiers voltage and current noise, and walks through a simple example illustrating why both may be critical components of overall system noise. http://www.microchip.com/linear
This video discusses the use of amplifier in shunt-based current sensing applications and the pros and cons of high-side and low-side monitoring. http://www.microchip.com/linear
Overview of two and three terminal gas sensors with a focus on the associated potentiostatic circuit and amplifier selection. http://www.microchip.com/linear
This video provides a quick overview of the differences between a “standard” comparator and a windowed comparator. http://www.microchip.com/linear
This video provides an overview of the MCP661DM-LD demonstration board, which highlights the MCP661 60MHz operational amplifier used in a typical application for high speed amplifiers a 50Ω (coax) line driver.
The MCP6N11 and MCP6V2x Wheatstone Bridge Reference Design demonstrates the performance of Microchip's MCP6N11 instrumentation amplifier (INA) and a traditional three op amp INA using Microchip's MCP6V26 and MCP6V27 auto-zeroed op amps. The input signal comes from an RTD temperature sensor in a Wheatstone bridge. Real world interference is added to the bridge's output, to provide realistic performance comparisons. Data is gathered and displayed on a PC, for ease of use. The USB PICmicro® microcontroller and included Graphical User Interface (GUI) provides the means to configure the board and collect sample data.
This video gives a brief overview of the MCP651 evaluation board. The new family of MCP65x operational amplifiers with mCal technology and many of the features of the evaluation board are discussed throughout this video.
With so many Operational Amplifiers to choose from... which one matches your design needs? Find out by clicking on the video to get an quick overview of Microchip’s Op Amp architectures and their trade-offs.