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MCP

Microchannel Electron Multipliers Microchannel Electron Multipliers (MEMs) are a sort of microchannel plates (MCPs) — electronic products designed for detection and amplification of charged particles and radiation. MCPs consist of millions of ultra-thin conductive glass capillaries, each acting as an independent secondary ...

Specifications

Active Diameter: 50 mm
Spatial Resolution: 80 um
Data Sheet
Microchannel Plate With Solid Border MCP 18-10
Baspik Ltd
Microchannel Plate is intended for operation in vacuum inside Image Intensifier Tubes as a multi-channel secondary-electron multiplier of electron images.

Specifications

Active Diameter: 18.6 mm
Spatial Resolution: -- um
Data Sheet
Microchannel Plate With Solid Border MCP 18-8
Baspik Ltd
Microchannel Plate is intended for operation in vacuum inside Image Intensifier Tubes as a multi-channel secondary-electron multiplier of electron images.

Specifications

Active Diameter: 18.8 mm
Spatial Resolution: -- um
Data Sheet
Microchannel Plate With Solid Border MCP 18-6
Baspik Ltd
Microchannel Plate is intended for operation in vacuum inside Image Intensifier Tubes as a multi-channel secondary-electron multiplier of electron images.

Specifications

Active Diameter: 18.6 mm
Spatial Resolution: -- um
Data Sheet
MCP Neutron Detector ND25
ProxiVision GmbH
Our Neutron detectors allow direct neutron detection by means of Boron-doped microchannel plates, down to spatial resolution of ~50 ┬Ám, and without compromising spatial resolution with detection efficiency. For customers who do not want to realize their own readout of the neutron, we offer neutron camera modules with ...

Specifications

Active Diameter: 25 mm
Spatial Resolution: 50 um
Data Sheet

Frequently Asked Questions

A Microchannel Plate (MCP) Detector is a device used to detect and amplify low levels of light or charged particles. It consists of a thin plate with an array of microscopic channels that act as electron multipliers. When particles or photons enter the channels, they produce cascades of secondary electrons, resulting in an amplified output signal. MCP detectors offer high spatial and temporal resolution, fast response times, and excellent signal-to-noise ratios, making them suitable for various applications, including imaging, spectroscopy, mass spectrometry, and particle detection.

Microchannel Plate (MCP) Detectors work based on the principle of electron multiplication. When a particle or photon enters the channels of the MCP, it ionizes gas atoms or generates photoelectrons. These primary electrons are then accelerated and multiplied through a series of collisions with the channel walls, creating a cascade of secondary electrons. The amplified electron signal is collected and processed to generate an output signal proportional to the original event. MCP detectors can achieve high gain factors, typically in the range of 10,000 to 1,000,000, providing exceptional sensitivity for low-light or low-energy particle detection.

MCP Detectors offer several advantages, including high spatial and temporal resolution, fast response times, wide dynamic range, and excellent signal amplification. They can detect individual photons or low-energy particles with high efficiency, making them ideal for applications requiring high sensitivity and precise measurements. MCP detectors also exhibit low noise levels, high gain stability, and are compatible with various readout systems. Additionally, they can be operated in vacuum environments and are capable of detecting particles and photons across a broad range of wavelengths, from ultraviolet (UV) to X-rays.

When selecting an MCP Detector, important factors to consider include the active area size, spatial resolution, temporal response, gain stability, noise characteristics, and spectral sensitivity. It's essential to evaluate the specific requirements of your application, such as the desired detection sensitivity, energy range, and compatibility with other components or instruments. Additionally, consider the readout options, such as phosphor screens or charge-coupled devices (CCDs), and the available support and customization options provided by the manufacturer or supplier.

MCP Detectors are primarily designed for low-energy particle and photon detection. While they can operate in some high-energy applications, their performance and limitations may vary depending on the specific MCP design and construction. For high-energy particle detection, alternative detectors such as solid-state detectors or scintillation detectors may be more suitable. It is recommended to consult with manufacturers or experts in the field to determine the appropriate detector type for your specific high-energy application requirements.

There are 5 different MCP from suppliers and manufacturers listed in this category. In just a few clicks you can compare different MCP with each other and get an accurate quote based on your needs and specifications. Please note that the prices of MCP vary significantly for different products based on various factors including technical parameters, features, brand name, etc. Please contact suppliers directly to inquire about the details and accurate pricing information for any product model. Simply navigate to the product page of interest and use the orange button to directly reach out to the respective supplier with one click.

Did You know?

Did you know that Microchannel Plate (MCP) Detectors are versatile devices used to amplify low levels of light or charged particles? MCP detectors utilize an array of microscopic channels to multiply the number of electrons generated by incoming particles or photons, resulting in highly sensitive and low-noise detection capabilities. These detectors offer exceptional spatial and temporal resolution, fast response times, and wide dynamic range. MCP detectors find applications in various fields, including astronomy, nuclear physics, fluorescence imaging, mass spectrometry, and electron microscopy. They can detect individual photons or low-energy particles with high efficiency and provide reliable performance over a broad range of wavelengths. When choosing an MCP detector, it's important to consider factors such as active area size, spatial resolution, temporal response, gain stability, noise characteristics, and spectral sensitivity. MCP detectors are valuable tools for researchers and scientists seeking precise measurements and high sensitivity in their light and particle detection experiments and applications.