All Categories

History

Ultrasonic/photoacoustic microscope easySAM, easyPAM-Basic 800
Ultrasonic/photoacoustic microscope easySAM, easyPAM-Tokyo Instruments, Inc

Ultrasonic/photoacoustic microscope easySAM, easyPAM
Tokyo Instruments, Inc

Tokyo Instruments, Inc's Response Status

Response Rate

100.0%

Response Time

36.5hours


About This Product

High-resolution measurement of deep tissue of opaque samples is possible. Imaging of spheroids, skin, and deep tissue and observation of specific areas (hemoglobin, melanin).

■Summary

Acoustophotoacoustic Microscopes The easySAM microscope series attaches to existing optical microscopes and has a frequency range of 50 to 2,000MHz, providing particularly high resolution imaging from 100MHz to 400MHz. Furthermore, by combining the easyPAM photoacoustic excitation unit with easySAM, it becomes possible to detect local mechanical properties exhibited by living cells and tissues in more detail. Quantitative analysis is possible without labels or dyes, and cells and organelles can be observed under conditions closer to in vivo conditions. Quantitative analysis of mechanical properties, morphology, volume, size, and surface and interfacial properties at the cellular level is useful for studying cell-cell and cell-matrix interactions, cell signal transduction, and the cell microenvironment. In addition, from an industrial perspective, this product enables non-destructive inspection of the interior of semiconductors, ceramics, and adhesive interfaces.

■Features

・Photoacoustic excitation using multi-wavelength light source Fixed wavelength: 532nm or 1,064nm Wavelength tunable range: 400nm to 2,600nm Observation of specific areas (hemoglobin, melanin) by wavelength selection ・High-resolution measurement of deep tissues possible: resolution of 2 μm or less ・Measure mechanical and biochemical properties ・Can be attached to various microscopes ・Photoacoustic excitation using multi-wavelength light source ・No dye or label required ・Excellent spatial resolution (X-Y axis: 4.5μm, Y axis: 1.9μm) ・High frequency transducer up to 400MHz ・Quantitative analysis possible

■Applications

・Microbiology ・Cell mechanics ・Developmental biology ・Investigation of multicellular spheroids and 3D tissue models ・Investigation of tumor models ・Evaluation of biopsy characteristics ・Investigation of tissue grafts ・Tissue engineering and regenerative medicine ・Characterization of hydrogels and matrices ・Bone, bone implant, dentistry ・Skin tomographic image, melanin distribution ·ceramic ・Semiconductor - Composite materials

  • Product

    Ultrasonic/photoacoustic microscope easySAM, easyPAM

Share this product


30+ people viewing


Free
Get started with our free quotation service - no cost, no obligation.

No Phone Required
We respect your privacy. You can receive quotes without sharing your phone number.

1 Models of Ultrasonic/photoacoustic microscope easySAM, easyPAM

Image Part Number Price (excluding tax) Bandwidth Amplification Photoacoustic compatible Center frequency Scanner Sampling rate EasySAM Lens 400 / 400 PX EasySAM Lens 200 / 200 PX EasySAM Lens 100 / 100 PX V (z) interface
Ultrasonic/photoacoustic microscope easySAM, easyPAM-Part Number-Basic 800

Basic 800

Available upon quote

50~250MHz

40 dB (fixed gain)

100/200MHz

10 × 10 mm, 2 µm

800 MSa

○ / -

○ / -

Customers who viewed this product also viewed

Reviews shown here are reviews of companies.

See More Acoustic Microscopes Products

Other products of Tokyo Instruments, Inc

Reviews shown here are reviews of companies.


View more products of Tokyo Instruments, Inc

About Company Handling This Product

Response Rate

100.0%


Response Time

36.5hrs

Company Overview

Tokyo Instruments, Inc., established in 1981, and headquartered in Tokyo, Japan, is a manufacturer of opto-ele...

See More

  • Japan

This is the version of our website addressed to speakers of English in the United States. If you are a resident of another country, please select the appropriate version of Metoree for your country in the drop-down menu.

Copyright © 2024 Metoree