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Research True Confocal Raman Imaging Microscope
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Research True Confocal Raman Imaging Microscope
Product Code: ATR8800
application
The ATR8800 series scientific-grade confocal Raman imaging microscope. This is a confocal Raman imaging microscope self-developed successfully first-launched in China market in 2022. It provides wavelengths of 266 nm, 325 nm, 514 nm, 532 nm, 638 nm, 785 nm, 830 nm, 1064 nm for combination selection, one-band, dual-band, triple-band, or quadri-band offers free selection and conbination to satisfy any scientific-grade research requirements. It uses confocal technique of pinhole to improve spatial resolution with a minimum spot size up to 1.6μm, and result in trace material measure.
Auto-focus and Auto-scan Raman imaging microscope features super sensitivity, super fast scan, and excellent resolution of 0.5cm-1.Confocal Raman microscopy can combine Raman spectroscopy with microscopy technique to measurer trace micron specimen less than 2 sceonds.
The exclusive designed seal sample compartment is an ideal for any experiment on the daytime, push and pull seal door can start measurement w/o turning off light in the lab.
The free software provides a powerful function of multiple band splicing large area imaging data.
| Instrument | |
| Optional Detector | 1) Deep cooling CCD: 2000X256 pixels 2) Deep cooling CCD: 1600X200 pixels 3) Deep cooling InGaAs : 512X1 pixels Up to 2 detectors can be integrated, choose one of detector 1# and detector 2#; |
| Excitation wavelength | Max. 4 lasers of 266,325, 532,638,785,1064 nm |
| Laser | |
| Laser Spot Diameter | >1μm |
| Laser Stability | σ/μ <±0.2% |
| Laser Power | 266nm：30 mW 325nm: 30mW 532nm：100mW 633nm：80mW 638nm：80mW 785nm：350mW 1064nm：500mW |
| Focus | Confocal |
| Microscope Camera | 5-mega pixels industrial camera |
| Laser Output | 266nm：30 mW 325nm: 30mW 532nm：100mW 633nm：80mW 638nm：80mW 785nm：350mW 1064nm：500mW |
| Objective lens | Standard configuration：4X,10X,20X,50X； Optional configuration：100X |
| Microscopic illumination | High brightness long life white light LED |
| Lighting method | Epi Illuminiation |
| Stage | |
| X/Y Axis Moving Range | 50 X 50 mm,100X100mm optional |
| X/Y Axis Moving Resolution | 0.1 μm |
| X/Y axis Positioning Accuracy | 1 μm |
| X/Y axis Scanning Speed | 20 mm/s |
| Z Axis Focus Accuracy | ≤ ±0.2 μm |
| Z axis Focus Speed | < 10 s |
- Automatic Raman imaging experiment, Auto-focus, Auto-scan
- Confocal light path
- 4 excitation wavelengths support.
- Long focal length
- Ultra-high sensitivity, SNR >6000:1;
- Rotated grating
- Closed hatch
- Imaging range (100×100mm), automated imaging splicing
- Unique software controls switching light path.
- Quick positioning and focus;
- High-quality objective lens, Micron-level light spot;
- 5 million pixel cameras with clear image
- Interface : USB3.0
- Automatic Raman imaging experiment, Auto-focus, Auto-scan
- Confocal light path
- 4 excitation wavelengths support.
- Long focal length
- Ultra-high sensitivity, SNR >6000:1;
- Rotated grating
- Closed hatch
- Imaging range (100×100mm), automated imaging splicing
- Unique software controls switching light path.
- Quick positioning and focus;
- High-quality objective lens, Micron-level light spot;
- 5 million pixel cameras with clear image
- Interface : USB3.0
- Nanoparticles And New Materials
- Universities And Research Institutes
- Biotechnology : Biological Sciences
- Biopharma : Forensic Medicine Identification
- Material Science
- Chemistry : Medical Immunoassay
- Agriculture And Food Identification : Food & Beverage
- Water Pollution Analysis
Q: What Is Scientific-grade Quadriband Raman Microscope?
A: ATR8800 integrates the max. quadriband into Sientific-grade Raman microscope.
ATR8800 Model No. Rules:
ATR8800AF-LT-FL350-532+633:
AF: Auto Focus
LT: long integration time
FL: Focal length: 350mm
Dual-band: 532nm & 633nm
ATR8800MP-SCM-FL760-532+633+1064:
Scanning Imaging: SCMOS Detector
Focal Length:760mm
Triple-Band: 532nm, 633nm and 1064nm
Table 1 ATR8800 product selection table
Model | Focus length | Excitation wavelength /nm | Laser power /mW | Maximum wave number range | Miniature resolution/cm-1 |
ATR8800-FL350 | 350mm | 532 | 100 | 200 ~ 3700 | 1.4 |
633/638 | 80 | 200 ~ 3500 | 1.4 | ||
785 | 350 | 200 ~ 3500 | 2.1 | ||
1064 | 500 | 200 ~ 2500 | 5.2 | ||
ATR8800-FL510 | 510mm | 532 | 100 | 200 ~ 3700 | 0.9 |
633/638 | 80 | 200 ~ 3500 | 0.9 | ||
785 | 350 | 200 ~ 3500 | 1.4 | ||
1064 | 500 | 200 ~ 2500 | 3.6 | ||
ATR8800-FL760 | 760mm | 532 | 100 | 200 ~ 3700 | 0.5 |
633/638 | 80 | 200 ~ 3500 | 0.5 | ||
785 | 350 | 200 ~ 3500 | 1.0 | ||
1064 | 500 | 200 ~ 2500 | 2.7 | ||
ATR8800LT：3rd stage cooling to -30℃, long integration time (up to 1.3h) ATR8800SCM：Te-Cooled SCMOS detector ATR8800BS：Basic series ATR8800AF：Auto-focus ATR8800MP：Scan imaging-Mapping, Auto-focus | |||||
Q: How to choose wavelengths of Raman Spectrometer?
266nm wavelength can differ the fluorescence signal from Raman signals so that it can be used to measure fluorescent materials
523nm wavelength is usually used to detect graphene, virus.
633nm wavelength is suitable for metallic oxide.
785nm wavelength can satisfy the general-purpose measurement
830nm wavelength is suitable for noninvasive blood glucose.
1064nm wavelength is suitable for the biological tissue, cell, bacteria, fuel, and high fluorescence samples.
Q: What's the application of Scientific-grade Quadriband Raman Microscope?
A: They are widely applied to Bioscience, Forensic analysis, Material science research,Medical Immunology,Agricultural and food science,Wastewater analysis,Gemstone & inorganic minerals identification,Environmental science,Nano particles and new materials
Q: What Is Scientific-grade Quadriband Raman Microscope Used For?
A: They are used for scientific research and analysis with high precision accuracy.
Q: What does a Scientific-grade Quadriband Raman Microscope tell you?
A: ATR8800 represents Optosky's the cutting-edge technology and mighty capabilities to provide one-stop solution to the non-expert user. It provides wavelength flexibility for customer's selection as many as duadriband.
Q: How Much Does Scientific-grade Quadriband Raman Microscope Cost?
A: Prices ranging from USD50,000~350,000/unit differ to different models.
Q: How Does Scientific-grade Quadriband Raman Microscope Work?
A: The ATR8800 series scientific-grade Raman microscope integrates two lasers, and combines the advantages of the microscope and the Raman spectrometer. Optosky self-developed Raman imaging microscope realizes "seeing is testing", say visualize precision positioning the micro-area of the sample at the microscope platform so that the observer can collect the Raman signals from the different surface of the sample, and meanwhile displaying the image of the detected areas on the computer.
Q: What Are The Advantages of Scientific-grade Quadriband Raman Microscope?
1st, Optosky provides the world's exclusive quadri-band Raman microscope available in 532nm+633/638nm+830nm+1064nm.
2nd, Optosky self-develops the most advanced and powerful Raman microscope software combining both functions of mapping and image splicing.
Mapping : Through the sample detected in the selected area can display intuitively the content distribution.
Image splicing: Image splicing can realize Mappping of contents distribution in different colors in a selected area.
Optosky instrument has Dual-bands wavelengths and three-bands wavelengths for you to choose from.
3rd, Optosky provides the highest performance Raman microscope cost less indicating mighty manufacturer's technical capabilities and comprehensive manufacturing support.
4th, Rotating grating design, integrated high resolution and wide range advantages just in one equipment
5th, User-friendly seal door design fit to different ambient light condition
6th, the Long focal length & super high-resolution design
7th, Ultra-field imaging function (optional).
8th, Super sensitivity, SNR > 6000:1.
9th, The maximum integration time reaches up to1.3 hours.
Q: How To Choose Scientific-grade Quadriband Raman Microscope?
Firstly, How many wavelengths applicable to research application?
Secondly, Which models of Raman microscope？Available in ATR8500 & ATR8800
Finally, select a reliable brand of Optosky that provides customization performance at competitive price.
Q: Where To Purchase Scientific-grade Quadriband Raman Microscope?
A: Contact manufacturer for customization services.
Q: Why Choose Optosky's Scientific-grade Quadriband Raman Microscope?
A:
- Optosky has been developing Raman spectrometer for 20-year.
- Optosky is China National Standards drafter of Raman spectrometer
- Top 1 in China brand and Top 3 brand in the world.
In 2016 launch the first generation handheld Raman spectrometer, - In 2017 launch the dual-band Raman spectrometer
- In 2020, launch the triple-band Raman microscope
- In 2021, launch the quadriband scientific-grade Raman microscope
- Optosky represents the highest performance cost less Chinese high-tech manufacturers with industry-leading warranty guarantee and technical support.
- Optosky's Raman spectroscopy technology originate from Shanghai Institute of Technical Physics Chinese Academic of Science University and Xiamen University Zhong Qun Tian who discovers SHINERS makes SERS can be preserved longer than 2 years.
- Quality control system follows Agilent Technologies
- 60% R&D engineers provide Industrial-leading warranty guarantee and technical support services
- The most experienced engineers and 3 Drs team in Raman spectroscopy
- Complete certification of ISO, CE, FDA Approval, Police Approval, API Approval
Q: Why the 1064nm Raman can resist high fluorescence materials?
A: 1064nm belong to NIR photon has a low frequency, low energy is seldom absorbed by the sample molecule, and it's difficult to excite ground state electron as well as fluorescence, so that it prevent fluorescence from generation.
Q: Why Raman signals are easily annihilated by fluorescence?
A: Fluorescence intensity is about 10^6 times stronger than that of Raman signal. traditional Raman signals are easily annihilated by fluorescence.
Q: Which materials have high fluorescence recommended to use 1064nm Raman?
A: Such as Heroin, Fentanyl, Colour samples, Biological samples, Textiles, Bacteria, Drugs, Fuel, Petroleum samples, Vegetable oils, Explosives, Plastic.
How many methods can remove fluorescence interference?
1st, Baseline correction uses an algorithm to remove fluorescence interference.
2nd, Difference Raman uses two wavelengths of lasers (eg: 784.5nm+785.5nm) to excite samples can obtain two sets of Raman signal and calculate the difference to obtian the spectrum without fluorescence.
3rd, Time gate control method
4th Fluorescence photobleaching method
5th, 1064nm Raman spectrometer is highly recommended
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