Fluorescence microscope LFM-T2010

Introduction

Fluorescence microscope is an advanced optical instrument designed for studying specimens at the microscopic level. Modular design enhances the compatibility of biological and fluorescence microscope systems.Viewing head is designed with multiple options for splitting ratio with wide beam imaging system. Coaxial adjustment utilizes double-stage driving with adjustable tension tightness. This microscope is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Fluorescence microscopes are used for imaging and analyzing specimens with fluorescence properties across various fields, including biology, medicine, and materials science.

Specifications

Optical System	Infinity color corrected optical system
Viewing Head Distance	30° inclined, inverted image, infinity gemel trinocular head with interpupillary distance 50 to 76 mm, three split ratio 0:100; 20:80; 100:0
Eyepiece	High-eyepoint Plan eyepiece PL10X/25 mm, Diopter adjustable
Nosepiece	Sextuple nosepiece
Focusing Adjustment	Fluorescence frame (transmitted), low-position coaxial coarse and fine adjustment, coarse adjustment distance: 25 mm; fine precision: 0.001 mm. With coarse adjustment stop and tightness adjustment.
Frame	100 to 240 V built-in wideband voltage transformer, adopt digital dimming, with the function of light set and reset, built-in filter (, ND6, ND25)
Objective	Plan semi-apochromatic fluorescent objective 4X/0.13, 10X/0.30, 20X/0.50, 40X/0.75, 100X/1.30 (infinity)
Stage	Double layers mechanical stage, size: 187 mm × 168 mm; moving range: 80 mm × 55 mm; precision: 0.1 mm. Bidirectional transmission, left and right position handle for option. Tension of the torque is adjustable.
Condenser	Swing-out type achromatic condenser
Illuminator	Six position disc reflection fluorescent Koehler illumination with diaphragm and aperture diaphragm (all center adjustable). Socket for filter inserter and polarizer device, with the fluorescent light shield in the front.
Epi-fluorescent device	100 W mercury lamphouse Digital power control box of mercury lamp, voltage 90 to 240 V 100W DC mercury bulb Fluorescence filter (UV, B, G)
Transmitted light	12 V 100 W halogen lamphouse (centred), 12V/100W halogen bulb
Filter	Attenuation plate (Transmittance 50%)

Features

3-stop viewing head enables simultaneous observation of three fluorescent signals

Digital dimming with indicator ensures precise illumination control

BF Nosepiece with socket facilitates smooth imaging transition

Integrated machine stage for the stable and reliable operation

Swing-out condenser for flexible specimen handling

Highly sensitive coaxial coarse and fine adjustment

6 fluorescence filters positioned on a rotating table for easy switching

Power control system for mercury lamp

FAQs

1. What are the key factors to consider when selecting this microscope for laboratory use?

When selecting this microscope, key factors include: 1) The instrument's precision and accuracy to meet experimental requirements; 2) Compatibility with the types of samples and applications you will be working with; 3) Ease of use and maintenance requirements; 4) Safety features to protect operators and samples; 5) Calibration and certification requirements; 6) Cost-effectiveness and long-term reliability; 7) Technical support and service availability from the supplier. Evaluating these factors ensures that the instrument meets your laboratory's specific needs.

2. How often should this microscope be calibrated to ensure accurate results?

It is recommended to calibrate this microscope at least once every 6-12 months under normal usage conditions. More frequent calibration (every 3-6 months) may be necessary if: 1) The instrument is used continuously for extended periods; 2) It is exposed to harsh environmental conditions (temperature fluctuations, humidity, dust); 3) It is used for critical applications requiring high precision; 4) The instrument has been moved or subjected to physical shock; 5) Calibration checks indicate significant deviations from standard values. Always follow the manufacturer's calibration guidelines.

3. What are the common maintenance procedures required for this microscope?

Common maintenance procedures include: 1) Regular cleaning of the instrument's exterior and sample contact surfaces to prevent contamination and ensure proper operation; 2) Inspection of moving parts (if applicable) for wear and lubrication as recommended by the manufacturer; 3) Replacement of consumable parts (filters, bulbs, reagents) according to usage guidelines; 4) Verification of performance parameters (temperature, pressure, voltage) regularly; 5) Storage of the instrument in a clean, dry environment when not in use; 6) Keeping a maintenance log to track service activities and identify potential issues early; 7) Following the manufacturer's specific maintenance schedule for optimal performance and longevity.

4. Can this microscope be used with different types of samples, and are there any compatibility considerations?

Yes, this microscope can be used with a variety of sample types, but compatibility considerations are important: 1) Check if the instrument's materials are compatible with the chemical composition of your samples (avoid corrosive or reactive substances that may damage the instrument); 2) Ensure that the sample volume and concentration are within the instrument's recommended range; 3) For biological samples, consider sterility requirements and potential cross-contamination risks; 4) For volatile or hazardous samples, ensure proper ventilation and safety precautions are in place; 5) Consult the manufacturer's documentation for specific sample compatibility guidelines, and perform compatibility tests with new sample types before regular use.

5. What should be done if the microscope malfunctions or produces inconsistent results?

If malfunctions or inconsistent results occur: 1) First, check the instrument's user manual for troubleshooting guidelines specific to the issue; 2) Verify that the instrument is properly calibrated and within its calibration period; 3) Inspect for obvious issues such as loose connections, damaged parts, or incorrect settings; 4) Clean the instrument thoroughly to remove any contamination that may affect results; 5) Repeat the experiment with a known standard sample to determine if the issue is with the instrument or the sample; 6) If the problem persists, discontinue use of the instrument to prevent further damage or inaccurate results; 7) Contact technical support or a qualified service technician for diagnosis and repair, providing details of the issue and any troubleshooting steps already performed.