
Diatoms - Nature’s Jewels viewed with a Microscope
Motic America
Diatoms are unicellular algae (Division Chrysophyta, Class Bacillariophyceae). Diatoms are microscopic in size, live in water, soil and moist en...
Read ArticleDiatoms are unicellular algae (Division Chrysophyta, Class Bacillariophyceae). Diatoms are microscopic in size, live in water, soil and moist en...
Read ArticlePosted by Motic America on
Microscopes are essential tools in biomedical research. These instruments help scientists, lab professionals, and researchers examine cells, tissues, bacteria, and other microscopic structures that are not visible to the naked eye.
The ability to see fine details plays a major role in understanding diseases, developing treatments, and carrying out accurate diagnoses.
Different research applications require different types of microscopes. Each type has specific features that support a particular function, such as magnification level, contrast techniques, lighting methods, or imaging capability.
This guide provides a clear overview of the commonly used types of microscopes in biomedical laboratories, along with high-quality product options.
Compound microscopes are the most commonly used microscopes in laboratories. They use two sets of lenses: objective and eyepiece, to magnify small samples. These microscopes are ideal for observing thin slices of tissue, blood smears, and bacteria.
Applications:
Clinical sample analysis
Cell structure studies
Routine biological observations
Featured Model: PA53 BIO
The PA53 BIO is part of Motic’s advanced entry-level microscope series for clinical and life science use. It offers reliable optical performance for routine lab work and educational settings.
Its user-friendly design and affordability make it suitable for professionals who require research-grade imaging without the high cost.
Fluorescence microscopes are used to detect specific components within a sample by using fluorescent dyes. When exposed to certain wavelengths of light, these dyes emit fluorescence that can be observed and measured.
This technique is highly valuable in molecular biology, immunology, and cell imaging.
Applications:
DNA and RNA analysis
Cancer cell detection
Protein localization
Featured Model: PA53 BIO FS6
The PA53 BIO FS6 is a fluorescence research microscope designed for life sciences. It features a 6-channel turret with popular filters such as DAPI, FITC, TRITC, and FISH. The widefield viewing system and high-resolution optics allow precise imaging.
It can be paired with a Motic camera and software for image capture, annotation, and measurement. LED lighting provides consistent and long-lasting illumination for all sample types.
Phase contrast microscopes are designed to observe transparent samples without staining. They enhance contrast by manipulating light waves, making it easier to view live cells and internal structures in their natural state.
Applications:
Live cell monitoring
Bacterial motility studies
Cell culture inspection
Featured Model: PA43 BIO
The PA43 BIO is a modular microscope built for flexibility and efficiency. Its solid design and advanced optics support a range of imaging needs. This model is well-suited for diagnostic labs and educational institutions.
The ability to configure the microscope according to user requirements makes it a versatile solution for routine phase contrast applications.
Stereo microscopes are used to observe the surface and structure of larger or opaque samples. They provide three-dimensional views at lower magnification.
Unlike compound microscopes, stereomicroscopes allow users to see the sample in depth, which is important when examining textures or performing dissections.
Applications
Tissue dissection
Specimen sorting
Industrial quality control
Featured Model: SM7
The SM7 is designed for samples that do not transmit light, such as tissues, insects, or manufactured materials. Its Galilean optics system ensures accurate color reproduction and minimal image distortion.
The microscope allows external light sources and delivers excellent spatial imaging for users in biology, medicine, and industrial research.
When selecting a research microscope, consider the following factors:
Sample type: Transparent, stained, or opaque
Magnification needs: High magnification for cellular studies or low magnification for 3D views
Contrast method: Brightfield, phase contrast, or fluorescence
Documentation needs: Ability to capture and save images
Budget: Cost-effective models or high-end systems with advanced optics
Choosing the correct microscope improves the accuracy of research findings and the overall efficiency of laboratory operations.
High-quality microscopes are necessary for accurate results in biomedical laboratories. The selection of the correct microscope type depends on the application, the nature of the samples, and the specific imaging techniques required.
Motic Microscopes offers a wide range of advanced yet affordable microscopes designed for life science and clinical use. From compound microscopes to stereo microscopes, we combine reliable optics with thoughtful design.
To explore these microscope models and learn more about how they support research, visit the website of Motic Microscopes.