Low-magnification Microscopy
Low-magnification Microscopy - Related Videos
08:41
Equibiaxial Stretching Device for High Magnification Live-Cell Confocal Fluorescence Microscopy
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Cited by 1 •
2025
Here, we present a versatile equibiaxial stretching device that is pneumatically actuated and compatible with high-resolution microscopy.
11:16
Correlative Light- and Electron Microscopy Using Quantum Dot Nanoparticles
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Cited by 12 •
2016
A method is described whereby quantum dot (QD) nanoparticles can be used for correlative immunocytochemical studies of epoxy embedded human pathology tissue. We employ commercial antibody fragment conjugated QDs that are visualized by widefield fluorescence light microscopy and transmission electron microscopy.
09:30
Using Nanoplasmon-Enhanced Scattering and Low-Magnification Microscope Imaging to Quantify Tumor-Derived Exosomes
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Cited by 8 •
2019
Clinical translation of exosome-derived biomarkers for diseased and malignant cells is hindered by the lack of rapid and accurate quantification methods. This report describes the use of low-magnification dark-field microscope images to quantify specific exosome subtypes in small volume serum or plasma samples.
08:35
Introduction to Light Microscopy
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2023
The light microscope is an instrument used by researchers in many different fields to magnify specimens to as much as a thousand times their original size. In its simplest form, it is composed of a clear lens that magnifies the sample and a light source to illuminate it. However, most light microscopes are much more complex and house numerous fine-tuned lenses with tightly controlled dimensions all within the body of the microscope itself and in components such as the objectives and eyepieces.
09:20
Microwave Assisted Rapid Diagnosis of Plant Virus Diseases by Transmission Electron Microscopy
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Cited by 16 •
2011
This study describes a method that allows the rapid and clear diagnosis of plant virus diseases in about half a day by using a combination of microwave assisted plant sample preparation for transmission electron microscopy and negative staining methods.
FAQs
The objective lens determines how much of the specimen contributes to the image. A modest-magnification objective collects information from a larger area, allowing researchers to inspect coverage, organization, and relationships among structures in the same view. This broad sampling supports system-level assessment, although the resulting image does not resolve fine details as effectively as higher-magnification imaging.
The optical system and detector work together to convert light from the specimen into a visible image. Their performance affects how clearly the large-area information collected by the objective can be examined. In bioengineering studies, this image supports evaluation of overall architecture, spatial organization, and changes across engineered samples rather than only isolated microscopic features.
Low-magnification imaging is preferable when the research question concerns broad structure, sample coverage, or relationships across a specimen. High-magnification methods provide greater fine-detail resolution, but they examine a smaller region and may not show how local features fit into the larger system. The appropriate choice therefore depends on whether organization or cellular detail is the primary outcome.
A broad field of view links local observations to the architecture and performance of the engineered system. It can reveal whether cells cover a scaffold, how tissue occupies a construct, or how structures are arranged within a microfluidic device. This perspective helps researchers interpret cellular behavior in relation to design features and large-scale sample changes.
Researchers can use repeated low-magnification observations to follow large-scale changes in cell cultures, engineered tissues, biomaterials, or microfluidic devices. Images can show changes in tissue growth, scaffold architecture, and sample coverage as the experiment progresses. The method is especially useful for rapid inspection when the main objective is tracking overall development rather than resolving fine cellular detail.
Applications include examining cell-culture coverage, evaluating scaffold architecture, following tissue growth, and inspecting microfluidic devices. These uses all depend on seeing how structures occupy and relate to one another across a relatively large area. The resulting observations can support assessment of whether a biomaterial or engineered construct is developing in a pattern consistent with its intended design.