The MAGUS SPH2 phase contrast system includes a set of phase contrast sliders, a set of phase contrast objectives, and a centering telescope. This system is designed for the observation of transparent, low-contrast specimens that are difficult or impossible to see using brightfield illumination. Because staining procedures can damage or kill living cells, phase contrast offers a key advantage by allowing the study of living, unstained organisms in their natural state. The technique is widely used in medicine, ecology, pharmacology, agriculture, and related fields.

The epi-fluorescence attachment is designed to enable fluorescence microscopy. This technique relies on the ability of certain substances to emit light when excited by illumination at a specific wavelength. Some specimens naturally exhibit autofluorescence, while others require treatment with fluorochromes to produce a fluorescent signal. The attachment is installed in the optical path between the microscope head and the stand. Inside the unit is a four-position rotating turret that holds three broadband fluorescence filter sets for blue (B), green (G), and ultraviolet (UV) excitation.

The plan semi-apochromatic fluorescent objective is designed for both transmitted-light and fluorescence microscopy. The objective lenses are manufactured from fluorite, a highly transparent mineral that performs consistently across a wide wavelength range. Fluorite does not exhibit autofluorescence or birefringence and provides correction of the secondary spectrum. A high numerical aperture increases resolving power, producing images in the eyepieces and through a digital camera that are brighter, cleaner, and higher in contrast than those obtained with standard plan achromatic objectives.

The epi-fluorescence attachment is designed for fluorescence microscopy. This technique is based on the ability of certain substances to emit light when excited by illumination at a specific wavelength. Some specimens show natural autofluorescence, while others require staining with fluorochromes to produce a fluorescent signal. The attachment is installed in the optical path between the microscope head and the stand. Inside the unit is a four-position rotating turret equipped with three narrow-band fluorescence filter sets for the fluorochromes DAPI, FITC, and TRITC. 

The epi-fluorescence attachment is designed for fluorescence microscopy. This technique is based on the ability of certain substances to emit light when excited by illumination at a specific wavelength. Some specimens naturally exhibit autofluorescence, while others require treatment with fluorochromes to produce a visible fluorescent signal. The attachment is installed in the optical path between the microscope head and the stand. Inside the unit is a six-position rotating turret fitted with fluorescence filters.

The MAGUS SPH360 phase contrast system includes a set of phase contrast sliders and phase contrast objectives. It is designed for observing transparent, low-contrast specimens that are difficult or impossible to see using brightfield illumination. Because staining procedures can damage or kill living cells, phase contrast microscopy allows living, unstained organisms to be examined in their natural condition. This technique is widely used in medicine, ecology, pharmacology, agriculture, and related fields.

The Levenhuk MED D30T LCD is a trinocular biological microscope equipped with a digital camera featuring a built-in LCD screen. It allows full control of image and video settings directly on the camera display, without the need to connect the microscope to a computer. Image capture, video recording, parameter adjustment, and data review can all be performed directly on the screen. The microscope is built with infinity-corrected semi-plan achromatic optics and supports Köhler illumination, making it a professional instrument suitable for a wide range of laboratory applications.

The Levenhuk MED 25B microscope is a binocular laboratory instrument equipped with two condensers: one for brightfield and one for darkfield observation. Both condensers support oil immersion techniques. This microscope is designed for professional use in medicine, microbiology, biochemistry, and other scientific disciplines, and is suitable for research, diagnostic work, and educational purposes. It provides magnification up to 1000x, supports Köhler illumination, and enables detailed study of complex microstructures.

The Levenhuk 400M Monocular Microscope is designed for laboratory research on biological samples. It produces sharp, high-contrast images and supports observations at magnifications ranging from 40x to 400x. The microscope is suitable for use in medical, educational, and research environments. It features built-in LED illumination that can operate either on batteries or via an AC power supply. The optical system combines a wide-field eyepiece with achromatic objectives of different magnifications.

The MAGUS Lum V500L is an inverted microscope designed for fluorescence microscopy in reflected light as well as brightfield and phase-contrast microscopy in transmitted light. For fluorescence observation, it uses DAPI, FITC, and TRITC fluorochrome filters. The inverted configuration makes it possible to study samples directly in laboratory vessels such as Petri dishes and flasks. Standard lab ware up to 55 mm in height can be used, or up to 165 mm when the stand is tilted. The optical system is optimized for lab ware with a bottom thickness of 1.2 mm. 

This microscope is designed for examining the microstructure of metals, alloys, semiconductor materials, and other opaque specimens. Its inverted construction places no limits on the size of the sample, with only the weight restricted to a maximum of 2 kg. Before observation, the specimen must be properly prepared and then placed on the stage with the surface facing downward. The microscope supports three reflected-light contrast techniques: brightfield, simple polarization, and differential interference contrast (DIC).

The MAGUS Lum V500L is an inverted microscope designed for fluorescence microscopy in reflected light and for brightfield and phase-contrast microscopy in transmitted light. Fluorescence observation is performed using filter sets for the DAPI, FITC, and TRITC fluorochromes. The inverted design allows specimens to be examined directly in common laboratory vessels such as Petri dishes and flasks. The maximum vessel height is 55 mm in the standard position, or up to 165 mm when the stand is tilted. The optical system is optimized for lab ware with a bottom thickness of 1.2 mm.