lcd screen under microscope free sample

Digital microscopes with LCD screens have been designed to provide the most comfort and efficiency for the user as possible. With easy-to-use mechanical functions and high-quality optics, the large LCD monitor provides clear, real-time images of your samples in a display big enough to be suitable for group viewings, especially for educational, industrial, and medical applications.

We have LCD screen digital microscopes from the best and most trustworthy brands, including ACCU-SCOPE, Steindorff, Swift, and more! Here are some of the featured products that we’re most excited about:

ACCU-SCOPE 3013-LED Dual View Teaching Digital LCD Microscope Package: From the brand’s 3012 series, which is known for its sharp, crisp, high-resolution images and optics at an affordable price. Choose the main body, teaching attachment, secondary head, set of eyepieces, display screen, and camera adapter that you prefer to suit your specific needs. If you aren’t sure which options would be best for you, give us a call.

Steindorff All-in-One Continuous Zoom Digital Microscope with 13.3” HD Monitor: Features a tool that’s a lens, camera, and illumination source all in one. It can display real-time images at 60 frames per second in 1080P resolution, but it can also record an HD video.

Swift M17T-BTW2-P LED Compound Microscope with 10” Wi-Fi Tablet, 5.0 Megapixels: From the brand’s M17 series, which represents the latest in educational technology. It’s capable of sharing images via its advanced Wi-Fi system, making it perfect for college classrooms as well as medical and veterinary labs and offices.

When you need to look at a specimen as a group, you need one of our digital microscopes with an LCD screen. Not only do they use the latest technology to produce crisp, clear images on the screen, but they’re also very comfortable and budget friendly.

Have any questions? No problem! Reach out to our dedicated customer service team, and they’ll be happy to help. After all, we pride ourselves on providing the best customer service in the industry, offering the largest variety of LCD screen digital microscopes at the very best prices. Our phone number can be found on the top and bottom of every webpage, but you can also send us a message on our contact us page.

New York Microscope Company is the only microscope company to offer Free Service Protection Guarantee with the purchase of every microscope. Visit our Free Service Protection page for more details.

Video MicroscopeClose ΛVideo microscope, also known as TV microscope, is a microscope that converts an optical image into a video image. Typically, for video microscope, it is an analog camera that displays an image on a display or on a projection.

One type is finite optical structural design, in which light passing through the objective lens is directed at the intermediate image plane (located in the front focal plane of the eyepiece) and converges at that point. The finite structure is an integrated design, with a compact structure, and it is a kind of economical microscope.

Another type is infinite optical structural design, in which the light between the tube lens after passing the objective lens becomes "parallel light". Within this distance, various kinds of optical components necessary such as beam splitters or optical filters call be added, and at the same time, this kind of design has better imaging results. As the design is modular, it is also called modular microscope. The modular structure facilitates the addition of different imaging and lighting accessories in the middle of the system as required.

Parallel optical microscope uses a parallel structure (PZ microscope), which is different from the separative two-object lens structure, and because its objective lens is one and the same, it is therefore also known as the CMO common main objective.

The maximum optical magnification of the microscope depends on the wavelength of the light to which the object is illuminated. The size of the object that can be observed must be greater than the wavelength of the light. Otherwise, the light cannot be reflected or transmitted, or recognized by the human eye. The shortest wavelength of ultraviolet light is 0.2 microns, so the resolution of the optical microscope in the visible range does not exceed 0.2 microns, or 200 nanometers. This size is converted to the magnification of the microscope, and it is the optical magnification of 2000X. Usually, the compound microscope can achieve 100X objective lens, the eyepiece is 20X, and the magnification can reach 2000X. If it is bigger, it will be called "invalid magnification", that is, the image is large, but the resolution is no longer increased, and no more details and information can be seen.

System Working DistanceClose ΛWorking distance, also referred to as WD, is usually the vertical distance from the foremost surface end of the objective lens of the microscope to the surface of the observed object.

The upper end of the microscope body can be connected to the standard C-interface photo eyepiece, and then connected to the microscope camera; the lower end is the objective lens, and the objective lens of parallel structure is generally separated from the body, whereas the microscope body of finite structure is combined with the objective lens.

Zoom RangeClose ΛZoom in zoom microscope means to obtain different magnifications by changing the focal length of the objective lens within a certain range through adjustment of some lens or lens set while not changing the position of the object plane (that is, the plane of the point of the observed object perpendicular to the optical axis) and the image plane (that is, the plane of the image imaging focus and perpendicular to the optical axis) of the microscope.

Zoom range refers to the range in which the magnification is from low to high. In the zoom range of the microscope, there is no need to adjust the microscope knob for focusing, and ensure that the image is always clear during the entire zoom process.

The larger the zoom range, the stronger the adaptability of the range for microscope observation, but the image effects at both ends of the low and high magnification should be taken into consideration, the larger the zoom range, the more difficult to design and manufacture, and the higher the cost will be.

Zoom ratio is obtained by the intermediate magnification group of the microscope. When the magnification is increased or decreased by using other objective lenses, the zoom ratio does not change accordingly.

Magnification DetentClose ΛIn the body of zoom microscope, zooming is continuous. When rotating to a certain position, generally an integral multiple, a positioning structure or detent is added, which has a distinct hand feel during the zooming process, and stops at this position.

Objective Screw ThreadClose ΛFor microscopes of different manufacturers and different models, the thread size of their objectives may also be different.

The field of view number of the microscope 10X eyepiece is usually designed to be 18, 20, 22, 23mm, less than 1 inch (25.4mm). Since most commonly used camera sensor sizes are 1/3 and 1/2 inches, this makes the image field of view on the display always smaller than the field of view of the eyepiece for observation, and the visual perception becomes inconsistent when simultaneously viewed on both the eyepiece and the display. If it is changed to a 0.5X coupler/C-mount-adapter, the microscope image magnification is reduced by 1/2 and the field of view is doubled, then the image captured by the camera will be close to the range observed in the eyepiece.

The size of the image sensor needs to match the size of the microscope"s photographic eyepiece; otherwise, black borders or dark corners will appear within the field of view of observation.

White balance of the camera is to "restore white objects to white color under any light source." The chromatic aberration phenomenon occurred under different light sources is compensated by enhancing the corresponding complementary color. Automatic white balance can generally be used, but under certain conditions if the hue is not ideal, options of other white balance may be selected.

Achromatic objective: achromatic objective has corrected the chromatic aberration, spherical aberration, and comatic aberration. The chromatic portion of the achromatic objective has corrected only red and green, so when using achromatic objective, yellow-green filters are often used to reduce aberrations. The aberration of the achromatic objective in the center of the field of view is basically corrected, and as its structure is simple, the cost is low, it is commonly used in a microscope.

Objective Working DistanceClose ΛThe objective working distance is the vertical distance from the foremost surface end of the objective of the microscope to the object surface to be observed.

The relatively greater working distance leaves a relatively large space between the objective and the object to be observed. It is suitable for under microscope operation, and it is also easier to use more illumination methods. The defect is that it may reduce the numerical aperture of the objective, thereby reducing the resolution.

It is a relatively large pole type stand. The height and length of the stand are big, and it can be freely adjusted in height, length and various angles. Its large weight ensures stable support and occupation of large space, but it can make the microscope free to move in a wide range with convenience. Boom stand is suitable for observing large objects.

The direction of boom stand is flexible, and when in use, various kinds of positions and methods can be adopted, such as front, side, and tilt etc., to facilitate the layout of the workbench. On the side of the crossbar of the boom stand, a 5/8-inch connecting hole is generally left for connecting various focusing mechanisms and microscopes.

The base of the boom stand usually only plays a fixing and supporting role. Under the observation of the microscope, it is an empty workbench, which can be used to place various platforms, work operating surfaces, and tools, etc., and can be freely combined into different working positions. When the base is large, the object to be observed can also be placed.

In industrial places, most of the working positions are fixed. Sometimes, in one working position, a lot of tools, equipment and instruments need to be placed.. Because the microscope is relatively large in size and takes up also a relatively bigger space, and not convenient to move back and forth, therefore for purpose of use, the boom stand can be placed in an appropriate position, and does not need to occupy the most commonly used work tables. When in use, the microscope can be moved over, and pushed to the side when not in use. This is very suitable for use in electronics factories, installation and maintenance, medical and animal anatomy, archaeology and other industries.

Because the stand needs to ensure flexibility, therefore there are many locking buttons in all directions. In any time after adjustment, it must be ensured that each knob is in a locked state to avoid sliding, tilting and flipping of the microscope, thereby damaging the microscope and the items on the workbench.

360° Degree RotatableClose ΛThe eyepiece of the microscope can have different viewing or observing directions. When the position of the microscope is uncomfortable, the direction of the eyepiece tube of the microscope can be adjusted, to facilitate observation and operation.

Rotating eyepiece tube, different microscopes may have different methods, for some, the direction is confirmed when installing the eyepiece tube of the microscope, for some, by rotating the body of the microscope, and for some, by rotating the support member on the support or holder of the microscope.

E-ArmClose ΛUsually the universal joint is called E-Arm, i.e., Easy-Arm, also known as Universal Arm. Many people in the industry call it Bonder Arm, which refers to the components that connect the microscope on the COG Bonding Machine.

At the tail of the E-arm there is a standard 5/8 inch (0.625 inch, 15.875mm) connector. The connector can be moved freely in both horizontal and vertical directions, and can also be fixed at an angular position in the vertical direction to facilitate microscope observation from different angles.

E-arm can be connected to various kinds of microscope stands with 5/8-inch adapters, such as boom stand, flexible arm etc. It is also possible to connect various kinds of microscopes by adding or replacing different adapters. Note that, in general, these stands themselves are not directly configured with this E-arm, and separate purchase is necessary.

Dia. 76mm Scope HolderClose ΛThe 76mm stand scope holder is the most popular microscope body adapter size, suitable for stereo microscopes produced by most manufacturers.

Because this stand scope holder is very common, some special-sized microscopes can also borrow and use this stand, but only need a specific adapter to connect the microscope body with a diameter of less than 76mm.

This brand new professional trinocular compound microscope comes equipped with an infinity Plan optical system and offers advanced features as well as research grade performance. Its crystal clear optical and precise mechanical systems promise high quality performances for advanced applications. Also included is our unique 9.7" true color LCD screen and 5MP camera system, allowing you to view your sample in real time without straining your eyes! The backward nosepiece design allows spacious room for convenient operation. This microscope has four high quality Plan Achromatic objectives (4X, 10X, 40X, 100X), two pairs of extreme widefield 10X and 25X focusable eyepieces, a Kohler illumination system, a 30-degree incline on the ocular tubes for comfortable viewing, 360-degree swiveling, compensation-free trinocular head, a coaxial coarse & fine focusing system, and a 3D mechanical stage. It provides six levels of magnification: 40X, 100X, 250X, 400X, 1000X & 2500X. It is an ideal instrument for advanced researches.

One type is finite optical structural design, in which light passing through the objective lens is directed at the intermediate image plane (located in the front focal plane of the eyepiece) and converges at that point. The finite structure is an integrated design, with a compact structure, and it is a kind of economical microscope.

Another type is infinite optical structural design, in which the light between the tube lens after passing the objective lens becomes "parallel light". Within this distance, various kinds of optical components necessary such as beam splitters or optical filters call be added, and at the same time, this kind of design has better imaging results. As the design is modular, it is also called modular microscope. The modular structure facilitates the addition of different imaging and lighting accessories in the middle of the system as required.

Parallel optical microscope uses a parallel structure (PZ microscope), which is different from the separative two-object lens structure, and because its objective lens is one and the same, it is therefore also known as the CMO common main objective.

The maximum optical magnification of the microscope depends on the wavelength of the light to which the object is illuminated. The size of the object that can be observed must be greater than the wavelength of the light. Otherwise, the light cannot be reflected or transmitted, or recognized by the human eye. The shortest wavelength of ultraviolet light is 0.2 microns, so the resolution of the optical microscope in the visible range does not exceed 0.2 microns, or 200 nanometers. This size is converted to the magnification of the microscope, and it is the optical magnification of 2000X. Usually, the compound microscope can achieve 100X objective lens, the eyepiece is 20X, and the magnification can reach 2000X. If it is bigger, it will be called "invalid magnification", that is, the image is large, but the resolution is no longer increased, and no more details and information can be seen.

System Working DistanceClose ΛWorking distance, also referred to as WD, is usually the vertical distance from the foremost surface end of the objective lens of the microscope to the surface of the observed object.

The upper end of the microscope body can be connected to the standard C-interface photo eyepiece, and then connected to the microscope camera; the lower end is the objective lens, and the objective lens of parallel structure is generally separated from the body, whereas the microscope body of finite structure is combined with the objective lens.

Zoom RangeClose ΛZoom in zoom microscope means to obtain different magnifications by changing the focal length of the objective lens within a certain range through adjustment of some lens or lens set while not changing the position of the object plane (that is, the plane of the point of the observed object perpendicular to the optical axis) and the image plane (that is, the plane of the image imaging focus and perpendicular to the optical axis) of the microscope.

Zoom range refers to the range in which the magnification is from low to high. In the zoom range of the microscope, there is no need to adjust the microscope knob for focusing, and ensure that the image is always clear during the entire zoom process.

The larger the zoom range, the stronger the adaptability of the range for microscope observation, but the image effects at both ends of the low and high magnification should be taken into consideration, the larger the zoom range, the more difficult to design and manufacture, and the higher the cost will be.

Zoom ratio is obtained by the intermediate magnification group of the microscope. When the magnification is increased or decreased by using other objective lenses, the zoom ratio does not change accordingly.

Magnification DetentClose ΛIn the body of zoom microscope, zooming is continuous. When rotating to a certain position, generally an integral multiple, a positioning structure or detent is added, which has a distinct hand feel during the zooming process, and stops at this position.

Objective Screw ThreadClose ΛFor microscopes of different manufacturers and different models, the thread size of their objectives may also be different.

The field of view number of the microscope 10X eyepiece is usually designed to be 18, 20, 22, 23mm, less than 1 inch (25.4mm). Since most commonly used camera sensor sizes are 1/3 and 1/2 inches, this makes the image field of view on the display always smaller than the field of view of the eyepiece for observation, and the visual perception becomes inconsistent when simultaneously viewed on both the eyepiece and the display. If it is changed to a 0.5X coupler/C-mount-adapter, the microscope image magnification is reduced by 1/2 and the field of view is doubled, then the image captured by the camera will be close to the range observed in the eyepiece.

The size of the image sensor needs to match the size of the microscope"s photographic eyepiece; otherwise, black borders or dark corners will appear within the field of view of observation.

White balance of the camera is to "restore white objects to white color under any light source." The chromatic aberration phenomenon occurred under different light sources is compensated by enhancing the corresponding complementary color. Automatic white balance can generally be used, but under certain conditions if the hue is not ideal, options of other white balance may be selected.

Achromatic objective: achromatic objective has corrected the chromatic aberration, spherical aberration, and comatic aberration. The chromatic portion of the achromatic objective has corrected only red and green, so when using achromatic objective, yellow-green filters are often used to reduce aberrations. The aberration of the achromatic objective in the center of the field of view is basically corrected, and as its structure is simple, the cost is low, it is commonly used in a microscope.

Objective Working DistanceClose ΛThe objective working distance is the vertical distance from the foremost surface end of the objective of the microscope to the object surface to be observed.

The relatively greater working distance leaves a relatively large space between the objective and the object to be observed. It is suitable for under microscope operation, and it is also easier to use more illumination methods. The defect is that it may reduce the numerical aperture of the objective, thereby reducing the resolution.

A thin-film-transistor liquid-crystal display (TFT LCD) is a variant of a liquid-crystal display that uses thin-film-transistor technologyactive matrix LCD, in contrast to passive matrix LCDs or simple, direct-driven (i.e. with segments directly connected to electronics outside the LCD) LCDs with a few segments.

In February 1957, John Wallmark of RCA filed a patent for a thin film MOSFET. Paul K. Weimer, also of RCA implemented Wallmark"s ideas and developed the thin-film transistor (TFT) in 1962, a type of MOSFET distinct from the standard bulk MOSFET. It was made with thin films of cadmium selenide and cadmium sulfide. The idea of a TFT-based liquid-crystal display (LCD) was conceived by Bernard Lechner of RCA Laboratories in 1968. In 1971, Lechner, F. J. Marlowe, E. O. Nester and J. Tults demonstrated a 2-by-18 matrix display driven by a hybrid circuit using the dynamic scattering mode of LCDs.T. Peter Brody, J. A. Asars and G. D. Dixon at Westinghouse Research Laboratories developed a CdSe (cadmium selenide) TFT, which they used to demonstrate the first CdSe thin-film-transistor liquid-crystal display (TFT LCD).active-matrix liquid-crystal display (AM LCD) using CdSe TFTs in 1974, and then Brody coined the term "active matrix" in 1975.high-resolution and high-quality electronic visual display devices use TFT-based active matrix displays.

The circuit layout process of a TFT-LCD is very similar to that of semiconductor products. However, rather than fabricating the transistors from silicon, that is formed into a crystalline silicon wafer, they are made from a thin film of amorphous silicon that is deposited on a glass panel. The silicon layer for TFT-LCDs is typically deposited using the PECVD process.

The twisted nematic display is one of the oldest and frequently cheapest kind of LCD display technologies available. TN displays benefit from fast pixel response times and less smearing than other LCD display technology, but suffer from poor color reproduction and limited viewing angles, especially in the vertical direction. Colors will shift, potentially to the point of completely inverting, when viewed at an angle that is not perpendicular to the display. Modern, high end consumer products have developed methods to overcome the technology"s shortcomings, such as RTC (Response Time Compensation / Overdrive) technologies. Modern TN displays can look significantly better than older TN displays from decades earlier, but overall TN has inferior viewing angles and poor color in comparison to other technology.

The transmittance of a pixel of an LCD panel typically does not change linearly with the applied voltage,sRGB standard for computer monitors requires a specific nonlinear dependence of the amount of emitted light as a function of the RGB value.

Less expensive PVA panels often use dithering and FRC, whereas super-PVA (S-PVA) panels all use at least 8 bits per color component and do not use color simulation methods.BRAVIA LCD TVs offer 10-bit and xvYCC color support, for example, the Bravia X4500 series. S-PVA also offers fast response times using modern RTC technologies.

External consumer display devices like a TFT LCD feature one or more analog VGA, DVI, HDMI, or DisplayPort interface, with many featuring a selection of these interfaces. Inside external display devices there is a controller board that will convert the video signal using color mapping and image scaling usually employing the discrete cosine transform (DCT) in order to convert any video source like CVBS, VGA, DVI, HDMI, etc. into digital RGB at the native resolution of the display panel. In a laptop the graphics chip will directly produce a signal suitable for connection to the built-in TFT display. A control mechanism for the backlight is usually included on the same controller board.

The bare display panel will only accept a digital video signal at the resolution determined by the panel pixel matrix designed at manufacture. Some screen panels will ignore the LSB bits of the color information to present a consistent interface (8 bit -> 6 bit/color x3).

Kawamoto, H. (2012). "The Inventors of TFT Active-Matrix LCD Receive the 2011 IEEE Nishizawa Medal". Journal of Display Technology. 8 (1): 3–4. Bibcode:2012JDisT...8....3K. doi:10.1109/JDT.2011.2177740. ISSN 1551-319X.

K. H. Lee; H. Y. Kim; K. H. Park; S. J. Jang; I. C. Park & J. Y. Lee (June 2006). "A Novel Outdoor Readability of Portable TFT-LCD with AFFS Technology". SID Symposium Digest of Technical Papers. AIP. 37 (1): 1079–82. doi:10.1889/1.2433159. S2CID 129569963.

In the last decade or so, several groups have developed QPI methods, and demonstrated their application to practical problems, including cell-level drug resistance [11], cancer diagnostics and dynamics [12–14], red blood cell imaging and characterization [15–17], malaria diagnosis [18,19], among many others. Several groups have extended QPI to compact measurement systems, such as mobile phone-based microscopes [20–22], or lab-on-chip devices [23]. While these systems have shown excellent utility, the optical setup for these techniques can be rather complex, bulky, and expensive, generally requiring careful alignment of the optical components, and exotic components such as spatial light modulators. Consequently, there has been increasing interest in simplifying these systems by combining controllable illumination with computational methods to reconstruct quantitative phase images without the need for a stable phase reference or phase shifting interferometry. In particular, recent studies have focused on using spatially variable illumination sources in QPI, such as LED arrays [24] or traditional microscope illuminators coupled to spatially addressable pixelated liquid crystal displays (LCDs) [25]. Using a controllable illumination system and acquiring several images in sequence, with the illumination changing between each image, allows for the computational reconstruction of qualitative [26] and quantitative phase images [27]. Further work has shown that in addition to QPI images, one can use this programmable illumination to recover 3D imaging volumes [28], perform Fourier ptychographic microscopy [29], and correct aberrations within the imaging system. As the illumination system is relatively low cost, such an approach naturally lends itself to small and portable imaging systems, including those built on single-board computing platforms such as mobile phones [30,31] that can further include deep learning algorithms [32].

However, while the optical configuration in these systems can be quite simple, and thus vastly improve on traditional phase microscopes and QPI systems, a key drawback of the adoption of such methods by non-experts is the complex electronics needed to create and control these spatially variable illumination sources. Previously, we showed that a mobile phone-based microscope [33] could be placed to face a mobile phone screen, where the screen of the second phone is used as a controllable illumination source [34]. Such a dual-phone illumination-imaging microscope could easily mimic traditional microscope modalities such as bright-field, dark-field, and fluorescence, by controlling the color and spatial distribution of the illumination. It also showed the ability to easily obtain quite complex illumination schemes such as Rheinberg illumination. Critically, the illumination source does not require specialized computer control, a microcontroller, or any associated electronics. A user simply draws the desired illumination pattern as an image, or as a “slide” in Microsoft PowerPoint or a similar presentation program, and the phone natively displays the correct illumination. Switching between illumination schemes is as simple as swiping a finger on the display. Thus, our dual-phone illumination-imaging system is extremely amenable to use by non-experts in field settings.

In this paper, we extend our prior work to phase contrast imaging, where we use one mobile phone for imaging, and another for illumination to generate semi-circular illumination patterns that can be used to compute differential phase contrast (DPC) images. Compared with prior systems [30,31], our dual phone DPC (dpDPC) system is not only more compact and portable, but the use of a phone screen with densely packed RGB LEDs for illumination instead of an LED array or LCD allows for complex spatial patterns, intensity gradation, and color generation, as well as more pattern options to be explored. These benefits are all obtained without requiring specialized control software or utilizing complex electrical wiring. As detailed below, our system obtains good quality phase contrast images, with resolutions below 2 micrometers, of a wide variety of samples, including polystyrene beads, blood smears, and cell cultures.

5.6 inch LCD screen with 640 x 480 pixels with built-in SD card for saving of images in jpeg format. Video resolution of 640 x 480 pixels, saving in AVI format

The little red, green, and blue dots that make up our LCD screens are a common enough sight, but it"s not often that you get to see them up close in motion. This video from a macro photography enthusiast does just that, showing how dynamic and granular our monitors and phone displays really are.

It"s worth noting that there are different kinds of LCD displays, and they might look very different under the microscope. Some have different numbers of red, green, and blue sub-pixels that make up each whole pixel. And the sub-pixels might have a different shape, or be packed more loosely or densely.

If you have a microscope or macro lens sitting around the house, try using them to take a look at your monitor or the screen of your phone. And if you crave more close-ups, check out Paul"s other videos looking closely at fingerprints and the eye.

Keep the learning going with our fun and educational Premium Look and Learn™ digital microscope, book, and fossil collection kit – exclusively from IQCREW by AmScope. We have paired our easy-to-use portable digital LCD microscope that has a 3.5-inch screen with an 18-piece fossil collection and a book on fossils by Scholastic Press to create a fun and educational product for your child. Children love our LCD digital microscope because it is easy and quick to use – just put a specimen on the stage, turn on the microscope, and the specimen is immediately shown in full-color on the 3.5-inch screen. No eyepieces for a child to look through, this digital microscope comes packed with features – 8 LED adjustable lights, 20X to 300X optical - up to 1200X digital magnification, zoom, coarse and fine adjustments, a 16GB microSD card, cable to connect to a PC or monitor, a long-lasting lithium battery and much more. Your child will enjoy studying the various fossils either on the screen or on a PC or Mac after downloading the easy-to-use viewing software.

The fossil collection contains 18 different specimens of plants and animals. Your child will be amazed at the amazing designs of the fossils and the intricate features they can observe when they view the specimens magnified at up to 1200 times! The microscope can also be used to view other 3D objects such as insects, plants, hair, or any other object they find.

Microscopes accessorized with tablets or monitors allow users to view specimens in real time without connecting to other equipment. These are great tools for use in industrial inspection, quality control, training and educational settings. These microscope systems include start-of-the-art digital cameras and include all necessary software for image capture and manipulation.

Leica Digital Microscopes have become increasingly popular in production, quality control and quality assurance, failure analysis, research and development, as well as forensics for their excellence in inspection, documentation, analysis in both 2D and 3D.

Leica Microsystems take great pride in being able to deliver Digital microscopes that are optimized over the entire inspection, documentation, and analysis workflow.

Some digital microscopes offer tilting functionality, thereby allowing samples to be observed from various angles. This is especially helpful for the inspection of:Complex structures such as corrosion patterns in metal parts in manufacturing or material science

Inexperienced microscopy users often find working with a digital microscope needs little time getting used to, allowing results to be achieved quickly, and the image checked for quality directly on the screen.

Easy Operation: Leica digital microscopes can be handled intuitively over the entire microscopy workflow. One example: This video shows how an objective can be exchanged one-handedly.

Smooth workflow: Leica digital microscopes streamline the workflow from positioning the sample to generating a report. Software additionally speeds up handling.

Perfect images: Leica optics are world-renowned for their quality. Digital microscope optics and cameras yield images that capture every detail of your samples with good color fidelity.

Comfortable posture: Leica digital microscopes turn the microscopy workstation into a computer workplace. Working in a straight, upright posture can help prevent health issues resulting from physical strain.

Versatile imaging: Leica digital microscopes offer a long working distance for samples big and small. Together with the large depth of field, this reduces or eliminates the need to prepare the samples.

Peace of mind: Leica digital microscopes yield repeatable, traceable results, no matter how many colleagues use the microscope. Ease of use and features like encoding make this possible.

Medical device production or development requires Digital microscopes that deliver trustworthy image data ensuring that what you see is what you get. Identify, validate, and document quickly to help fulfill the compliance and safety requirements for your products and components.

In this day and age, environmental conservation relies on research and solutions from sources that are versatile, reliable, powerful, and accurate. Leica microscopy solutions provide exactly the precise measurements and detailed analysis needed for advancing our understanding of the world around us.