Compact Design Compatible with High Optical Performance

Greenough Optical System Ray Diagram SZ51/61 have zoom ratios of 5:1 and 6.7:1 (zoom range 0.8x-4x and 0.67x-4.5x) respectively and are affordably priced yet off the highest resolving power in their price range and are available with either 45 or 60 degree inclination angles for observation. Utilizing the Greenough optical design, all zoom bodies incorporate the latest aberration and distortion-free optics that set a new standard in optical quality while maintaining superior operability.The V-shape optical path ensures a slim zoom body - ideal for integration into other equipment or stand alone use.3 Dimensional Viewing The optimum inward angle allows just the right combination of high level flatness and depth of focus for 3D viewing. Even a specimen with significant depth can be brought into focus from top to bottom for faster inspectionObservation Images with High Color Fidelity Superior optical coatings render true color images with fine detail.ESD Measures for Protecting Devices from Static ElectricityThe main unit and major accessories can quickly eliminate static electricity with the use of antistatic materials and coatings. This prevents a specimen under observation from electrostatic damage.

The Olympus IX73 inverted microscope has been integrated into our IXplore systems. IXplore Systems are designed to provide solutions-based packages that suit your research application needs.

Expandable to Meet Growing Research Needs

The semi-motorized IX73 is designed to satisfy a variety of research needs. With two deck options and additional modules for expanded functionality, the IX73 is perfectly suited for a changing research environment.

IX73: Two-deck System

The modular IX73 two-deck system can be combined with coded or motorized units for maximum expandability.

IX73: One-deck System

A microscope designed with an emphasis on efficiency. Ideal for documentation, routine testing and other tasks.

Reliable, Clear and Bright High-Resolution Images

Olympus UIS2 infinity-corrected optics ensure high optical transmittance with a broad range of objectives. UIS2 optics feature wide chromatic correction and enable high resolution, high S/N primary images regardless of the observation method. The wide field of view and Fly-Eye lens system provide uniform fluorescence images and enable the use of sCMOS cameras with large sensors.

Excellent Image Quality

Apochromatic Objectives Enable High-Resolution Phase Contrast and Fluorescence Observation

Phase contrast apochromatic objectives (UPLSAPO100XOPH, PLAPON60XOPH) enable high-precision imaging free from image shift, even during simultaneous phase contrast and fluorescence observation. This eliminates the need to change objectives when switching observation methods.

PRODUCT ATTACHMENTS

The Olympus IX73 inverted microscope has been integrated into our IXplore systems. IXplore Systems are designed to provide solutions-based packages that suit your research application needs.

Expandable to Meet Growing Research Needs

The semi-motorized IX73 is designed to satisfy a variety of research needs. With two deck options and additional modules for expanded functionality, the IX73 is perfectly suited for a changing research environment.

IX73: Two-deck System

The modular IX73 two-deck system can be combined with coded or motorized units for maximum expandability.

IX73: One-deck System

A microscope designed with an emphasis on efficiency. Ideal for documentation, routine testing and other tasks.

Reliable, Clear and Bright High-Resolution Images

Olympus UIS2 infinity-corrected optics ensure high optical transmittance with a broad range of objectives. UIS2 optics feature wide chromatic correction and enable high resolution, high S/N primary images regardless of the observation method. The wide field of view and Fly-Eye lens system provide uniform fluorescence images and enable the use of sCMOS cameras with large sensors.

Excellent Image Quality

Apochromatic Objectives Enable High-Resolution Phase Contrast and Fluorescence Observation

Phase contrast apochromatic objectives (UPLSAPO100XOPH, PLAPON60XOPH) enable high-precision imaging free from image shift, even during simultaneous phase contrast and fluorescence observation. This eliminates the need to change objectives when switching observation methods.

User Friendly

Ergonomic Grips

Ergonomically designed, the CX23’s molded grips add comfort and safety when retrieving the microscope from high places, such as shelves. Additionally, their blue color clearly indicates where to hold the microscope.

The Lightest Microscope in its class

The CX23 is one of the lightest weight microscope in its class, with a total weight of approx. 5.9 kg(13.01 lbs).

Scribed Binocular Tube

The CX23 features a carrying arm angled to keep the wrists in a comfortable, neutral position.

Fixed Eyepieces Prevent Damage or Loss

The eyepieces can be fixed in place to help prevent damage or loss during transportation.

Locking Pin for Secure Binocular Positioning

A rotational binocular tube can be locked for secure positioning.

Interpupilary and Eyepoint Adjustments

Interpupillary adjustments, ranging from 48 to 75 mm, allowsindividual users to set to their needs. Likewise, eyepoint adjustments accommodate the user’s height and provides greater comfort.

Rackless Stage for Safety and Durability

A rackless stage and stage cover give safety and stable longtime operation.

Safety and Smoother Focusing

The focus lock prevents objectives and specimen from any damage.

Coarse and Fine Focus Control

Bring specimens quickly into focus by using the coaxial knobs for fine or coarse adjustment. Durably built for movement and precise control, whether accessed from the left or right side.

Left and Right Diopter Adjustment

Left and right diopter adjustment enable optimal focus for each eye.

Inward-facing Revolving Nosepiece Allows for More Space

Easily set and exchange specimens or add oil for the immersion objective with the CX23's inward-facing revolving nosepiece design. Allowing for more space above the stage, this design also protects specimens from objectives with a long working distance.

Cable Storage Compartment

A storage compartment at the back of the CX23 makes it easy to stow the power cable after use.

Optional Dedicated Wooden Case

Protect your investment further with an optional custom designed wooden case.

Kensington Lock

For added reassurance in situations when the CX23 needs to be left unattended, a built-in security slot allows attachment of an antitheft cable.

Outstanding Optical Performance

Field Number (FN) of 20

The CX23 allows users to see more with a greater field number than standard microscopes in this class.

Outstanding Image Flatness Plan Achromat Objectives

The CX23 features plan achromat objectives that preserve outstanding image flatness throughout the field of view.

Uniform LED Illumination with Reduced Blue Color

The LED light source provides long life time of 20,000 hours, and offers low power consumption. Also, its reduced blue color preserves vivid colors on HE staining.

A Torque Release Function Prevents Damage

Damage when excessive force is applied to the coarse focus or stage knob is prevented with a built-in torque release function.

Anti-fungal Treatment

Many microscopes are vulnerable to mold and other fungi when used in hot, humid environments. The objectives, eyepieces, and observation tube of the CX23 have all undergone anti-fungus treatment, enabling optimal viewing and greater durability.

SPECIFICATION

Scalability is the keyword for this microscope. It is designed as a modular system allowing for the addition of many peripherals and applications to meet varying job requirements.

Most of the accessories for other Olympus microscopes are available for the BX53 including:

• Ceramic coated coaxial stage with optional rubber grips.
• Motorized filter turrets for fluorescent illumination are available. No tools are needed to add or remove filter cubes. Also, a large selection of custom cubes for single, dual and triple stained specimens are available.
• Optional illumination options are available to meet different viewing needs. A 100W halogen light source for brightfield and contrast observations; 100W mercury light; 75W xenon, LED, and metal halide illumination systems for fluorescence microscopy.
• Multiple head viewing attachments allow for as many as 18 viewers to examine a specimen simultaneously. A built-in pointer allows teachers to direct students’ attention to precise areas of interest.
• Dual camera ports allow you to attach multiple cameras for digital imaging and spectral microscopy.
• A full range of polarized light accessories including rotating ball-bearing stages with vernier scales, orthoscopic polarizing attachment, and conoscopic polarizing attachment.

Olympus microscopes are noted for versatility and the scalability of this unit will allow for accessory modules to be added to meet currently unanticipated needs.

The lack of full computer integration in a unit designed for high end professional use is disappointing.

Summary:

• Hard to find latest model upright fluorescent microscope.
• Eight Dichroic Filter Cube Capacity in Reflector Turret.
• If you have a huge budget, then buy it new from Olympus America Corporation. If cost is a concern, get the same thing here at a great savings. But hurry, as this will not last long. We checked all over and failed to find even one of these BX43 fluorescent upright microscopes out there for sale, outside of buying it new. We only have this one available.

Main Components:

• BX53F Frame.
• U-SVRB-4 Mechanical Stage with low position XY slide movement. Right hand configuration.
• U-D6RE Six Place Sextuple Revolving Nosepiece for Objectives. Has blank slider. Useful for both DIC and simple Polarizing.
• U-AC2 Abbe Condenser with 1.10 numerical aperature and iris diaphragm, for use with 4x to 100x objective magnifications. Note: Photos were taken with U-LC Condenser (0.75 numerical aperature)(low magnification condenser). When using the high aperature 60x and 100x objectives, the U-AC2 condenser is needed. We have included the U-AC2 instead of the U-LC.
• U-LH100-3, 12V-100W bottom rear externally mounted transmitted illumination. Halogen bulb. This is very bright compared to the standard 30W halogen as on other models. This intense illumination makes the BX53 model ideal for darkfield microscopy and phase contrast microscopy.
• BX3-URA Universal Reflected Illuminator. Vertical Illuminator for Reflected Fluorescence Imaging. With mirror turret.

Observation Tube:

• U-TTR-2 Trinocular Viewing Head.
• Ergonomic and Inclinable binoculars for ease of viewing with less neck and back strain.
• Eyepieces: WHN10X-H/22 and WHN10X/22.
• Photography Camera and Video Port on the top of the head.
• Ability for all light to binoculars, all light to camera port, or split image to both.

Objective Lenses:

• UPlanFl 4X/0.13, /-.
• UPlanApo 10x/0.40, 0.17mm.
• UPlanApo 20x/0.70, 0.17mm.
• UPlanApo 40x/1.0, /0.17mm, Oil Immersion. Iris Diaphragm (N.A. 0.5-1.0).
• PlanApo 60x/1.40, Oil Immersion. 0.17mm.
• UPlanApo 100x/1.35, /0.17mm, Oil Immersion. Iris Diaphragm (N.A. 0.5-1.35).
• Note: We can provide different lenses as per user’s application requirements.

Fluorescence Illuminator.

• Prior Lumen 200. By Prior Scientific.
• 200W Metal Halide.
• Up to 20 times longer bulb life than traditional HBO mercury vapor lamps, and similar spectral output.
• None of the typical time consuming alignment of HBO with this simple fiber optic cable system.

Fluorescence Filter Cubes:

• The turret has space for a maximum of eight cubes.
• The microscope came with these three filter cubes plus five blank cubes.

These three filter cubes are like-new:

U-FGNA 

• Excitation filter BP540-550
• Emission filter BA575-625
• Dicromatic filter DM570

U-FBN 

• Excitation filter BP470-495
• Emission filter BA510IF
• Dicromatic filter DM505

U-FUN 

• Excitation filter BP360-370
• Emission filter BA420IF
• Dicromatic filter DM410

We can provide customized filter sets as per customer’s requirements. We are a dealer for Chroma. Chroma supplies Olympus with their dichroic filters.

Misc Notes:

• Frame is marked “Made in Japan”. Has volt rating: 100-120/220-240V, 50/60Hz.
• Includes a UV shield but it is not shown in the photos.
• Includes LBD. Equivalent daylight balanced filter for halogen illumination.
• Includes ND6 and ND25 Neutral density filters, selectable on bottom of frame.
• Lots of original factory-provided printed manuals and instructions.
• Unit comes with all needed power cords, but they are not shown in the images.
• The condition of this instrument is like new. We didn’1 even need to clean it when it arrived. We only dusted it off. It appeared to never have been used. We did add some additional UPlanApo lenses to what it already had.

History of this Instrument:

• This instrument came from the recently shuttered Olympus Corporation’s U.S. Biotechnology Division, Olympus Biotech. All commercial operations ended there this past May 30, 2014. This fluorescent microscope was barely used. It was not discarded due to something being defective like often times happens with used laboratory equipment.
• Read about the facility’s closure.

Options:

• Optional U-LC Condenser (shown in the photos, but the ad will include a U-AC2 condenser to better match for the high numerical objectives). With the U-LC comes the auxiliary lens for the U-LC condenser that must be fitted to the light collector lens when using the U-LC. A mounting tool will be included if this option is selected. The manual explains the usage and installation.
• Optional Olympus DP72 Camera. With U-TV1XC adapter. One photo shows the DP72 camera mounted but it is not included in the price. It can be obtained separately.
• Optional SWH10X-H/26.5 (qty 2, Super Wide Field Eyepieces)(Field width is 26.5mm instead of 22mm).
• Optional U-POT Polarizer that fits above the field iris diaphragm, below the condenser.
• Optional U-ANT Analyzer that fits above the nosepiece in the slider.
• Optional U-FDICT cube. Note that this cube is not used for fluorescence.

DETAILS

Specifications for this item

Introduction

Structural coloration is common in dynamic visual displays by terrestrial and marine animals [1–5]. The spectral environment in which they live influences communication methods that use coloration [1,6–11]. In the ocean's euphotic zone, the ‘disco’ or ‘electric’ file clam Ctenoides ales (family Limidae) is found inside small crevices at depths of approximately 3–50 m. At these depths, the majority of wavelengths available for visual displays are in the blue-green range (400–500 nm) [12]. This is true even at shallow depths where long wavelengths have not yet attenuated (less than 15 m), as the crevices in which C. ales are found are dominated by horizontal light composed of short wavelengths (electronic supplementary material, file S1).

The flashing display on the mantle lip of C. ales has been mischaracterized as bioluminescence [13,14], although it is actually mediated by light scattered from photonic nanostructures [15]. Structures of this sort typically use materials that have high refractive indices relative to the substrate, such as collagen, chitin, keratin and guanine [16]. Silica also has a high refractive index (n = 1.43 at 589 nm) [16] but has only rarely been used as a biophotonic structure, such as in diatoms [17–19] and the weevil Pachyrhynchus argus [20]. Photonic nanostructures of any substance however can enhance reflectance, such as the ultrathin, aperiodic filaments in scales of Cyphochilus spp. beetles [21] and the bead-studded scales in the wings of certain pierid butterflies [22].

Within bivalves, studies of light manipulation are limited to the bioluminescence of the marine clams Pholas dactylus and Gastrochaena sp. [23], and the iridophores of the giant clam Tridacna, which are thought to scatter light towards symbiotic zooxanthallae [24]. Ctenoides ales, however, is the only known bivalve with a behaviourally mediated photic display. The fundamental characteristics of this display are described here to determine its potential as a signal. Ongoing studies of the function of the display are being conducted in the context of habitat-specific sensory ecology. In order to provide a preliminary comparative framework, we collected data from the morphologically and ecologically similar congener Ctenoides scaber, which does not flash.

• 0.01mm Stage Micrometer Microscope Micrometer.Material: optical glass.Size: 75mm x 25mm x 1mm. Total length of scale is 1mm that is subdivided into 100 divisions?each division is 0.01mm
• 0.1mm High Precision Ocular Micrometer. Material: optical glass. Div.x: 0.1mm?y: 0.1mm?10mm/100

DETAILS

Eyepieces work in combination with microscope objectives to further magnify the intermediate image so that specimen details can be observed. Oculars is an alternative name for eyepieces that has been widely used in the literature, but to maintain consistency during this discussion we will refer to all oculars as eyepieces.

Best results in microscopy require that objectives be used in combination with eyepieces that are appropriate to the correction and type of objective. The basic anatomy of a typical modern eyepiece is illustrated in Figure 1. Inscriptions on the side of the eyepiece describe its particular characteristics and function.

The eyepieces illustrated in Figure 1 are inscribed with UW, which is an abbreviation for the Ultra Wide viewfield. Often eyepieces will also have an H designation, depending upon the manufacturer, to indicate a high-eyepoint focal point that allows microscopists to wear glasses while viewing samples. Other inscriptions often found on eyepieces include WF for Wide-Field; UWF for Ultra Wide-Field; SW and SWF for Super Wide-Field; HE for High Eyepoint; and CF for eyepieces intended for use with CF corrected objectives. Compensating eyepieces are often inscribed with K, C, or comp as well as the magnification. Eyepieces used with flat-field objectives are sometimes labeled Plan-Comp. The eyepiece magnification of the eyepieces in Figure 1 is 10x (indicated on the housing), and the inscription A/24 indicates the field number is 24, which refers to the diameter (in millimeters) of the fixed diaphragm in the eyepiece. These eyepieces also have a focus adjustment and a thumbscrew that allows their position to be fixed. Manufactures now often produce eyepieces having rubber eye-cups that serve both to position the eyes the proper distance from the front lens, and to block room light from reflecting off the lens surface and interfering with the view.

There are two major types of eyepieces that are grouped according to lens and diaphragm arrangement: the negative eyepieces with an internal diaphragm and positive eyepieces that have a diaphragm below the lenses of the eyepiece. Negative eyepieces have two lenses: the upper lens, which is closest to the observer's eye, is called the eye-lens and the lower lens (beneath the diaphragm) is often termed the field lens. In their simplest form, both lenses are plano-convex, with convex sides "facing" the specimen. Approximately mid-way between these lenses there is a fixed circular opening or internal diaphragm which, by its size, defines the circular field of view that is observed in looking into the microscope.

The simplest negative eyepiece design, often termed the Huygenian eye-piece (illustrated in Figure 2), is found on most teaching and laboratory microscopes fitted with achromatic objectives. Although the Huygenian eye and field lenses are not well corrected, their aberrations tend to cancel each other out. More highly corrected negative eyepieces have two or three lens elements cemented and combined together to make the eye lens. If an unknown eyepiece carries only the magnification inscribed on the housing, it is most likely to be a Huygenian eyepiece, best suited for use with achromatic objectives of 5x-40x magnification.

The other main kind of eyepiece is the positive eyepiece with a diaphragm below its lenses, commonly known as the Ramsden eyepiece, as illustrated in Figure 2 (on the left). This eyepiece has an eye lens and field lens that are also plano-convex, but the field lens is mounted with the curved surface facing towards the eye lens. The front focal plane of this eyepiece lies just below the field lens, at the level of the eyepiece diaphragm, making this eyepiece readily adaptable for mounting reticles. To provide better correction, the two lenses of the Ramsden eyepiece may be cemented together.

A modified version of the Ramsden eyepiece is known as the Kellner eyepiece, as illustrated on the left in Figure 3. These improved eyepieces contain a doublet of eye-lens elements cemented together and feature a higher eyepoint than either the Ramsden or Huygenian eyepiece as well as a much larger field of view. A modified version of the simple Huygenian eyepiece is also illustrated in Figure 3, on the right. While these modified eyepieces perform better than their simple one-lens counterparts, they are still only useful with low-power achromat objectives.

Simple eyepieces such as the Huygenian and Ramsden and their achromatized counterparts will not correct for residual chromatic difference of magnification in the intermediate image, especially when used in combination with high magnification achromatic objectives as well as any fluorite or apochromatic objectives. To remedy this, manufacturers produce compensating eyepieces that introduce an equal, but opposite, chromatic error in the lens elements. Compensating eyepieces may be either of the positive or negative type, and must be used at all magnifications with fluorite, apochromatic and all variations of plan objectives (they can also be used to advantage with achromatic objectives of 40x and higher). In recent years, modern microscope objectives have their correction for chromatic difference of magnification either built into the objectives themselves (Olympus and Nikon) or corrected in the tube lens (Leica and Zeiss).

Compensating eyepieces play a crucial role in helping to eliminate residual chromatic aberrations inherent in the design of highly corrected objectives. Hence, it is preferable that the microscopist uses the compensating eyepieces designed by a particular manufacturer to accompany that manufacturer's higher-corrected objectives. Use of an incorrect eyepiece with an apochromatic objective designed for a finite (160 or 170 millimeter) tube length application results in dramatically increased contrast with red fringes on the outer diameters and blue fringes on the inner diameters of specimen detail. Additional problems arise from a limited flatness of the viewfield in simple eyepieces, even those corrected with eye-lens doublets.

More advanced eyepiece designs resulted in the Periplan eyepiece that is illustrated in Figure 4 above. This eyepiece contains seven lens elements that are cemented into a single doublet, a single triplet, and two individual lenses. Design improvements in periplan eyepieces lead to better correction for residual lateral chromatic aberration, increased flatness of field, and a general overall better performance when used with higher power objectives.

Modern microscopes feature vastly improved plan-corrected objectives in which the primary image has much less curvature of field than older objectives. In addition, most microscopes now feature much wider body tubes that have greatly increased the size of intermediate images. To address these new features, manufacturers now produce wide-eyefield eyepieces (illustrated in Figure 1) that increase the viewable area of the specimen by as much as 40 percent. Because the strategies of eyepiece-objective correction techniques vary from manufacturer to manufacturer, it is very important (as stated above) to use only eyepieces recommended by a specific manufacturer for use with their objectives.

Our recommendation is to carefully choose the objective first, then purchase an eyepiece that is designed to work in conjunction with the objective. When choosing eyepieces, it is relatively easy to differentiate between simple and more highly compensated eyepieces. Simple eyepieces such as the Ramsden and Huygenian (and their more highly corrected counterparts) will appear to have a blue ring around the edge of the eyepiece diaphragm when viewed through the microscope or held up to a light source. In contrast, more highly corrected compensating eyepieces with have a yellow-red-orange ring around the diaphragm under the same circumstances.

Overview

Quick Details

Model:MDE4-500BC

Sensor & Size(mm):5.0M/SC5033(C) 1/2.7"(5.18x3.89)

Pixel(μm):2.0x2.0

FPS/Resolution:15@2560x1920,20@2048x1536,20@1600x1200,30@800x600

Binning:1x1,2x2

Exposure:Auto

Spectral Range:380-650nm

White Balance:Auto White Balance

Packaging & Delivery

Packaging Details:Strong Carton with Polyfoam Protection

Port:Beijing

Lead Time:Within 1-2 weeks after receiving payment

Introduction

MDE4-500BC(With SC5033(C) Sensor) is an economic version with simple and compact structure USB3.0 CMOS eyepiece camera. USB3.0 is used as the data transfer interface.
Microscope eyepiece camera with 23.2 diameter and compact size;

Microscope eyepiece camera with 23.2 diameter and compact size;

The MDE4 comes with high-speed USB3.0 interface and high frame rate video display keep the screen smooth without interruption; Also the MDE4 comes with advanced video & image processing application ImageView.

The MDE4 can be widely used to transfer the mono or binocular student microscopes to digital microscope.

With 23.2 to 30mm or 23.2 to 30.75 convert ring, the MDE4 camera can also change the stereo microscope to digital stereo microscope.

Feature

The basic characteristic of MDE4 cameras are as follows:

1. Microscope eyepiece camera with 23.2 diameter and compact size;
2. Easy to extend to C or CS- Mount camera with high quality lens(optional);
3. High-quality camera with Aptina CMOS sensor;
4. Auto white balance and auto-exposure; Brightness, contrast, chroma, and saturation can be adjusted;
5. High-speed USB3.0 interface and high frame rate video display keep the screen smooth without interruption;
6. With advanced video & image processing application ImageView;
7. Providing Windows/Linux/Mac OS multiple platforms SDK;
8. Native C/C++, C#/VB.NET, DirectShow, Twain Control API.

Specification

C: Color; M: Monochrome;

Dimension of MDE4

The MDE4 body, made from aluminum alloy blackening, ocular housing: Dia.32 X 56mm ensures a heavy duty, workhorse solution. The camera is designed with a high quality IR-CUT filter to filter the infrared light and protect the camera sensor. No moving parts included. This design ensures a rugged, robust solution with an increased lifespan when compared to other industrial camera solutions.

Packing Information for MDE4

Overview

Quick Details

Model:MDE4-500BC

Sensor & Size(mm):5.0M/SC5033(C) 1/2.7"(5.18x3.89)

Pixel(μm):2.0x2.0

FPS/Resolution:15@2560x1920,20@2048x1536,20@1600x1200,30@800x600

Binning:1x1,2x2

Exposure:Auto

Spectral Range:380-650nm

White Balance:Auto White Balance

Packaging & Delivery

Packaging Details:Strong Carton with Polyfoam Protection

Port:Beijing

Lead Time:Within 1-2 weeks after receiving payment

Introduction

MDE4-500BC(With SC5033(C) Sensor) is an economic version with simple and compact structure USB3.0 CMOS eyepiece camera. USB3.0 is used as the data transfer interface.
Microscope eyepiece camera with 23.2 diameter and compact size;

Microscope eyepiece camera with 23.2 diameter and compact size;

The MDE4 comes with high-speed USB3.0 interface and high frame rate video display keep the screen smooth without interruption; Also the MDE4 comes with advanced video & image processing application ImageView.

The MDE4 can be widely used to transfer the mono or binocular student microscopes to digital microscope.

With 23.2 to 30mm or 23.2 to 30.75 convert ring, the MDE4 camera can also change the stereo microscope to digital stereo microscope.

Feature

The basic characteristic of MDE4 cameras are as follows:

1. Microscope eyepiece camera with 23.2 diameter and compact size;
2. Easy to extend to C or CS- Mount camera with high quality lens(optional);
3. High-quality camera with Aptina CMOS sensor;
4. Auto white balance and auto-exposure; Brightness, contrast, chroma, and saturation can be adjusted;
5. High-speed USB3.0 interface and high frame rate video display keep the screen smooth without interruption;
6. With advanced video & image processing application ImageView;
7. Providing Windows/Linux/Mac OS multiple platforms SDK;
8. Native C/C++, C#/VB.NET, DirectShow, Twain Control API.

Specification

C: Color; M: Monochrome;

Dimension of MDE4

The MDE4 body, made from aluminum alloy blackening, ocular housing: Dia.32 X 56mm ensures a heavy duty, workhorse solution. The camera is designed with a high quality IR-CUT filter to filter the infrared light and protect the camera sensor. No moving parts included. This design ensures a rugged, robust solution with an increased lifespan when compared to other industrial camera solutions.

Packing Information for MDE4

Introduction
BWHC-4K8MPA 4K UHD WIFI HDMI digital camera has adopted high sensitivity 1/1.8 inch 8.3MP Sony CMOS image sensor, pixel size 2.0um. The camera has high dynamic range, high sensitivity and excellent thermal noise suppression features. The camera outputs 4K resolution of 3840 x2160 pixels, the resolution is 4 times as 1080P cameras, maximum frame rate is 60fps. The Camera can be connected to 4K UHD Screen via HDMI interface, it also can be connected to PC via USB3.0, WIFI or GigE and controlled with professional software. The captured images will be saved to SD card or USB flash drive, the camera can ensure every detail is not to be missed.

BWHC-4K8MPA can be controlled by a mouse, the operation is simple and quick. This camera has many measurement functions, like point, line, circle, rectangle, annulus, polygon, polyline, angle, double circle, distance from point to line, concentric circles and so on.
Application
BWHC-4K8MPA 4K UHD WIFI HDMI digital camera can be widely used in video conferencing, remote medical diagnosis, microscopy images, industrial inspection, video projectors, security monitoring field. With the high image quality and easy to operate features, it will be your best assistant for following applications:

1. Live Cell Imaging
2. Surgical Microscopic Imaging
3. Pathology
4. Cytology
5. Defect Analysis
6. Semiconductor Inspection
7. Electronics and circuit board inspection
8. Metrology
9. Navigation for Processed Imaging
10. Industrial Optical HD Digital Imaging
11. Astronomical Observation

BWHC-4K8MPA Datasheet

C:color; M:Monochrome;

BWHC-4K8MPA Interface Description

	HDMI	For 4k/1080P video image output. Compliant with HDMI2.0.
	USB Mouse	For connecting USB Mouse. Used for controlling the HDMI camera with XCamView
	USB 3.0	USB flash drive
		Connecting 5G Wi-Fi adapter for wireless video image transmission (will be added in second version)
		USB video image output (will be added in second version)
	GE	Gigabit Ethernet port connecting router/switch for network transmission of video images
	SD	SD-card slot. Compliant with SDIO3.0.
	DC12V	12V Power in
	ON/OFF	Power On/ Off switch
	LED	Power Indicator

BWHC-4K8MPA Function Description
1. Video Image Output

2. Video Record and Image Capture

Test Data:

3. ISP Function

4. Image Assist Function

5. Others

Sample Images

Overview

Quick Details

Model:BWHC-4K8MPA

Sensor & Size(mm):1/1.8"

Pixel(μm):2.0x2.0

G Sensitivity Dark Signal:505mv with 1/30s

FPS/Resolution:60@3840*2160(HDMI)

Binning:1x1

Exposure:0.04ms~1000ms

USB Port:USB3.0

Image Capture:8MP

Packaging & Delivery

Packaging Details:Strong Carton with Polyfoam Protection

Port:Beijing

Lead Time:Within 1-2 weeks after receiving payment

Introduction

BWHC-4K8MPA 4K UHD HDMI/GigE/WiFi Multi-outputs Digital Camera(With Sony IMX334(C) Sensor) is the next-generation live-view imaging-system with 4K resolution at 60/30 FPS.

BWHC-4K series comes with Sony Exmor CMOS sensor with high sensitivity, low dark current and no smear achieved through the adoption of R, G and B primary color mosaic filters.

The cameras use a standard C-mount interface for maximum compatibility with various microscopy-systems. It can be used as a stand-alone recorder when used with an HDMI monitor or television, or live-streamed to a PC via Gigabit Ethernet (GE) for image-capture and video-recording.

Hardware 3D denoising, sharpness and local tone mapping control functions greatly improve the image and video quality.

The included Windows software offers image-development and measurement tools, as well as advanced compositing features such as image-stitching and extended-depth-of-focus. With the ability to calibrate scales at multiple magnifications, the software can be used for multi-level inspection. For Mac and Linux, there is a lite version of the software which can capture video and still images, and includes limited processing features.

The BWHC-4K series cameras are intended to be used for the acquisition of digital images from the stereo microscope, biological microscope or online interactive teaching.

Features

The basic characteristics are listed as below:

1.Sony Exmor CMOS sensor;

2.4K HDMI/GE/WLAN multiple video outputs;

3.4K/1080P auto switching according to the display resolution;

4.SD card/USB flash disk for the captured image and video storage;

5.Embedded XCAMView for the control of the camera with mouse, no shaking;

6.With strong ISP and other related processing functions;

1. ImageView software for PC;
2. iOS/Android applications for smart phones or tablets.

Application

1.Scientific research, digital teaching (teaching, demonstration and academic discussing);

2.Digital laboratory, medical research;

3.Machine vision (PCB detection, IC quality control);

4.Medical treatment (pathological observation);

5.Food (microbial colony observation and counting);

6.Aviation and military.

Specification

C: Color; M: Monochrome;

Product description

Size:1X

C-mount 0.35X Microscope Adapter Description
(1).Magnification: 0.35X
(2).Suit for Olympus Biological Microscope: AX serials, CX serials, BX serials, MX serials, CX2 serials, BX2 serials; and also suit for Olympus Volume Microscope SZX serials.
(3).Suit for Sensor: 1/2.5" 1/3" 1/4"
C-mount 0.5X Microscope Adapter Description
(1).Magnification: 1X
(2).Suit for Olympus Biological Microscope: AX serials, CX serials, BX serials, MX serials, CX2 serials, BX2 serials; and also suit for Olympus Volume Microscope SZX serials.
(3).Suit for Sensor: 1/1.8" 1/2" 1/2.5"
(4).Easy Focus Adjustable and Lockable, Do not need extra tools.
C-mount 1X Microscope Adapter Description
(1).Magnification:1X (Without lens)
(2).Suit for Olympus Biological Microscope: AX serials, CX serials, BX serials, MX serials, CX2 serials, BX2 serials; and also suit for Olympus Volume Microscope SZX serials.
(3).Suit for Sensor: 1" 2/3"
(4).Top Thread: Outside C-mount thread ( 25.4 mm)
(5).Outside Diameter of Bottom: 42 mm
(6).Adjustable: NO
0.63X Professional Microscope Camera Adjustable C mount Adapter for Trinocular Olympus Microscope
Reduction Rate: 0.63X
Suit for Olympus Biological Microscope: AX serials, CX serials, BX serials, MX serials, CX2 serials, BX2 serials; and also suit for Olympus Volume Microscope SZX serials.
Suit for Sensor: 1/1.8" 2/3" 1/2"
Focus Adjustable and Lockable
Specification of 1.2X Microscope Adapter for Olympus
Sensor Size:4/3”,1”
Mount Type:M42-Mount Warm Tips
(1).1X C mount adapter for Olympus trinocular microscope, without lense, with fine tuning, no adjustable, can make computer display and eyepiece observation synchronization.
(2).It was NOT made by Olympus. It's a substitute product, NOT copy.
Package
Package Included: 1 x Adapter only (microscope and other accessories are not included)

Product information

Size:1X

Control Knobs Capable of Quick Inspection

Zoom knob with click-stop

With a wide zoom range of 0.63x to 6.3x, users can observe samples at a range of magnifications without having to switch objective lenses. A specially designed dual objective holder with axial detent further extends the range of possible magnifications. The axial light path setting ensures that measurements taken with the camera are reliable and precise in all directions making results independent from the orientation of the sample under the microscope.   Since many imaging and measuring tasks require the use of the same zoom magnification setting to ensure consistent and comparable results, the integrated 11-position click-stop makes it easy to record and reproduce zoom settings.

Superior Performance from a Choice of 8 Interchangeable Objectives

Lineup of Objective Lenses

DFPL2x/DPFL1.5x /DFPL 0.75x /DFPL 0.5x The DFPL series of objectives accurately reproduce sample shapes with outstanding color fidelity. DFPLAPO 1.25x /DFPLAPO1x4 Aprochromatically corrected to achieve the highest degree of performance. Excellent resolving power, contrast, and image flatness with minimum distortion. SZX-ACH1.25x /SZX-ACH1x Well-balanced objectives that combines high resolving power with long working distance.

Stands and Illumination Units

Low-profile LED Illumination Base

The Olympus SZX series features the unique Olympus LED base system for fine control of transmitted illumination and bright, even images. With the ultra-slim 40 mm base, the SZX2 series has the ergonomic stage height available.  Moreover, a novel carousel makes it easy to select and control brightfield, darkfield, and oblique illumination. The long-life LEDs do not heat the stage or sample, greatly enhancing the flexibility for material stereo microscopy.

Compact Design Compatible with High Optical Performance

Greenough Optical System Ray Diagram SZ51/61 have zoom ratios of 5:1 and 6.7:1 (zoom range 0.8x-4x and 0.67x-4.5x) respectively and are affordably priced yet off the highest resolving power in their price range and are available with either 45 or 60 degree inclination angles for observation. Utilizing the Greenough optical design, all zoom bodies incorporate the latest aberration and distortion-free optics that set a new standard in optical quality while maintaining superior operability.The V-shape optical path ensures a slim zoom body - ideal for integration into other equipment or stand alone use.3 Dimensional Viewing The optimum inward angle allows just the right combination of high level flatness and depth of focus for 3D viewing. Even a specimen with significant depth can be brought into focus from top to bottom for faster inspectionObservation Images with High Color Fidelity Superior optical coatings render true color images with fine detail.ESD Measures for Protecting Devices from Static ElectricityThe main unit and major accessories can quickly eliminate static electricity with the use of antistatic materials and coatings. This prevents a specimen under observation from electrostatic damage.