High Resolution Microscopy Cameras 20MP-1000MP

High Resolution Cameras, from 20MP to 100MP
Color or Monochrome
Long exposure time, up to 1 hr
With or without cooling
Great choice for microscopy, astronomy, photography, art and printing

High Resolution Cameras

When one pixel of camera resolution can be equal to a star in sky or a biological component in a living organism, a high-resolution camera plays the key role.

Introduction:

High-resolution microscopy cameras are a critical tool for scientific research, enabling the acquisition of high-quality images with unprecedented detail and accuracy. This scientific writing aims to provide an overview of the importance of high-resolution microscopy cameras in scientific research and the technological advancements that have made this possible.

Importance of High-Resolution Microscopy Cameras:

Microscopy has been a crucial tool in scientific research for decades, enabling the observation of specimens at the cellular and molecular levels. However, traditional microscopy methods had limitations in terms of resolution and sensitivity, making it challenging to capture high-quality images with fine details. High-resolution microscopy cameras have revolutionized this field, allowing researchers to capture images with high spatial resolution and contrast.

Technological Advancements:

The development of high-resolution microscopy cameras has been possible due to advances in imaging technologies, including the use of high-performance sensors and sophisticated image processing algorithms. The latest microscopy cameras are equipped with state-of-the-art sensors, including charge-coupled devices (CCDs) and complementary metal-oxide-semiconductor (CMOS) sensors, that can capture images with high resolution and low noise.

Additionally, modern microscopy cameras come equipped with advanced software that enables real-time image processing and analysis, making it easier for researchers to extract relevant data from the images. These software solutions allow researchers to visualize and analyze complex biological structures with greater ease, helping them to better understand cellular and molecular processes.

Applications of High-Resolution Microscopy Cameras:

High-resolution microscopy cameras have a wide range of applications in scientific research, including in the fields of cell biology, microbiology, and materials science. These cameras are essential tools for the study of cellular processes, enabling researchers to visualize the dynamics of cellular structures and the interactions between different molecules.

In the field of materials science, high-resolution microscopy cameras are used to study the structure and properties of materials at the nanoscale. This has led to significant advancements in the development of new materials with novel properties and functions.

Conclusion:

In conclusion, high-resolution microscopy cameras have revolutionized scientific research, enabling researchers to capture high-quality images with unprecedented detail and accuracy. The advancements in imaging technologies, including sensors and image processing algorithms, have made it possible to capture images with high spatial resolution and contrast. High-resolution microscopy cameras have a wide range of applications in scientific research, and their continued development promises to unlock new discoveries in a range of fields.

Why High Resolution?

Everyone has seen the pixelation issue like the first panel (top left) in the below image:

What if we improve that and provide a high resolution image like the last image of the panel bottom-right. The key to succeed and get such a good quality image is using a high megapixel camera.

Bioimager offers cameras from 20MP to hundreds of megapixel.

Featurfes

High Resolution: High-resolution cameras typically have a resolution of several megapixels or higher, enabling researchers to capture images with high spatial resolution and detail.
Large Sensor Size: High-resolution cameras usually have larger sensor sizes that allow for better light collection and low noise, resulting in high-quality images with better contrast and color.
Low Noise: High-quality cameras have low noise, making it possible to capture images with greater clarity and contrast.
Live Video Output: Some cameras come with a live video output feature, enabling real-time observation and analysis of the specimen.
Advanced Image Processing: Advanced software allows for image processing and analysis, enabling researchers to extract relevant data from the images.
Compatibility with Different Microscope Types: High-resolution cameras can be used with different types of microscopes, including brightfield, fluorescence, and confocal microscopes.
Multiple Image Formats: High-quality cameras support multiple image formats, including JPEG, TIFF, and RAW, giving researchers flexibility in storing and processing images.
Adjustable Exposure Time: Exposure time can be adjusted to optimize the signal-to-noise ratio for different types of samples.
Easy-to-use Interface: Many high-resolution cameras come with user-friendly interfaces that make it easy for researchers to operate and adjust settings.

High Resolution Cameras

The highest resolution camera in the world , by Jan 29, 2023, is 3,200 megapixel (or 3.2 gigapixels). It can get a picture of a golf ball at 15miles away. This camera is more than 2 feet wide, 5 feet diameter and the whole camera is 13 feet from the front lens to the back. This was made to help the Vera Rubin Observatory’s telescope study space.

We are proud to offer 288MP camera for photography, microscopy imaging or special applications. One photography lover says you need to sell only three organs (of your choice!) in the black market to get one. Another thinks if you buy that you will be given a free car. This sensor is not available for microscopy or astronomy usage directly, but you can contact us to get a proper mount adapter to use with your own microscope, telescope or a custom imaging device that you have made/will make.

We have made a big selection of high-resolution cameras available in the specification tab. There are two important things to be considered when you choose such a camera, beside the resolution and/or sensor size.

Camera Mount; since the sensor size is large and even sometimes super large, thus a special mount is required.
Data Transfer interface; As the number of pixels goes up, the file size becomes larger. Thus a special data transfer interface needs to be taken into account. We supply special data grabber and other required accessories in a bundle.

The rest is just simply hook the camera to your microscopy system and enjoy zooming in and zooming out, and browsing as deep as you like.

Categories: High Resolution Cameras, Cameras, Chip Size (1/4"-2"), CMOS, Featured, Special Selection, USB 3.0 Cameras Tags: camera, long, rectangule, resolution, square, stretched, usb 3

1. High Resolution Microscopy/Astronomy Cameras

Order Code	Sensor & Size (mm)	Pixel (μm)	G Sensitivity Dark Signal	FPS/Resolution	Binning	Exposure	Others
BIC-SYN-1152	1152MP GS 84x42mm (D=93.91mm)	3.5×3.5	Dark Noise <3e- QE: 52% for B/W w/o u-lens, 78% for B/W w/ u-lens, 68% in red	2.5fps@12bit, 3.75fps@8bit 48,000×24,000	x-bin2 y-bin2	60 us (trigger) – free run.	With Pixel Shift CoaXpress 32 data lane MIPI (Max 1.5GHz per lane)
BIC-SYN-288	288MP GS 84x42mm (D=93.91mm)	3.5×3.5	Dark Noise <3e- QE: 52% for B/W w/o u-lens, 78% for B/W w/ u-lens, 68% in red	10fps@12bit, 15fps@8bit, 20fps@mono bin2, 24,000×12,000	x-bin2 y-bin2	60 us (trigger) – free run.	Non Pixel Shift CoaXpress 32 data lane MIPI (Max 1.5GHz per lane)
BIC-ART-250	250MP (C, M, RS) M42	1.5×1.5	4,100e/lx/s	3f@ 19568×12588	1×1	1/60000-2s	USB3.0 U-Mount (M42), F-Mount 80x65x75mm
BIC-SYN-216	216MP GS 63x42mm (D=75.71mm)	3.5×3.5	Dark Noise <3e- QE: 52% for B/W w/o u-lens, 78% for B/W w/ u-lens, 68% in red	10fps@12bit, 15fps@8bit, 18,000×12,000	x-bin2 y-bin2	60 us (trigger) – free run.	Non Pixel Shift CoaXpress 32 data lane MIPI (Max 1.5GHz per lane)
BIC-HKR-151	151MP (C or M, RS) M72 (66.7mm)	3.76×3.76		6.2@ 14,208 x 10,640	1×1, 1×2, 1×4, 2×1, 2×2, 2×4, 4×1, 4×2, 4×4	15us-10s	CoaXPress M72x0.75 1kg, 100x100x74.3mm
BIC-HKR-101C	101MP (C, RS) M72 (55mm sensor)	3.76×3.76		8@ 11520 × 8740	1×1, 1×2, 1×4, 2×1, 2×2, 2×4, 4×1, 4×2, 4×4	15us-10s	CoaXPress M72x0.75 0.79kg, 90×90× 71.5 mm
BIC-DLS-86M	86.4MP Mono, GS M95 (64x48mm)	6.00x 6.00		16@ 10,720×8,064			2.1GB/s 1.98kg, 100x100x71mm
BIC-HKR-65M	65MP (M, GS) 29.9 × 22.4 mm	3.2×3.2		31.5@ 9216 × 7000	1×1, 1×2, 1×4, 2×1, 2×2, 2×4, 4×1, 4×2, 4×4	15us-10s	CoaXPress, GenICam M58 /F-Mount 0.5kg
BIC-HKR-61M	61MP CMOS (M) 2.7″ (35.98×23.99)	3.76 x 3.76	871mv with 1/30s 0.039mv with 1/30s 88.3dB/47.1dB	6.1@9568×6380(16bit) 19.1@4784×3190 55.6@3184×2124 191@1040×706	1×1 2×2 3×3 9×9	0.1ms~1000s	M52x0.75 thread 2.25x c-mount adapter is available for Z, N, L, O.
BIC-HKR-61C	61MP CMOS (C) 2.7″ (35.98×23.99)	3.76 x 3.76	484.5mv with 1/30s 0.039mv with 1/30s 85.8dB/47.0dB	6.1@9568×6380(16bit) 19.1@4784×3190 55.6@3184×2124 191@1040×706	1×1 2×2 3×3 9×9	0.1ms~1000s	M52x0.75 thread 2.25x c-mount adapter is available
BIC-HKR-50M	50MP CCD (M, GS) 46.98×21.6mm	4.5×4.5		4@ 10440×4800	1×1, 1×2, 1×4, 2×1, 2×2, 2×4, 4×1, 4×2, 4×4	15us-10s	Camera Link Vision, GenlCam M58 /F-Mount
BIC-E3C-46M	46MP Sony Special (M) 4/3″ (19.11×13.00)	2.32×2.32	351mv with 1/30s 0.12mv with 1/30s	8@8256×5616 31@4128×2808	1×1, 2×2	0.1ms~15s
BIC-E3C-46C	46MP Sony Special (C) 1.4″ (18.93×13.00)	2.315×2.315	108mv with 1/30s 0.03mv with 1/30s	8.1@8176×5616 8.1@7408×5556 33@4088×2808 34.7@4096×2160 62.5@2048×1080 86.5@1360×720	1×1 2×2 3×3 4×4	0.1-15mS
BIC-E3C-32C	32MP Sony Special (C) 1.15″ (12.96×12.96)	2.315×2.315	108mv with 1/30s 0.03mv with 1/30s	8.1@5600×5600 30.0@2800×2800 30@1400×1400	1×1 2×2 4×4	0.1-15mS
BIC-E3S-21C	21MP IMX269(C) 4/3″(17.40×13.00)	3.3×3.3	399mv with 1/30s 0.1mv with 1/30s	17@5280×3954 17@3952×3952 56 @2640×1976 67@1760×1316 192@584×438	1×1 1×1 2×2 3×3 9×9	0.1ms~15s
BIC-E3S-20C	20MP IMX183(C) 1″(13.06×8.76)	2.4×2.4	462mv with 1/30s 0.21mv with 1/30s	15@5440×3648 50 @2736×1824 60@1824×1216	1×1 2×2 3×3	0.1ms~15s
BIC-E3C-20C1	20M IMX183(C) 1″(13.06×8.76)	2.4×2.4	462mv with 1/30s 0.21mv with 1/30s	5.5 @5440×3648 16 @2736×1824 21 @1824×1216	1×1 2×2 3×3	0.1ms~15s
BIC-E3C-20M1	20MP IMX183(M) 1″(13.06×8.76)	2.4×2.4	776mv with 1/30s 0.21mv with 1/30s	15.5 @5440×3648 40 @ 4080×2160 48 @2736×1824 60 @1824×1216	1×1 1×1 2×2 3×3	0.1ms~60s
BIC-E3C-20C2	20MP IMX147(C) 1/2.3″(6.24×4.67)	1.2×1.2	130mv with 1/30s 0.1mv with 1/30s	5.2 @5440×3648 15 @2736×1824 30 @1824×1216	1×1 2×2 3×3	0.1ms~15s
BIC-E3S-18C	18MP Sony Special(C) 1/2.2″(5.86×4.46)	1.2×1.2	130mv with 1/30s 0.10mv with 1/30s	17@4880×3720 40@2448×1836 50@1728×1296	1×1 2×2 3×3	0.1ms~15s

C: Color, M: Monochrome, RS: Rolling Shutter, GS: Global Shutter

2. Cameras with Cooling Technology

Two-stage TE-cooling with controllable electric fan
Sensor chip cooling up to 42°C below ambient temperature;
Up to 1hr exposure time

Order Code	Sensor & Size(mm)	Pixel (μm)	G Sensitivity Dark Signal	FPS/Resolution	Binning	Exposure
BIC-T3C-45M	45MP IMX492(M) 4/3″(19.11×13.00)	2.32 x 2.32	351mV with 1/30s 0.12mV with 1/30s	8@8256×5616 31@4128×2808	1×1, 2×2	0.1ms~3600s
BIC-T3C26C	26M/IMX571(C) 1.8″(23.48×15.67)	3.76×3.76	485mv with 1/30s 0.07mv with 1/30s	6.8@6224×4168(16bit) 14@6224×4168 37@3104×2048 110@2064×1388	1×1 1×1 2×2 3×3	0.1ms~3600s
BIC-T3C-21C	21M/IMX183(C) 4/3″(17.40×13.10)	3.3×3.3	400mv with 1/30s 0.10mv with 1/30s	5@5280×3956 6@3952×3952 15@2640×1978 50@1760 x1318 100@584×440	1×1 1×1 2×2 3×3 9×9	0.1ms~3600s
BIC-T3C-20C	20M/IMX183(C) 1″(13.06×8.76)	2.4×2.4	462mv with 1/30s 0.21mv with 1/30s	5@5440×3648 10 @ 4096×2160 15@2736×1824 30@1824 x1216	1×1 2×2 3×3	0.1ms~3600s
BIC-T3C-20M	20M/IMX183(M) 1″(13.06×8.76)	2.4×2.4	388mv with 1/30s 0.21mv with 1/30s	17.8@5440×3648 41 @ 4096×2160 51@2736×1824 64@1824 x1216	1×1 2×2 3×3	0.1ms~3600s
BIC-T3C-16C	16MP MN34230(C) 4/3“ (17.60×13.30)	3.8×3.8	2413LSB 89.1LSB (Gain = 0dB)	6 @4648×3506 20@2304×1750 48@1536×1168	1×1 2×2 3×3	0.15ms~3600s
BIC-T3C-16M	16MP MN34230(M) 4/3“ (17.60×13.30)	3.8×3.85	2560LSB 89.1 LSB (Gain=0dB)	22.5 @4648×3506 43@2304×1750 48@1536×1168	1×1 2×2 3×3	0.15ms~3600s