Eyepiece-Less 3D Stereo Microscope MC-ELS Series The MC-ELS series is an stereo microscope with eyepiece-less technology which projects a large, high quality optical stereo image directly into the user's eyes. Makes the image much easier and more comfortable to view compared with traditional stereo microscopes. The unique image quality presented is a result of bespoke lenses and optics, tailored to each system. The clarity of the 3D image supports enhanced hand-eye coordination, making subject manipulation with tools more accurate, faster and more efficient. ●Unique large high quality optical stereo image ●Ergonomic design for user comfort and productivity ●3D dynamic view optics ●3D dynamic illumination system ●Suitable for wider range of applications ●Ideal for any application requiring magnification up to 15X
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Our hot-selling 4K 3D Digital Microscope 👏 1. 4K high-definition image quality. 2. Support 2D| 3D free switching function, can be three-dimensional observation. 3. Camera function: HDR wide dynamic, mirror flip, image freeze, glare suppression. #digitalmicroscope #electronicsoldering #electronicinspection #electronicequipment #industrialinspection #visionsolutin #PCBinspection #digitalimage #measurementsolution #microscopy
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𝟯𝗗 𝗨𝗺𝗯𝗶𝗹𝗶𝗰𝗮𝗹 𝗔𝗿𝘁𝗲𝗿𝘆 𝗶𝗻 𝗨𝗹𝘁𝗿𝗮𝘀𝗼𝘂𝗻𝗱 𝗪𝗵𝘆? 💥 To visualize the umbilical artery loop with depth perception and virtual render effect. 💥 To demonstrate the effect of cord around the neck with better impact. 💥 To confirm the presence of two umbilical arteries in 3D effect. 💥 Demonstrate the Single umbilical artery with much precision. 𝗛𝗼𝘄 𝘁𝗼? 💥 Take color doppler imaging without glazing flow. 💥 Select 3D and acquire the free loop of cord. Press Glass body mode for dual visualization. 💥 Press 4D and STIC to acquire real time flow visualization. 💥 Below image is done with only color flow mode visualization in 3D. Image below taken with Mindray consona n9. #startwithwhy #ultrasound
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Introducing 1.3 Mega Pixel Microscope Camera | MVV-1300 | QUASMO | #microscopecamera Features: - - Built-in relay lens to widen field and to have image sharp and bright - Compatibility with Windows and MAC - Copyright software with 8 languages version. - Camera house: compact and light-weight round-shaped shell. - Real active resolution, no interpolation, no jaggies in picture. - Easy installation, convenient operation. Functions: -To convert microscope and stereo microscope into digital ones - To adjust the gain, resolution, WB, contrast, exposure time, RGB color and Gamma setting. -To edit pictures and to manage files of pictures and movies. -To capture images for living show, for shoot and for video recording. Specifications: -Capture Mode: Picture and Video -Active Pixels: 1280 x 1024 -Responsivity: 1.0V/ lux-sec -Dynamic Range: 71dB -S/N Ratio: 44dB -Spectral Range: 400-650nm (with IR-filter) -Frame Rate: 17fps @ 1280 x 1024 -Preview Model: 1280x1024, 1280x800, 1024x768, 800x600, 640x480, 352x288, 320x240 -Exposure: ERS or Manual -Power Consumption: 190mW -Eyepiece Adapter Size: 23.2mm, 30.0mm -Power Supply: USB Powered -Device Weight: 0.09kg -Device Size: Φ74.00mm x 97.00mm -Cable Length: 1.5m -Function of Software: Image & Video Capture, Edit, and Management
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EXCITING NEWS FOR ALL WIDEFIELD MICROSCOPY USERS: The NEW Apotome 3 has been Launched. Optical sectioning with ZEISS Apotome 3 allows you to efficiently minimize out-of-focus light. It’s a totally reliable way to create crisp images and 3D renderings, even of thicker specimen. Yet your widefield microscope remains just as easy to operate as always. Add Apotome Plus to get even higher contrast and distinguish structures down to 180 nm – simply brilliant optical sections.
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The Advantages of 3D Imaging in the Flooring Construction Process https://buff.ly/4c55eCz Traditional methods often involve manual measurements, which carry a risk of human error. However, with 3D imaging, this risk is substantially mitigated.
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As light bounces off a surface, it interacts with the materials present, being absorbed, transmitted, or reflected depending on its wavelength. The reflected light from a scene contains spectral signatures, making it possible to identify different objects, materials, and chemical processes. This kind of spectral information is often invisible to the naked eye and undetectable using traditional RGB photography. This is where hyperspectral imaging technology comes into play. Capturing additional layers of hyperspectral data in an image enables many exciting use cases across a range of industries. However, maximising the potential of hyperspectral imaging requires next-generation cameras that are more robust and flexible, easy to use, and can be quickly and effectively operated in the field, away from controlled laboratory conditions or fixed single-purpose systems. The Living Optics Camera represents a technological leap in #hyperspectral #imaging, enabling advanced portable and mobile data collection while also delivering real-time spectral information. Seeing the world in more detail is more powerful when you can actually get out and about to do so. Read our blog to learn how to take hyperspectral technology from the lab to the real world with the Living Optics Camera. https://lnkd.in/djFB__CT
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Discover the power of hyperspectral imaging with the Living Optics Camera. This next-gen technology allows you to capture detailed spectral information in real-time, outside of controlled environments. Learn how to take hyperspectral imaging from the lab to the real world on our blog. #hyperspectral #imaging https://lnkd.in/djFB__CT
As light bounces off a surface, it interacts with the materials present, being absorbed, transmitted, or reflected depending on its wavelength. The reflected light from a scene contains spectral signatures, making it possible to identify different objects, materials, and chemical processes. This kind of spectral information is often invisible to the naked eye and undetectable using traditional RGB photography. This is where hyperspectral imaging technology comes into play. Capturing additional layers of hyperspectral data in an image enables many exciting use cases across a range of industries. However, maximising the potential of hyperspectral imaging requires next-generation cameras that are more robust and flexible, easy to use, and can be quickly and effectively operated in the field, away from controlled laboratory conditions or fixed single-purpose systems. The Living Optics Camera represents a technological leap in #hyperspectral #imaging, enabling advanced portable and mobile data collection while also delivering real-time spectral information. Seeing the world in more detail is more powerful when you can actually get out and about to do so. Read our blog to learn how to take hyperspectral technology from the lab to the real world with the Living Optics Camera. https://lnkd.in/djFB__CT
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If you hadn't seen Felix Taubner's post already: Felix and I are excited to present our work "3D Face Tracking from 2D Video through Iterative Dense UV to Image Flow" at #CVPR2024 this week! This paper presents FlowFace, a versatile 2-stage 3D face tracking pipeline capable of capturing 3D head motion from monocular video. Contributions: ✅ Highly accurate dense 2D face alignment model based on optical flow between UV and image space ✅ Novel metric (SSME) for 3D face tracking Results: ⬇ 54% temporal face alignment error ⬇ 13% 3D reconstruction error Paper: https://lnkd.in/gC2fzHZf This work was done at LGE with Prashant Raina, EU WERN TEH, Chul Lee, and Vic Huang Come chat with us in the AM poster session on Wednesday, poster id 104!
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Our work with the FT today marks the first appearance of Lumafield's new Surface Capture technology that combines X-ray CT and visible light imaging to capture the outsides of the shoes in full color as well as the hidden inner features that make them so fast. We start with a conventional industrial CT scan, capturing 2D X-ray images as the shoe rotates inside our Neptune scanner. We reconstruct these into a 3D volumetric model of the shoe, then derive a surface mesh from that model. We also capture visible-light images of the shoe as it rotates, and use these to apply full-color texture onto the surface geometry that was derived accurately from the CT scan. Hence we’re able to get the best of both worlds: the accuracy and universal view of X-ray CT, plus the full color of surface scanning. This process has some big advantages over conventional 3D surface scans: since we use X-rays, we’re able to see right through overhangs that would obscure parts of the shoe, and we can capture shiny surfaces just as accurately as matte surfaces. Learn more about Lumafield Surface Capture here! https://lnkd.in/gKKX3Q9J And read the FT's incredible interactive exploration of super shoes here! https://lnkd.in/g--FeZVd
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🔬 Master the Microscope: Installing #Lanoptik's #Embedded Camera on #Leica #DM500 binocular microscope🔧 Hello to all the curious minds and meticulous researchers out there! Today, we're thrilled to share a step-by-step guide on seamlessly integrating a Lanoptik Embedded Camera into your Leica DM500 microscope. 👉 Step 1: Remove the eyepiece head of your Leica DM500 using a 3mm Allen key. It's a breeze with a simple twist! 📷 Step 2: Introducing the star of our tutorial – the Lanoptik Embedded Camera. It attaches directly to the body and is designed to fit perfectly with the Leica DM500's dovetail mount. Make sure it's facing forward and locked in place for optimal performance. 🔧 Step 3: Reattach the eyepiece head using the same 3mm Allen key. Precision is key! 🔌 Step 4: Power up your new camera with a USB cable conveniently plugged into the DM500's power output. Remember to connect the microscope's power cable and ensure the HDMI cable and monitor are properly linked for a clear view. 🌟 Step 5: With the camera installed, it's time to turn it on and dive into the wonders of the microscopic world. 📹 Bonus Tip: Do you know we offer 3 types of embedded cameras, all with the same mounting process? Check out this video for a visual guide to mounting. 🕒 Quick Recap: Follow these easy instructions, and in just 5 minutes, you'll be capturing live images from your microscope camera. Efficiency at its finest! 🙌 Thank you for joining us on this journey of discovery. We're here to support your quest for knowledge and innovation. Don't forget to share your microscopic masterpieces with us! #Microscopy #Lanoptik #EmbeddedCamera #LeicaDM500 #Tutorial #Innovation #DigitalMicroscope
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