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Edmund Optics telecentric lens
Telecentric Lens, supplied by Edmund Optics, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/telecentric+lens/lens+telecentric/pm42160440-484-28-31
Average 86 stars, based on 1 article reviews
telecentric lens - by Bioz Stars, 2026-09
86/100 stars

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Related Articles

Solvent:

Article Title: [2601.07043] PANDA-film: an automated system for electrodeposition of polymer thin films and their wetting analysis
Article Snippet: .. The PAW houses six primary modules (Figure 1B): (1) Electrochemical cell – a platinum wire counter electrode coiled around a glass capillary housing an Ag wire pseudo-reference electrode that, when paired with the working electrode mounted on the deck, enable controlled three-electrode electrochemistry and electrodeposition within each well. (2) Electromagnetic decapper (5V 50N, uxcell) – with an integrated cap detection sensor (2168, Adafruit) to automate vial sealing and unsealing, reducing solvent evaporation from stock vials. (3) Imaging system – a telecentric lens (#52-271, Edmund Optics) coupled to a C-mount camera (Grasshopper 3, FLIR), providing distortionfree droplet and film imaging. (4) Robotic pipette – a single-channel OT-2 P300 pipette (Opentrons) controlled via an Arduino for precise liquid handling. (5) Lighting components – a NeoPixel light ring (2863, Adafruit) for uniform illumination imaging and programmable button LEDs (NeoPixel 4776, Adafruit) positioned to create the reflection geometry for contact-angle analysis. (6) Embedded control – an Arduino Uno SMD R3 for direct control of PAW components (pipette actuation, decapper, LEDs) and communication with the higher-level orchestration software. ..

Evaporation:

Article Title: [2601.07043] PANDA-film: an automated system for electrodeposition of polymer thin films and their wetting analysis
Article Snippet: .. The PAW houses six primary modules (Figure 1B): (1) Electrochemical cell – a platinum wire counter electrode coiled around a glass capillary housing an Ag wire pseudo-reference electrode that, when paired with the working electrode mounted on the deck, enable controlled three-electrode electrochemistry and electrodeposition within each well. (2) Electromagnetic decapper (5V 50N, uxcell) – with an integrated cap detection sensor (2168, Adafruit) to automate vial sealing and unsealing, reducing solvent evaporation from stock vials. (3) Imaging system – a telecentric lens (#52-271, Edmund Optics) coupled to a C-mount camera (Grasshopper 3, FLIR), providing distortionfree droplet and film imaging. (4) Robotic pipette – a single-channel OT-2 P300 pipette (Opentrons) controlled via an Arduino for precise liquid handling. (5) Lighting components – a NeoPixel light ring (2863, Adafruit) for uniform illumination imaging and programmable button LEDs (NeoPixel 4776, Adafruit) positioned to create the reflection geometry for contact-angle analysis. (6) Embedded control – an Arduino Uno SMD R3 for direct control of PAW components (pipette actuation, decapper, LEDs) and communication with the higher-level orchestration software. ..

Imaging:

Article Title: [2601.07043] PANDA-film: an automated system for electrodeposition of polymer thin films and their wetting analysis
Article Snippet: .. The PAW houses six primary modules (Figure 1B): (1) Electrochemical cell – a platinum wire counter electrode coiled around a glass capillary housing an Ag wire pseudo-reference electrode that, when paired with the working electrode mounted on the deck, enable controlled three-electrode electrochemistry and electrodeposition within each well. (2) Electromagnetic decapper (5V 50N, uxcell) – with an integrated cap detection sensor (2168, Adafruit) to automate vial sealing and unsealing, reducing solvent evaporation from stock vials. (3) Imaging system – a telecentric lens (#52-271, Edmund Optics) coupled to a C-mount camera (Grasshopper 3, FLIR), providing distortionfree droplet and film imaging. (4) Robotic pipette – a single-channel OT-2 P300 pipette (Opentrons) controlled via an Arduino for precise liquid handling. (5) Lighting components – a NeoPixel light ring (2863, Adafruit) for uniform illumination imaging and programmable button LEDs (NeoPixel 4776, Adafruit) positioned to create the reflection geometry for contact-angle analysis. (6) Embedded control – an Arduino Uno SMD R3 for direct control of PAW components (pipette actuation, decapper, LEDs) and communication with the higher-level orchestration software. ..

Article Title: High-resolution temporal dynamics of diatoms in a large and well-mixed tropical estuary.
Article Snippet: .. Diatom sampling was performed with a shadowgraphic imaging system consisting of a Basler acA4096-30μm camera equipped with a 79- mm telecentric lens (Edmund Optics part # 34–010), capturing images with a resolution of 4096 × 3000 pixels and a pixel size of 12.87 μm. ..

Transferring:

Article Title: [2601.07043] PANDA-film: an automated system for electrodeposition of polymer thin films and their wetting analysis
Article Snippet: .. The PAW houses six primary modules (Figure 1B): (1) Electrochemical cell – a platinum wire counter electrode coiled around a glass capillary housing an Ag wire pseudo-reference electrode that, when paired with the working electrode mounted on the deck, enable controlled three-electrode electrochemistry and electrodeposition within each well. (2) Electromagnetic decapper (5V 50N, uxcell) – with an integrated cap detection sensor (2168, Adafruit) to automate vial sealing and unsealing, reducing solvent evaporation from stock vials. (3) Imaging system – a telecentric lens (#52-271, Edmund Optics) coupled to a C-mount camera (Grasshopper 3, FLIR), providing distortionfree droplet and film imaging. (4) Robotic pipette – a single-channel OT-2 P300 pipette (Opentrons) controlled via an Arduino for precise liquid handling. (5) Lighting components – a NeoPixel light ring (2863, Adafruit) for uniform illumination imaging and programmable button LEDs (NeoPixel 4776, Adafruit) positioned to create the reflection geometry for contact-angle analysis. (6) Embedded control – an Arduino Uno SMD R3 for direct control of PAW components (pipette actuation, decapper, LEDs) and communication with the higher-level orchestration software. ..

Control:

Article Title: [2601.07043] PANDA-film: an automated system for electrodeposition of polymer thin films and their wetting analysis
Article Snippet: .. The PAW houses six primary modules (Figure 1B): (1) Electrochemical cell – a platinum wire counter electrode coiled around a glass capillary housing an Ag wire pseudo-reference electrode that, when paired with the working electrode mounted on the deck, enable controlled three-electrode electrochemistry and electrodeposition within each well. (2) Electromagnetic decapper (5V 50N, uxcell) – with an integrated cap detection sensor (2168, Adafruit) to automate vial sealing and unsealing, reducing solvent evaporation from stock vials. (3) Imaging system – a telecentric lens (#52-271, Edmund Optics) coupled to a C-mount camera (Grasshopper 3, FLIR), providing distortionfree droplet and film imaging. (4) Robotic pipette – a single-channel OT-2 P300 pipette (Opentrons) controlled via an Arduino for precise liquid handling. (5) Lighting components – a NeoPixel light ring (2863, Adafruit) for uniform illumination imaging and programmable button LEDs (NeoPixel 4776, Adafruit) positioned to create the reflection geometry for contact-angle analysis. (6) Embedded control – an Arduino Uno SMD R3 for direct control of PAW components (pipette actuation, decapper, LEDs) and communication with the higher-level orchestration software. ..

Software:

Article Title: [2601.07043] PANDA-film: an automated system for electrodeposition of polymer thin films and their wetting analysis
Article Snippet: .. The PAW houses six primary modules (Figure 1B): (1) Electrochemical cell – a platinum wire counter electrode coiled around a glass capillary housing an Ag wire pseudo-reference electrode that, when paired with the working electrode mounted on the deck, enable controlled three-electrode electrochemistry and electrodeposition within each well. (2) Electromagnetic decapper (5V 50N, uxcell) – with an integrated cap detection sensor (2168, Adafruit) to automate vial sealing and unsealing, reducing solvent evaporation from stock vials. (3) Imaging system – a telecentric lens (#52-271, Edmund Optics) coupled to a C-mount camera (Grasshopper 3, FLIR), providing distortionfree droplet and film imaging. (4) Robotic pipette – a single-channel OT-2 P300 pipette (Opentrons) controlled via an Arduino for precise liquid handling. (5) Lighting components – a NeoPixel light ring (2863, Adafruit) for uniform illumination imaging and programmable button LEDs (NeoPixel 4776, Adafruit) positioned to create the reflection geometry for contact-angle analysis. (6) Embedded control – an Arduino Uno SMD R3 for direct control of PAW components (pipette actuation, decapper, LEDs) and communication with the higher-level orchestration software. ..

Article Title: Rapid integration of somatosensory feedback in planning tongue movements
Article Snippet: Individual frames were hardware-triggered and captured bottom and side views of the mouse’s face, which was illuminated with an 850 nm LED (LED850-66-60, Roithner LaserTechnik). .. Videos were acquired through a telecentric lens (0.25X, Edmund Optics), using a PhotonFocus DR1-D1312-200-G2-8 camera and Streampix 7 software (Norpix). ..

Sampling:

Article Title: High-resolution temporal dynamics of diatoms in a large and well-mixed tropical estuary.
Article Snippet: .. Diatom sampling was performed with a shadowgraphic imaging system consisting of a Basler acA4096-30μm camera equipped with a 79- mm telecentric lens (Edmund Optics part # 34–010), capturing images with a resolution of 4096 × 3000 pixels and a pixel size of 12.87 μm. ..



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Imaging performance of the CircAS-OCT system. (a1)-(a3) Spot diagrams at field radii of 3 mm, 6 mm, and 9 mm. Red, green, and blue markers correspond to wavelengths of 1300 nm, 1310 nm, and 1320 nm, respectively. Black circles denote the Airy disks, and the angles of incidence (AOI) are shown in the upper-right corners. (b1)-(b3) Point spread functions at the same field positions, with Strehl ratios displayed in the lower-right corners. (c) USAF resolution target imaged at a 6-mm radius. The graph on the right shows the line profile of group 4, where element 3 is the finest resolvable feature. (d) Cross-sectional anterior segment image acquired with <t>telecentric</t> scanning optics. The anterior chamber angle skeletons are outlined in red. (e) Cross-sectional image obtained with the CircAS-OCT circular scanning protocol. The corresponding skeletons are outlined in yellow and compared against those from the telecentric configuration.
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Image Search Results


Imaging performance of the CircAS-OCT system. (a1)-(a3) Spot diagrams at field radii of 3 mm, 6 mm, and 9 mm. Red, green, and blue markers correspond to wavelengths of 1300 nm, 1310 nm, and 1320 nm, respectively. Black circles denote the Airy disks, and the angles of incidence (AOI) are shown in the upper-right corners. (b1)-(b3) Point spread functions at the same field positions, with Strehl ratios displayed in the lower-right corners. (c) USAF resolution target imaged at a 6-mm radius. The graph on the right shows the line profile of group 4, where element 3 is the finest resolvable feature. (d) Cross-sectional anterior segment image acquired with telecentric scanning optics. The anterior chamber angle skeletons are outlined in red. (e) Cross-sectional image obtained with the CircAS-OCT circular scanning protocol. The corresponding skeletons are outlined in yellow and compared against those from the telecentric configuration.

Journal: Biomedical Optics Express

Article Title: Circumferential multi-contrast mapping of the aqueous outflow pathway in human eyes facilitated by circular-scan optical coherence tomography angiography

doi: 10.1364/BOE.582858

Figure Lengend Snippet: Imaging performance of the CircAS-OCT system. (a1)-(a3) Spot diagrams at field radii of 3 mm, 6 mm, and 9 mm. Red, green, and blue markers correspond to wavelengths of 1300 nm, 1310 nm, and 1320 nm, respectively. Black circles denote the Airy disks, and the angles of incidence (AOI) are shown in the upper-right corners. (b1)-(b3) Point spread functions at the same field positions, with Strehl ratios displayed in the lower-right corners. (c) USAF resolution target imaged at a 6-mm radius. The graph on the right shows the line profile of group 4, where element 3 is the finest resolvable feature. (d) Cross-sectional anterior segment image acquired with telecentric scanning optics. The anterior chamber angle skeletons are outlined in red. (e) Cross-sectional image obtained with the CircAS-OCT circular scanning protocol. The corresponding skeletons are outlined in yellow and compared against those from the telecentric configuration.

Article Snippet: Finally, the impact of the pericentric design on incidence angles was validated with OCT B-scans. and compare cross-sectional images of the anterior segment acquired with a telecentric lens (LSM05, Thorlabs Inc.) and our pericentric beam profiles, respectively.

Techniques: Imaging