Journal: STAR Protocols

Article Title: Construction of a high-NFOM multiphoton microscope with large-angle resonant raster scanning

doi: 10.1016/j.xpro.2022.101330

Figure Lengend Snippet: Schematics of LAORS system with Zemax ray tracing Input beam: optical pulses from a pulsed laser source; resonant mirror: CRS 4 kHz (Cambridge Technology, USA); galvanometer mirror: 8320K (Cambridge Technology, USA); scan lens: LSM05-BB, effective focal length (EFL) of 110 mm (Thorlabs, USA); custom tube lens: a combination of 3 plano-convex lenses (Edmund Optics: 86-925, EFL of 500 mm), combined EFL of 166.7 mm; objective lens: Olympus XLUMPlanFl, 20×/0.95W. Note that multiple colors are utilized to better distinguish the rays under different scanning angles by the resonant and galvanometer scanning mirrors (see Figure 2 for more information on optical performance at different scanning angles).

Article Snippet: Figure 4 Block diagram of the proposed control and data acquisition system The system comprises of- a computer: with i7-9800X 8-core processor and Nvidia Quadro RTX 8000 for CUDA-acceleration; a multifunction I/O card: PCIe-6341 (National Instruments Corporation, USA); a digitizer: ATS9440 (Alazar Technologies Inc., Canada); a 70 MHz pulsed laser source: Fidelity 2 Yb-Fiber Laser (Coherent Inc., USA); a resonant scanning system: CRS 4 kHz (driver: 311-149887), a galvanometer scanning system: 8320K (driver: MicroMax 671), Cambridge Technology, USA; a 16-bit digital to analog converter (DAC): 6757 (Cambridge Technology, USA); a voltage buffer: 50LD (Thorlabs, USA); a power splitter: ZFRSC-42-S+ (Mini-Circuits, USA); a high voltage power supply: C9525 (Hamamatsu Photonics, Japan); a transimpedance amplifier: C6438-01 (Hamamatsu Photonics, Japan); a multi-axis stage controller: SHOT-304GS, and three linear stages: 2 × TSDM40-15X and 1 × SGSP80-20ZF (Sigma Koki, Japan); a software: C++ written custom application.

Techniques:

Journal: STAR Protocols

Article Title: Construction of a high-NFOM multiphoton microscope with large-angle resonant raster scanning

doi: 10.1016/j.xpro.2022.101330

Figure Lengend Snippet: Block diagram of the proposed control and data acquisition system The system comprises of- a computer: with i7-9800X 8-core processor and Nvidia Quadro RTX 8000 for CUDA-acceleration; a multifunction I/O card: PCIe-6341 (National Instruments Corporation, USA); a digitizer: ATS9440 (Alazar Technologies Inc., Canada); a 70 MHz pulsed laser source: Fidelity 2 Yb-Fiber Laser (Coherent Inc., USA); a resonant scanning system: CRS 4 kHz (driver: 311-149887), a galvanometer scanning system: 8320K (driver: MicroMax 671), Cambridge Technology, USA; a 16-bit digital to analog converter (DAC): 6757 (Cambridge Technology, USA); a voltage buffer: 50LD (Thorlabs, USA); a power splitter: ZFRSC-42-S+ (Mini-Circuits, USA); a high voltage power supply: C9525 (Hamamatsu Photonics, Japan); a transimpedance amplifier: C6438-01 (Hamamatsu Photonics, Japan); a multi-axis stage controller: SHOT-304GS, and three linear stages: 2 × TSDM40-15X and 1 × SGSP80-20ZF (Sigma Koki, Japan); a software: C++ written custom application.

Article Snippet: Figure 4 Block diagram of the proposed control and data acquisition system The system comprises of- a computer: with i7-9800X 8-core processor and Nvidia Quadro RTX 8000 for CUDA-acceleration; a multifunction I/O card: PCIe-6341 (National Instruments Corporation, USA); a digitizer: ATS9440 (Alazar Technologies Inc., Canada); a 70 MHz pulsed laser source: Fidelity 2 Yb-Fiber Laser (Coherent Inc., USA); a resonant scanning system: CRS 4 kHz (driver: 311-149887), a galvanometer scanning system: 8320K (driver: MicroMax 671), Cambridge Technology, USA; a 16-bit digital to analog converter (DAC): 6757 (Cambridge Technology, USA); a voltage buffer: 50LD (Thorlabs, USA); a power splitter: ZFRSC-42-S+ (Mini-Circuits, USA); a high voltage power supply: C9525 (Hamamatsu Photonics, Japan); a transimpedance amplifier: C6438-01 (Hamamatsu Photonics, Japan); a multi-axis stage controller: SHOT-304GS, and three linear stages: 2 × TSDM40-15X and 1 × SGSP80-20ZF (Sigma Koki, Japan); a software: C++ written custom application.

Techniques: Blocking Assay, Control, Software

Journal: STAR Protocols

Article Title: Construction of a high-NFOM multiphoton microscope with large-angle resonant raster scanning

doi: 10.1016/j.xpro.2022.101330

Figure Lengend Snippet:

Article Snippet: Figure 4 Block diagram of the proposed control and data acquisition system The system comprises of- a computer: with i7-9800X 8-core processor and Nvidia Quadro RTX 8000 for CUDA-acceleration; a multifunction I/O card: PCIe-6341 (National Instruments Corporation, USA); a digitizer: ATS9440 (Alazar Technologies Inc., Canada); a 70 MHz pulsed laser source: Fidelity 2 Yb-Fiber Laser (Coherent Inc., USA); a resonant scanning system: CRS 4 kHz (driver: 311-149887), a galvanometer scanning system: 8320K (driver: MicroMax 671), Cambridge Technology, USA; a 16-bit digital to analog converter (DAC): 6757 (Cambridge Technology, USA); a voltage buffer: 50LD (Thorlabs, USA); a power splitter: ZFRSC-42-S+ (Mini-Circuits, USA); a high voltage power supply: C9525 (Hamamatsu Photonics, Japan); a transimpedance amplifier: C6438-01 (Hamamatsu Photonics, Japan); a multi-axis stage controller: SHOT-304GS, and three linear stages: 2 × TSDM40-15X and 1 × SGSP80-20ZF (Sigma Koki, Japan); a software: C++ written custom application.

Techniques: Software

Journal: Regenerative Biomaterials

Article Title: Magnesium-based alloys with adapted interfaces for bone implants and tissue engineering

doi: 10.1093/rb/rbad095

Figure Lengend Snippet: In vivo studies performed to underline the new bone formation and fracture healing properties

Article Snippet: Uncoated Mg-Y-RE-Zr (WE43) , SLM (system components: single-mode ytterbium fiber laser IPG YLR-200; galvanometric scanner SCANLAB hurrySCAN 20, and f-theta focusing lens SILL S4LFT 3254/126) , Cylindrical porous specimen with a height of 11.2 mm, a diameter of 10 mm, a pore size of 600 μm, a strut size of 400 μm and a relative density of 67% designed as a diamond lattice , MG63 human osteosarcoma osteoblasts , – , [ ] .

Techniques: In Vivo, Animal Model, Modification, Membrane, Generated, Control, Comparison, Pore Size, Activity Assay, Expressing

Journal: Regenerative Biomaterials

Article Title: Magnesium-based alloys with adapted interfaces for bone implants and tissue engineering

doi: 10.1093/rb/rbad095

Figure Lengend Snippet: Mg-based implants constructive details and materials used in fracture healing

Article Snippet: Uncoated Mg-Y-RE-Zr (WE43) , SLM (system components: single-mode ytterbium fiber laser IPG YLR-200; galvanometric scanner SCANLAB hurrySCAN 20, and f-theta focusing lens SILL S4LFT 3254/126) , Cylindrical porous specimen with a height of 11.2 mm, a diameter of 10 mm, a pore size of 600 μm, a strut size of 400 μm and a relative density of 67% designed as a diamond lattice , MG63 human osteosarcoma osteoblasts , – , [ ] .

Techniques: Mouse Assay, Pore Size, Clinical Proteomics, Isolation, Control

Journal: Regenerative Biomaterials

Article Title: Magnesium-based alloys with adapted interfaces for bone implants and tissue engineering

doi: 10.1093/rb/rbad095

Figure Lengend Snippet: Examples of scaffold design and applications in bone tissue engineering

Article Snippet: Uncoated Mg-Y-RE-Zr (WE43) , SLM (system components: single-mode ytterbium fiber laser IPG YLR-200; galvanometric scanner SCANLAB hurrySCAN 20, and f-theta focusing lens SILL S4LFT 3254/126) , Cylindrical porous specimen with a height of 11.2 mm, a diameter of 10 mm, a pore size of 600 μm, a strut size of 400 μm and a relative density of 67% designed as a diamond lattice , MG63 human osteosarcoma osteoblasts , – , [ ] .

Techniques: Software, Pore Size, Virus, Modification, Produced, Muscles

Journal: Regenerative Biomaterials

Article Title: Magnesium-based alloys with adapted interfaces for bone implants and tissue engineering

doi: 10.1093/rb/rbad095

Figure Lengend Snippet: Examples of Mg-based alloys with different microstructural modifications or coating technologies emphasize the surface importance of controlling the degradation process and mechanical properties of the alloy

Article Snippet: Uncoated Mg-Y-RE-Zr (WE43) , SLM (system components: single-mode ytterbium fiber laser IPG YLR-200; galvanometric scanner SCANLAB hurrySCAN 20, and f-theta focusing lens SILL S4LFT 3254/126) , Cylindrical porous specimen with a height of 11.2 mm, a diameter of 10 mm, a pore size of 600 μm, a strut size of 400 μm and a relative density of 67% designed as a diamond lattice , MG63 human osteosarcoma osteoblasts , – , [ ] .

Techniques: Modification, Control, Comparison, In Vitro, Evaporation, Adhesive, Insulation, Derivative Assay, Pore Size, Produced

Journal: Regenerative Biomaterials

Article Title: Magnesium-based alloys with adapted interfaces for bone implants and tissue engineering

doi: 10.1093/rb/rbad095

Figure Lengend Snippet: Main chemical conversion coatings with selected literature examples

Article Snippet: Uncoated Mg-Y-RE-Zr (WE43) , SLM (system components: single-mode ytterbium fiber laser IPG YLR-200; galvanometric scanner SCANLAB hurrySCAN 20, and f-theta focusing lens SILL S4LFT 3254/126) , Cylindrical porous specimen with a height of 11.2 mm, a diameter of 10 mm, a pore size of 600 μm, a strut size of 400 μm and a relative density of 67% designed as a diamond lattice , MG63 human osteosarcoma osteoblasts , – , [ ] .

Techniques: Concentration Assay