Hassle-free Microscopy Manager
Hassle-free Microscopy Manager
For all Open-Architecture Advanced Microscopy Developers
For all Open-Architecture Advanced Microscopy Developers
What Once Took Many Cards and Experts, Now HMM Does All
What Once Took Many Cards and Experts, Now HMM Does All
TLI-HMM Integrates 4Chs 1GS/s High-speed Data Acquisition, In-Line processing,
Sync Signal, and Control Software in One Platform
TLI-HMM Integrates 4Chs 1GS/s High-speed Data Acquisition, In-Line processing, Sync Signal, and Control Software in One Platform
HMM for Laser Scanning Microscopies
HMM for Laser Scanning Microscopies
Remarkable System Simplification with TLI HMM-SC Design for Research and Prototyping
Remarkable System Simplification with TLI HMM-SC Design for Research and Prototyping
Build Video Cube Rate Multiphoton/Confocal Microscope with TLI-HMM-SC
Build Video Cube Rate Multiphoton/Confocal Microscope with TLI-HMM-SC
Build Circular Dichroism Microscope with TLI-HMM-SC
Build Circular Dichroism Microscope with TLI-HMM-SC
Build FLIM Microscope with TLI-HMM-SC
Build FLIM Microscope with
TLI-HMM-SC
Build FLIM Multimodality Microscope with TLI-HMM-SC
Build FLIM Multimodality Microscope with TLI-HMM-SC
Build FLIM Multimodality Microscope with TLI-HMM-SC
Build FLIM Multimodality Microscope with TLI-HMM-SC
Multiphoton-Microscope with TLI-HMM-SC
High Sampling Rate Brings Better Image Quality
Multiphoton-Microscope with TLI-HMM-SC
High Sampling Rate Brings Better Image Quality
Video Rate Multiphoton-Microscope with TLI-HMM-SC
High-Speed, High Resolution, no Compromise
Video Rate Multiphoton-Microscope with TLI-HMM-SC
High-Speed, High Resolution,
no Compromise
Customized Algorithm Workflow with TLI-HMM-SC
Customized Algorithm Workflow with TLI-HMM-SC
Integrate TLI-HMM with GPU
Integrate TLI-HMM with GPU
Customized Algorithm Example : Precise Peak Detection
Customized Algorithm Example : Precise Peak Detection
Customized Algorithm Example : Time Resolved SHG/THG and Fluorescence Image
Customized Algorithm Example : Time Resolved SHG/THG and Fluorescence Image
Unique Advantages of the TLI-HMM-SC
Unique Advantages of the
TLI-HMM-SC
- Plug-and-Play Integration – A single PCIe card consolidates high-speed signal acquisition, scanner control, and real-time image reconstruction, eliminating the need for multiple hardware modules and reducing integration time from months to minutes.
- Ultra-compact, Engineering-oriented Form Factor – The card-level design drastically reduces system footprint, making it especially suitable as a prototyping platform for next-generation microscopy development, where flexibility and rapid iteration are critical.
- Low Host Computer Requirements – With FPGA-based in-line processing, most heavy computation is handled on-board, allowing operation with standard PCs instead of costly high-performance workstations.
- True Real-time Performance – High-throughput (1 GS/s, 16-bit) acquisition combined with low-latency FPGA pipelines enables immediate feedback, critical for live imaging, fast scanning, and time-sensitive experiments.
- Multi-technology Compatibility – The architecture is inherently modular, supporting confocal, multiphoton, STED, TIRF, SNOM, FLIM, Chiral Dichroism, and photoacoustic microscopy on the same unified platform.
- Scalability and Future-proof Design – A reconfigurable FPGA core and microSD-based firmware updates allow continuous upgrades, ensuring long-term adaptability without hardware replacement.
- Researcher-centric Workflow – By removing the burden of cross-device integration and synchronization, scientists can focus on optical innovation and biological discovery, not engineering bottlenecks.
- Plug-and-Play Integration – A single PCIe card consolidates high-speed signal acquisition, scanner control, and real-time image reconstruction, eliminating the need for multiple hardware modules and reducing integration time from months to minutes.
- Ultra-compact, Engineering-oriented Form Factor – The card-level design drastically reduces system footprint, making it especially suitable as a prototyping platform for next-generation microscopy development, where flexibility and rapid iteration are critical.
- Low Host Computer Requirements – With FPGA-based in-line processing, most heavy computation is handled on-board, allowing operation with standard PCs instead of costly high-performance workstations.
- True Real-time Performance – High-throughput (1 GS/s, 16-bit) acquisition combined with low-latency FPGA pipelines enables immediate feedback, critical for live imaging, fast scanning, and time-sensitive experiments.
- Multi-technology Compatibility – The architecture is inherently modular, supporting confocal, multiphoton, STED, TIRF, SNOM, FLIM, Chiral Dichroism, and photoacoustic microscopy on the same unified platform.
- Scalability and Future-proof Design – A reconfigurable FPGA core and microSD-based firmware updates allow continuous upgrades, ensuring long-term adaptability without hardware replacement.
- Researcher-centric Workflow – By removing the burden of cross-device integration and synchronization, scientists can focus on optical innovation and biological discovery, not engineering bottlenecks.