Alpenglow Biosciences is transforming histology with a cutting-edge, end-to-end solution that surpasses traditional 2D methods. By integrating seamless sample preparation, patented open-top light-sheet microscopy, cloud-based processing, and AI-driven analysis, the platform enables high-resolution 3D visualization of tissue architecture and disease progression. Powerful AI tools extract critical patterns and quantitative insights, delivering actionable results for drug development, clinical trials, and diagnostics. Designed for efficiency and scalability, Alpenglow’s platform streamlines workflows, enhances precision, and accelerates research breakthroughs.

Alpenglow Biosciences transforms immunology research with advanced 3D imaging, surpassing the limitations of 2D histology. By visualizing entire tissue sections in three dimensions, our technology reveals immune cell interactions and spatial relationships critical for understanding immune responses in disease. This high-resolution insight enhances studies on cell signaling, tumor immunology, and treatment effects, empowering researchers with unparalleled clarity and precision.

Alpenglow Biosciences is revolutionizing dermatology with advanced 3D imaging, providing an undisturbed view of skin biopsies. This technology enhances the analysis of tumor margins, cellular structures, and dermal architecture without tissue slicing, offering greater accuracy for diagnostics and therapeutic studies.

The 3Di Hybrid Open Top Light Sheet Microscope (3Di HOTLS) from Alpenglow Biosciences delivers high-quality 3D imaging for diverse biological samples. Featuring “Scout” for rapid whole-tissue views and “Zoom” for high-resolution details, it streamlines workflows and enhances research precision.

Alpenglow Biosciences redefines pathology with 3D imaging, enabling pathologists to visualize tissue samples without destructive slicing. This approach enhances diagnostic accuracy by preserving spatial relationships and revealing critical cellular structures.

Alpenglow Biosciences brings 3D imaging to research, capturing full tissue volumes with unmatched precision. By preserving spatial relationships, this technology enables scalable, quantitative, and reproducible discoveries in disease progression and tissue analysis.