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See biology as it happens.

Advanced real-time optical imaging and digital autoradiography solutions for preclinical research.

bioluminescence & fluorescence

Our real-time optical imaging systems combine bioluminescence, fluorescence and X-ray imaging to visualize complex biological processes with exceptional sensitivity.

Thanks to a fully modular approach, each system can be configured to meet specific requirements for localization, resolution and visualization, with advanced capabilities including 3D imaging, Macrolens, In Actio and X-ray.

As a pioneer in imaging non-anesthetized animals, Biospace Lab also enables researchers to explore biological processes in freely moving animals under more physiological conditions.

With our systems, you will be able to:

01
DETECT THE TINIEST BIOLOGICAL SIGNALS
Detect ultra-weak signals with outstanding sensitivity, down to 37 photons/s/sr/cm².
02
QUANTIFY WITH HIGH ACCURACY
Benefit from quantitative photon-counting technology across a wide dynamic range.
03
CAPTURE BIOLOGICAL DYNAMICS IN REAL TIME
Monitor fast and transient biological processes with temporal resolution below 50 ms.
04
CONFIGURE YOUR SYSTEM AROUND YOUR RESEARCH
Expand your imaging capabilities with 3D, X-ray, Macrolens, 4View and advanced application modules.
05
IMAGE FREELY MOVING ANIMALS
Explore biological processes under more physiological conditions while reducing the impact of anesthesia.

NIR II / SWIR Imaging

Our dedicated NIR-II/SWIR imaging technology combines reduced tissue autofluorescence, lower light scattering and favorable tissue penetration to deliver high-sensitivity, high-resolution imaging of deeper biological structures.

With our systems, you will be able to:

01
IMAGE DEEPER WITH REDUCED BACKGROUND
Benefit from reduced tissue autofluorescence and lower light scattering in the NIR-II / SWIR spectral range.
02
VISUALIZE DEEP BIOLOGICAL STRUCTURES
Explore vasculature, organs and deep tissues with enhanced contrast and spatial definition.
03
CAPTURE FAST BIOLOGICAL PROCESSES
Monitor rapid biological dynamics with high temporal resolution and sensitive SWIR detection.
04
EXPAND YOUR RESEARCH APPLICATIONS
Explore advanced applications ranging from vascular imaging to nanoparticle tracking and nanothermometry.

Autoradiography Imaging

Our autoradiography systems enable you to verify and quantify the biodistribution of your injected radioisotopes with micrometric precision and high sensitivity.

Our digital autoradiography technology builds on the gas detector technology pioneered by Biospace Lab founder Georges Charpak, winner of the 1992 Nobel Prize in Physics.

Depending on your research needs, our systems are optimized for either high-throughput or high-resolution autoradiography.

With our systems, you will be able to:

01
DETECT ULTRA-LOW RADIOISOTOPE SIGNALS
Achieve highly sensitive detection of low-energy beta emitters, including tritium.
02
ACQUIRE AUTORADIOGRAPHY IMAGES IN REAL TIME
Visualize signal accumulation during acquisition and avoid long blind exposure times.
03
QUANTIFY WITH HIGH ACCURACY
Measure radioisotope distribution directly and quantitatively across your samples.
04
CHOOSE SENSITIVITY OR SPATIAL RESOLUTION
Select the configuration best suited to your research, from high-throughput imaging to spatial resolution down to 10 µm.
05
REDUCE RADIOACTIVE MATERIAL AND WASTE
Optimize experimental conditions while reducing the amount of radiolabeled compounds and radioactive waste.

bioluminescence & fluorescence

Our real-time optical imaging systems enable you to see different types of complex biological processes by combining bioluminescence, fluorescence, X-ray imaging technologies in a single instrument.

Thanks to our modular approach, your specific requirements for optimized localization, resolution and visualization can be easily accommodated by adding 3D, macrolens, in actio, Xray options.

As a pioneer in imaging of non-anesthetized animals, Biospace Lab provides a unique solution to perform your experimentations on free-moving animals in physiological conditions.

With our systems, you will be able to:

01
DETECT THE TINIEST BIOLOGICAL SIGNALS
Detect ultra-weak signals with outstanding sensitivity, down to 37 photons/s/sr/cm².
02
QUANTIFY WITH HIGH ACCURACY
Benefit from quantitative photon-counting technology across a wide dynamic range.
03
CAPTURE BIOLOGICAL DYNAMICS IN REAL TIME
Monitor fast and transient biological processes with temporal resolution below 50 ms.
04
CONFIGURE YOUR SYSTEM AROUND YOUR RESEARCH
Expand your imaging capabilities with 3D, X-ray, Macrolens, 4View and advanced application modules.
05
IMAGE FREELY MOVING ANIMALS
Explore biological processes under more physiological conditions while reducing the impact of anesthesia.

NIR II / SWIR IMAGING

Our dedicated NIR-II/SWIR imaging technology combines reduced tissue autofluorescence, lower light scattering and favorable tissue penetration to deliver high-sensitivity, high-resolution imaging of deeper biological structures.

With our SWIR system, you will be able to:

01
IMAGE DEEPER WITH REDUCED BACKGROUND
Benefit from reduced tissue autofluorescence and lower light scattering in the NIR-II / SWIR spectral range.
02
VISUALIZE DEEP BIOLOGICAL STRUCTURES
Explore vasculature, organs and deep tissues with enhanced contrast and spatial definition.
03
CAPTURE FAST BIOLOGICAL PROCESSES
Monitor rapid biological dynamics with high temporal resolution and sensitive SWIR detection.
04
EXPAND YOUR RESEARCH APPLICATIONS
Explore advanced applications ranging from vascular imaging to nanoparticle tracking and nanothermometry.

Autoradiography imaging

Technology rooted in Nobel Prize-winning science.

Our autoradiography systems enable you to verify and quantify the biodistribution of your injected radioisotopes with micrometric precision and high sensitivity.

Our digital autoradiography technology builds on the gas detector technology pioneered by Biospace Lab founder Georges Charpak, winner of the 1992 Nobel Prize in Physics.

Depending on your research needs, we offer systems optimized for high throughput and high resolution.

With our autoradiography systems, you will be able to:

01
DETECT ULTRA-LOW RADIOISOTOPE SIGNALS
Achieve highly sensitive detection of low-energy beta emitters, including tritium.
02
ACQUIRE AUTORADIOGRAPHY IMAGES IN REAL TIME
Visualize signal accumulation during acquisition and avoid long blind exposure times.
03
QUANTIFY WITH HIGH ACCURACY
Measure radioisotope distribution directly and quantitatively across your samples.
04
CHOOSE SENSITIVITY OR SPATIAL RESOLUTION
Select the configuration best suited to your research, from high-throughput imaging to spatial resolution down to 10 µm.
05
REDUCE RADIOACTIVE MATERIAL AND WASTE
Optimize experimental conditions while reducing the amount of radiolabeled compounds and radioactive waste.

Since 1989, Biospace Lab has been working in collaboration with prestigious academic centers and pharmaceutical laboratories to develop a unique selection of innovative preclinical imaging systems. 

Logo H2020 e1615249814770

NANOTBTECH, EU H2020 PROJECT

Novel and noninvasive way of measuring tissue temperature for oncology applications (micro-metastases) thanks to our unique SWIR imaging solution.

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IN ACTIO, PARIS REGION PROJECT

Detect and quantify multiple bioluminescence signals on freely moving mice simultaneously. Monitor neuronal biosensor and understand the social networking impact on Alzheimer pathology.

WHY BIOSPACE LAB?

Built around the needs of preclinical researchers.

REAL-TIME BY DESIGN
Capture fast biological dynamics with temporal resolution below 50 ms.
SINGLE-PHOTON SENSITIVITY
Detect ultra-weak signals with quantitative photon-counting technology.
MODULAR & UPGRADEABLE
Configure your system today and expand its capabilities tomorrow.
MADE FOR RESEARCHERS
Advanced imaging capabilities combined with direct scientific and technical support for real experimental needs.

WHAT RESEARCHERS SAY

« CMMI, Center for Microscopy and Molecular Imaging, is a preclinical imaging platform equipped with many advanced equipment, such as PET, SPECT, CT, MRI, MSOT scanners for in vivo imaging. For optical imaging, the CMMI chose Biospace Lab at the end of the 2000s with the acquisition of the PhotonIMAGER RT. Biospace Lab has met our expectations by providing a system capable of performing BLI in real time, with very high sensitivity. Biospace Lab has also always provided quality technical and scientific support. Therefore, the CMMI has chosen to renew its confidence in Biospace Lab in 2018 with the acquisition of a new PhotonIMAGER Optima, which is even more efficient and modular. This device increased our imaging throughput by easily imaging 10 mice at a time, and provides high quality visible-NIR FLI. Adding new modules (MACROLENS, 4Vview 3D and X-ray), enabled us to extend our imaging offer. In conclusion, Biospace Lab has been, and still is, an important partner in the development of our expertise in optical imaging. “

Dr. Lionel Larbanoix, laboratory manager of in vivo NiMI (Non-ionizing Molecular Imaging; laboratory head: Prof. Sophie Laurent), CMMI, Walloonia, Belgium.
TEMOIGNAGE CLIENT

“The real-time acquisition of dynamic fluorescent signal curves from Biospace in vivo imaging system, contributes to reconstruction visualized 3D tumor model, and provide intuitive and quantitative research methods, very helpful for research daily work”. The Institute of Automation, Chinese Academy of Sciences (CASIA), is one of the earliest national automation institutes in China, which was established in 1956.

Dr. Kun Wang, Associate Professor, CAS Key Laboratory of Molecular Imaging Institution of Automation Chinese Academy of Sciences, China
Kun Wang

“Biospace Optima performs well in animal imaging, especially the high sensitivity and good signals”. The purpose of our institute is to train professional teachers and advanced researchers on Medical Physics, Biomedical Imaging, Radiobiology, Nuclear Medicine and Radiological Medical fields in clinical. Our department in addition to training qualified professionals is also specialized in research in the field of biomedical imaging and radiation sciences.

Dr Yi-Jang Lee Professor, Department of Biomedical Imaging and Radiological Sciences National Yang Ming University, Taiwan
Taiwan

“The PhotonIMAGER Optima has been a real asset in our experimental workflow by giving us the tools to detect and quantify both bioluminescence and fluorescence in our cancer mouse models. The PhotonIMAGER Optima has aided us in our research to monitor tumours in real-time over prolonged periods with minimal impact on the well-being of the mice. This device allows us to image up to six mice simultaneously, providing high resolution images along with an intuitive and powerful software package for downstream data analysis. We also recently purchased the ‘in actio’ module to increase our capabilities and provide imaging on non-anesthetised animals. This has been instrumental in maximising the outputs from our experiments and in aiding us to meet the principles of the 3Rs in animal research (Replacement, Reduction and Refinement). The customer service and training offered by Biospace Lab has been exemplary and their technical services are integral to the pursuit of our research goals”

Dr Patrick Hardinge, Dr Lee Parry, Dr Katie Stott and Dr Adam Higgins, European Cancer Stem Cell Research Institute, School of Biosciences, Cardiff University, UK
cardiff
SINCE 1989
Preclinical imaging expertise
500+ SYSTEMS
Installed worldwide
MADE IN FRANCE
Designed & assembled in France
WORLDWIDE SUPPORT
Scientific & technical expertise

FIND THE RIGHT IMAGING SOLUTION FOR YOUR RESEARCH

Our team is available to discuss your applications and help you identify the most suitable imaging configuration.