In Vivo Multispectral FX PRO Small Animal Optical Imaging System from Bruker BioSpin

Description

One of the most powerful and versatile small animal optical imaging system for preclinical research. With multispectral fluorescence, luminescence, radioisotopic and high resolution X-ray imaging in one system, the MS FX PRO brings the broadest range of imaging applications - from protein blots to complex, longitudinal studies of disease states in vivo - to your lab.

Whether you need to develop fluorescent probes; track NIR fluorescent nanoparticles, peptides or proteins; quantify changes in localization and tumor burden; screen radioisotopic probes in multiple animals; study changes in bone density or perform ex vivo validation, the MS FX PRO drives your research to new levels of excellence.
  • Detailed Specifications
  • ItemIn Vivo Multispectral FX PRO Small Animal Optical Imaging System
  • CompanyBruker BioSpin
  • PriceInquire
  • Catalog NumberIn Vivo Multispectral FX PRO
  • Dimensions(WxDxH) 61 x 104 x 97 cm (24 x 41 x 38 inches)
  • QuantityEach
  • ApplicationsOncology / Neuroscience / Cardiology / Bone disease / Metabolic disease / Autoimmune disorders / Infectious disease / Inflammation
  • LightingFluorescence- multiwavelength epi-illumination, 410 - 760 nm
    White Light- White light epi-illumination and white light transillumination
  • CameraInterline CCD
  • Pixel SizesZoom: 10 µm/pixel (maximum) / Fixed lens: 67 µm/pixel
  • Pixels2048 x 2048 pixels
  • Field of View (FOV)Zoom: 2 x 2 cm to 20 x 20 cm or Fixed lens: 13.8 x 13.8 cm
Bruker BioSpin
Bruker BioSpin
4 Research Dr.
Woodbridge, Connecticut 6525
United States
Phone: (203) 786-5657
(203) 786-5656
  • Labeling and In vivo Localization of Ovarian Cancer Cells using a Near IR Probe and a Multi-Modality Imaging System

    Ovarian cancer is the fourth leading cause of cancer related deaths and the leading cause of gynecological cancer deaths. Recurrence and chemoresistance are the major hurdles in the management of patients with ovarian cancer. Ovarian cancer stem cells (OvCSC) have been postulated as the potential source of recurrence and chemoresistance. Persistence of chemoresistant OvCSC after debulking or chemotherapy may “heal” the cancer and lead to recurrence. Therefore identification of OvCSC and their complete removal is a pivotal stage for the treatment of ovarian cancer. Recent advances in reagent chemistry have facilitated the development of near Infra red emitting probes ideal for optical localization of tumor cells in vivo. The objective of the following study was to develop a new in vivo imaging model that allows for the detection and monitoring of OvCSC. Read More
  • Use of Antibodies in Small Animal Molecular Imaging

    In vivo imaging, whether at the cellular or whole-animal level, promised to revolutionize preclinical and clinical biological and bioengineering research. By conducting longitudinal studies, the natural course of a disease or the experimental model can be monitored. Imaging modalities (such as X-ray, CT, MRI, optical, and ultrasound imaging) yield valuable information about changes in the anatomy and physiology of the specimen. In order to gain molecular information, animals were sacrificed, dissected, and studied via techniques such as immunoblotting (Western), immunofluorescence, immunohistochemistry, quantitative RT-PCR, microarray, HT sequencing, or FACS analysis. However, these techniques provide only information at the time of measurement, and because subjects of these techniques were often euthanized, longitudinal studies could not be completed. In addition, where and when to sample must be known beforehand, or a very large number of animals must be uti Read More
  • Spectral Unmixing of Indocyanine Green in the Vascular Network of a Sycamore Leaf

    The vascular network of a leaf is essential for providing transport and mechanical support. Leaf venation patterns progress throughout growth, during which a hierarchy of discrete vein-size classes being to develop. Vein classes are designated by the width of the veins at their point of branching, with higher-order veins exhibiting narrower widths than lower-order veins. Leaf vasculature varies between species; thus, understanding how these venation patterns develop could have important implications for understanding both plant physiology and evolution. Traditional strategies for investigating leaf vein patterning include genetic modification, pharmacological methods, and theoretical modeling. In this study, we tested the ability of a near-infrared dye, indocyanine green, to label the vasculature network of a sycamore leaf to allow for facile identification of the leaf architecture. Read More
  • In-Vivo Optical Imaging of Prostate Tumors In Lobund-Wistar Rats Using a Near-Infrared Fluorescence Probe for Anionic Membranes

    Identifying biomarkers that are specific for certain pathological conditions is critical for developing disease- selective imaging probes. Anionic charges are exposed on the surface of numerous particles of biomedical importance including viruses, bacteria, and apoptotic cells. Synthetic zinc(II)-dipicolylamine (Zn-DPA) coordination complexes have a selective affinity for anionic charges on the surfaces of bacteria and apoptotic cell membranes over the near-neutral charges of healthy cell membranes. Conjugation of the Zn-DPA affinity ligand to a number of fluorophores permitted detection of bacteria and cell death in vitro. Recently, a near-infrared (NIR) Zn-DPA probe demonstrated the ability to target and image bacterial infections in vivo. In this study, the same NIR Zn-DPA probe was tested to evaluate its potential to detect prostate cancer in living animals. Read More
  • X-Ray Contrast Agents for Anatomical Co-Registration of Fluorescence Signals

    An X-ray image provides a convenient anatomical map of musculoskeletal features that is useful for co-registration of optical or radioisotopic signals. X-ray is an orthogonal imaging modality that will not pollute optical signals emanating from the subject. Innate X-ray contrast in an animal may be used to identify the bones, heart, lungs, and, in some cases, tumors and lymph nodes. The X-ray can also spatially define the location of the brain and liver. Read More
  • Early In Vivo Detection of Tumors Using Carestream Multimodal Imaging Systems

    Molecular imaging, or the non-invasive spatial and temporal detection of signatures within the intact living organism that relate to cellular and intracellular events, has become essential for assessing targeted therapeutics as well as individualized progression of disease. For the pre-clinical research field, imaging techniques that measure both functional as well as anatomical changes in the whole body are vital for treatment follow up and co-registration of molecular signals. Read More