Abstract: A device for the real-time in vivo detection of a number of conditions within the patient, including CTCs, circulating nucleic acids, other circulating elements, blood pressure, heart rate data, pulse oxygen concentration, serum electrolyte concentrations, blood glucose, and pH, the device having an implanted subcutaneous access port in the chest region and a catheter having a terminus in the superior vena cava, the device having microelectronic circuitry with a rechargeable energy source encased in a titanium shell, an NIR laser sealed in the titanium-enclosed circuitry platform, and NIR-specific optical fibers (nir-FO) for transmitting the NIR photons to the end of the catheter tube in the superior vena cava. Scattered NIR photons are collected through the end of a second nir-FO bundle and transmitted back to the detector and microprocessor on the portal platform.

Abstract: A device for the real-time in vivo detection of a number of conditions within the patient, including CTCs, circulating nucleic acids, other circulating elements, blood pressure, heart rate data, pulse oxygen concentration, serum electrolyte concentrations, blood glucose, and pH, the device having an implanted subcutaneous access port in the chest region and a catheter having a terminus in the superior vena cava, the device having microelectronic circuitry with a rechargeable energy source encased in a titanium shell, an NIR laser sealed in the titanium-enclosed circuitry platform, and NIR-specific optical fibers (nir-FO) for transmitting the NIR photons to the end of the catheter tube in the superior vena cava. Scattered NIR photons are collected through the end of a second nir-FO bundle and transmitted back to the detector and microprocessor on the portal platform.

Abstract: This invention relates to methods and apparati for performing multiple simultaneous manipulations of biomolecules in a two-dimensional array, such as a gel, membrane, tissue biopsy, etc. Such manipulations particularly include assays and nucleic acid amplification protocols.

Abstract: The disclosure provides methods, systems, and devices for purifying, transferring or manipulating nucleic acids while maintaining the 2D spatial relationship of the nucleic acids as they were present in the original sample having 2D spatial information.

Abstract: This invention relates to methods and apparati for performing multiple simultaneous manipulations of biomolecules in a two-dimensional array, such as a gel, membrane, tissue biopsy, etc. Such manipulations particularly include assays and nucleic acid amplification protocols.

Abstract: A device for performing target activated transfer that includes a mounting surface for mounting a tissue sample; and a light source positioned to substantially uniformly irradiate both stained and unstained regions of the tissue sample with light energy that activates the reagent to selectively adhere the stained regions to a transfer surface. Also described is an automated system for transferring tissue from a tissue sample to a transfer substrate. The system includes means for holding a tissue section that includes targets specifically stained with an absorptive stain thereby resulting in a stained tissue surface, and a flexible transfer film that includes a lower thermoplastic layer in sufficient thermal contact with the stained tissue surface; an irradiating assembly configured to provide a predetermined uniform light dose to the entire tissue section; and means for applying a constant pressure to the transfer film during irradiation.

Abstract: This invention relates to methods and apparati for performing multiple simultaneous manipulations of biomolecules in a two-dimensional array, such as a gel, membrane, tissue biopsy, etc. Such manipulations particularly include assays and nucleic acid amplification protocols.

Abstract: A method of removing a target from a biological sample which involves placing a transfer surface in contact with the biological sample, and then focally altering the transfer surface to allow selective separation of the target from the biological sample. In disclosed embodiments, the target is a cell or cellular component of a tissue section and the transfer surface is a film that can be focally altered to adhere the target to the transfer surface. Subsequent separation of the film from the tissue section selectively removes the adhered target from the tissue section. The transfer surface is activated from within the target to adhere the target to the transfer surface, for example by heating the target to adhere it to a thermoplastic transfer surface. Such in situ activation can be achieved by exposing the biological sample to an immunoreagent that specifically binds to the target (or a component of the target).