Abstract: Methods for seeding live cells onto spatially defined regions of a substrate including multiple features (e.g., microwells or other microenvironments) utilize a stencil embodied in a hole-defining sacrificial film. A sacrificial film devoid of holes may be applied over features of a substrate, and a hole generating mechanism (e.g., hot needle or laser) aligned with features may be used to define holes in the film. Alternatively, holes may be predefined in a sacrificial film to form a stencil, and the stencil may be assembled to the substrate with the holes registered with features thereof. Thereafter, cells are seeded through holes in the film. Seeded cells are subject to incubation, further processing, and/or performance of one or more assays, and the hole-defining sacrificial film (stencil) may be removed.

Abstract: Various embodiments of a system and associated method for steering gene regulatory networks, among other network types, to a desired attractor state are disclosed herein. In one embodiment, the method involves identifying duplicative nodes and iteratively simulating effects of duplicated nodes on the network to steer the network to a target attractor state.

Abstract: An integrated technological platform enabling real-time quantitative multiparameter metabolic profiling, utilizing either or both of extra and intracellular optical sensors, individually or simultaneously. A scalable embedded micropocket array structure, generally fabricated on fused silica substrates, facilitates the integration of multiple, spatially separated extracellular sensors for multiparameter analysis in a container formed with the use of an activation mechanism forming part of a device configured to hold the container during the measurements. The creation of hermetically sealed microchambers is carried out with a pneumatically and/or mechanically and/or electromechanically driven device that is “floating” within the holding device and that is optionally equipped with a vacuum/suction mechanism to hold a component of the container at its surface.

Abstract: An integrated technological platform enabling real-time quantitative multiparameter metabolic profiling, utilizing either or both of extra and intracellular optical sensors, individually or simultaneously. A scalable embedded micropocket array structure, generally fabricated on fused silica substrates, facilitates the integration of multiple, spatially separated extracellular sensors for multiparameter analysis in a container formed with the use of an activation mechanism forming part of a device configured to hold the container during the measurements. The creation of hermetically sealed microchambers is carried out with a pneumatically and/or mechanically and/or electromechanically driven device that is “floating” within the holding device and that is optionally equipped with a vacuum/suction mechanism to hold a component of the container at its surface.

Abstract: Methods for seeding live cells onto spatially defined regions of a substrate including multiple features (e.g., microwells or other microenvironments) utilize a stencil embodied in a hole-defining sacrificial film. A sacrificial film devoid of holes may be applied over features of a substrate, and a hole generating mechanism (e.g., hot needle or laser) aligned with features may be used to define holes in the film. Alternatively, holes may be predefined in a sacrificial film to form a stencil, and the stencil may be assembled to the substrate with the holes registered with features thereof. Thereafter, cells are seeded through holes in the film. Seeded cells are subject to incubation, further processing, and/or performance of one or more assays, and the hole-defining sacrificial film (stencil) may be removed.

Abstract: This invention identifies and provides a recurrent translocation t(4;8) (p16.2; p23.1) associated with certain cancers and other abnormal cell growth disorders and diagnostic methods using the translocation by FISH hybridization or PCR based assays.

Abstract: This invention identifies and provides a recurrent translocation t(4;8) (p16.2; p23.1) associated with Adrenocortical Carcinoma, and diagnostic methods using the translocation by FISH hybridization or PCR based assays.

Abstract: The invention encompasses methods and kits used to detect biomarkers that may be used to predict disease outcome in adrenocortical carcinoma patients.

Abstract: This invention identifies and provides a recurrent translocation t(4;8) (p16.2; p23.1) associated with certain cancers and other abnormal cell growth disorders and diagnostic methods using the translocation by FISH hybridization or FOR based assays.

Abstract: This invention identifies and provides a recurrent translocation t(4;8) (p16.2; p23.1) associated with Adrenocortical Carcinoma, and diagnostic methods using the translocation by FISH hybridization or PCR based assays.

Abstract: The invention encompasses methods and kits used to detect biomarkers that may be used to predict disease outcome in adrenocortical carcinoma patients.