Abstract: Embodiments provide apparatus, systems and methods for automated filling of syringes. One embodiment of an apparatus for filing of a plurality of syringes (POS) comprises a housing, a push-pull mechanism (PPM) disposed within the housing, a syringe locking mechanism (SLM) coupled to the housing, a manifold engagement fixture (MEF) mounted on the housing, a processor and a touch screen (TS) positioned on the housing. The PPM engages the POS and independently advances or retracts a plunger of each syringe. The SLM engages and constrains the POS to substantially prevent syringe motion during filling. The MEF includes a cam mechanism having a lever means (e.g., a lever arm) and is configured to detachably engage halves of a multi-port fluid manifold and bring them together to form a fluidic seal by movement of the lever arm. The TS allows for haptic input and display of information associated with operation of the apparatus.

Abstract: Embodiments provide systems and methods for transfecting cells to produce a viral vector or other selected virus. One embodiment of a method for transfecting cells to produce a selected virus includes providing a first solution comprising plasmids or other extrachromosomal DNA encoding the virus and a second solution comprising a transfection agent; the two solutions kept separate. The two solutions are then mixed to produce a transfection solution (TS) to be delivered to a cell culture medium (CCM) for transfection of cells in the medium with the plasmid DNA encoding the virus wherein the mixing is initiated responsive to a trigger event. The TS is then incubated to form transfection complexes. Subsequently, the TS is delivered to the CCM to transfect the cells in the medium wherein a viral production parameter resulting from transfection is optimized by initiating mixing of the solutions responsive to the trigger event.

Abstract: Methods and systems for tracking use of sensor probes in a biomanufacturing environment. A typical sensor probe includes an elongated cylindrical body that may include a hollow inner cavity exposed at the bottom end of the elongated cylindrical body along with a probe ID. A method may include affixing this trackable ID to one or more sensor probes such that the trackable ID may be associated with a dedicated probe sensor data set stored in a cloud data store. Further, initial meta data may be assigned to the probe's the respective could data set that includes additional initial details about the associated sensor probe, such as make and manufacture of the probe, operating parameters of the probe, unique ID number, and/or expected lifespan statistics (number of uses expected, number of calibrations expected, number or autoclaves expected, and the like).

Abstract: Fluidic multiwell bioreactors are provided as a microphysiological platform for in vitro investigation of multi-organ crosstalks for an extended period of time of at least weeks and months. The disclosed platform is featured with one or more improvements over existing bioreactors, including on-board pumping for pneumatically driven fluid flow, a redesigned spillway for self-leveling from source to sink, a non-contact built-in fluid level sensing device, precise control on fluid flow profile and partitioning, and facile reconfigurations such as daisy chaining and multilayer stacking. The platform supports the culture of multiple organs in a microphysiological, interacted systems, suitable for a wide range of biomedical applications including systemic toxicity studies and physiology-based pharmacokinetic and pharmacodynamic predictions. A process to fabricate the disclosed bioreactors is also provided.

Abstract: Fluidic multiwell bioreactors are provided as a microphysiological platform for in vitro investigation of multi-organ crosstalks for an extended period of time of at least weeks and months. The disclosed platform is featured with one or more improvements over existing bioreactors, including on-board pumping for pneumatically driven fluid flow, a redesigned spillway for self-leveling from source to sink, a non-contact built-in fluid level sensing device, precise control on fluid flow profile and partitioning, and facile reconfigurations such as daisy chaining and multilayer stacking. The platform supports the culture of multiple organs in a microphysiological, interacted systems, suitable for a wide range of biomedical applications including systemic toxicity studies and physiology-based pharmacokinetic and pharmacodynamic predictions. A process to fabricate the disclosed bioreactors is also provided.

Abstract: Fluidic multiwell bioreactors are provided as a microphysiological platform for in vitro investigation of multi-organ crosstalks for an extended period of time of at least weeks and months. The disclosed platform is featured with one or more improvements over existing bioreactors, including on-board pumping for pneumatically driven fluid flow, a redesigned spillway for self-leveling from source to sink, a non-contact built-in fluid level sensing device, precise control on fluid flow profile and partitioning, and facile reconfigurations such as daisy chaining and multilayer stacking. The platform supports the culture of multiple organs in a microphysiological, interacted systems, suitable for a wide range of biomedical applications including systemic toxicity studies and physiology-based pharmacokinetic and pharmacodynamic predictions. A process to fabricate the disclosed bioreactors is also provided.

Abstract: Fluidic multiwell bioreactors are provided as a microphysiological platform for in vitro investigation of multi-organ crosstalks with microbiome for an extended period of time of at least weeks and months. The platform has one or more improvements over existing bioreactors, including on-board pumping for pneumatically driven fluid flow, a redesigned spillway for self-leveling from source to sink, a non-contact built-in fluid level sensing device, precise control on fluid flow profile and partitioning, and facile reconfigurations such as daisy chaining and multilayer stacking. The platform supports the culture of multiple organs together with microbiome in a microphysiological, interacted systems, suitable for a wide range of biomedical applications including systemic toxicity studies and physiology-based pharmacokinetic and pharmacodynamic predictions. A process to fabricate the bioreactors is also provided.

Abstract: Fluidic multiwell bioreactors are provided as a microphysiological platform for in vitro investigation of multi-organ crosstalks for an extended period of time of at least weeks and months. The disclosed platform is featured with one or more improvements over existing bioreactors, including on-board pumping for pneumatically driven fluid flow, a redesigned spillway for self-leveling from source to sink, a non-contact built-in fluid level sensing device, precise control on fluid flow profile and partitioning, and facile reconfigurations such as daisy chaining and multilayer stacking. The platform supports the culture of multiple organs in a microphysiological, interacted systems, suitable for a wide range of biomedical applications including systemic toxicity studies and physiology-based pharmacokinetic and pharmacodynamic predictions. A process to fabricate the disclosed bioreactors is also provided.