Abstract: The present disclosure provides cartridges, pump assemblies, and other systems, methods, and apparatuses for manufacture of a cell therapy. A rigid cartridge includes rigid walls defining a rigid housing. An interior surface of a first rigid wall includes a first mating mechanism to engage a second mating mechanism of a docking device to removably coupled with the rigid cartridge. A rigid wall includes a planar upper surface including an aperture. The aperture is configured to receive and fixedly engage a corresponding connector.

Abstract: The present disclosure provides self-centering assemblies, cartridges, pump assemblies, grippers, and other systems, methods, and apparatuses for manufacture of a cell therapy. A gripper includes a gripping unit and a gear unit for connecting and disconnecting connectors, tubes, syringes, or other devices that require twisting of a locking element for a successful fluid connection. In some cases, a gripper also includes a draw/injection unit to draw and inject fluid through the connections. A gripper can be operated by a robotic arm or other versatile manufacturing equipment.

Abstract: Embodiments described herein relate generally to data analytics and asset distribution technologies on physical objects. In particular, physical marketing collateral may integrate wireless and/or wired communication, cloud-based portal, and data analytics to provide a mixed digital/physical information exchange platform. Digital assets may be hosted on a cloud. Physical objects may be configured to display these assets on an internet-enabled device. The physical objects may be distributed among a plurality of end-users who may engage with theaw assets. Engagement with the digital assets may be monitored, aggregated and subjected to a variety of calculations to evaluate various analytics which quantify performance of the digital assets. At any time, the digital assets may be changed on the cloud, remotely updating the digital assets accessed via the associated physical objects.

Abstract: A selection machine is configured to access a roster size scalar assigned to an item by a provider. The roster size scalar quantifies entities to be represented in a roster data structure for the item. The machine generates the roster data structure, which includes entity fields that are quantified by the roster size scalar and specify no entities. For each entity field, the machine detects that an entity is qualified for representation in the roster data structure, and the machine accordingly modifies the roster data structure by causing the entity field to correspond to the entity and specify the entity. In response to a final entity field specifying a corresponding entity, the machine selects an entity field to specify a selected entity for assignment to the item. The machine causes of a device of the provider to present a notification that the item is assigned to the selected entity.

Abstract: Disclosed herein is a method for producing isotropized “ready-to-use” polymer pellets or granules that contain completely or substantially relaxed matrix molecules and entangled organic nanofibrils with long aspect ratios that will provide superior properties for the products without high cost. These pellets are cost-effectively produced using industrial-scale fiber spinning or melt-blowing/spun-bond equipment followed by an isotropizing pelletizer. These pellets enable one to mass-produce the micro-fibrillar or nanofibrillar composites with superior mechanical properties, because they are readily usable (“ready-to-use”) for industry-scale mass production systems with a very high throughput over 1000 kg/hr. The organic nanofibrils are well dispersed and entangled in the polymer matrix and have a long aspect ratio ranging hundreds to thousands, to tens of thousands.

Abstract: The present invention relates to a method for producing a resin composition foam comprising dissolving a supercritical fluid in a resin composition containing polytetrafluoroethylene and another resin other than polytetrafluoroethylene at a temperature equal to or higher than a glass transition point of the other resin, then foaming the resin composition by removing the supercritical fluid at a temperature lower than a temperature obtained by adding 15° C. to a thermal deformation starting temperature of the other resin, and subsequently cooling. In addition, the present invention relates to a resin composition foam, wherein the resin composition foam has a pore size of less than 50 ?m, and the resin composition foam is any one of an open cell, a closed cell and a monolith type.