Abstract: In one aspect, disclosed herein are methods of expanding tumor infiltrating lymphocytes (TILs) in vitro or ex vivo comprising obtaining TILs and culturing the TILs in media comprising one or more CD40 agonists (such as, for example, a CD40 ligand (CD40L) and/or anti-CD40 antibody).

Abstract: An example process includes causing a website of a merchant to load to an in-app browser within a payment application executing on a user device of a user. The example process further includes presenting, via a user interface of the user device, an interactive element on a checkout page of the website. A determination is made that the interactive element has been selected. The selection generates a payment request for a payment to the merchant from a user account associated with the payment application. The payment request is received via the in-app browser to initiate payment from the user account. The example process further includes determining that the payment request originated from within the payment application and is associated with a stored balance associated with the user account. The user account is accessed, and the payment is caused to be authorized without additional input from the user.

Abstract: Systems and methods for shielded fluid transfer are provided. A fluid transfer shield is provided to facilitate transferring fluid from a first container to a secondary container. The fluid transfer shield includes a shield having an exterior and defining an interior space, a first port extending from the exterior of the shield, the first port configured to be fluidly coupled to the first container, and a second port extending opposite the first port and into the interior space of the shield so that the shield laterally surrounds the second port, the second port configured to be fluidly coupled to the secondary container. A passageway is provided that extends between the first port and the second port to fluidly couple the first container and the secondary container when the first container is fluidly coupled to the first port and the secondary container is fluidly coupled to the second port.

Abstract: Systems and methods for a tethered optical imaging probe configured to be integrated into an optical system for medical diagnosis are provided. In one configuration, the present disclosure provides a tethered optical imaging probe including a motor arranged within a swallowable capsule. A rotational speed of the motor is actively controlled by a feedback signal.

Abstract: Cycloaliphatic polyester polyols and processes for making them from thermoplastic polyesters are disclosed. One process comprises heating a thermoplastic polyester with a glycol to give a digested intermediate and hydrogenating aromatic rings in the digested intermediate to produce the cycloaliphatic polyester polyol. Optionally, the digested intermediate is reacted with a hydrophobe to give a modified polyol prior to hydrogenation, and the modified polyol is hydrogenated to give the cycloaliphatic polyester polyol. The high-recycle-content cycloaliphatic polyester polyols have desirable attributes for formulating polyurethane dispersions, two-component polyurethane coatings, mono- or poly(meth)acrylates, polyisocyanurates, flexible and rigid foams, coatings, adhesives, sealants, and elastomers, and they provide a sustainable alternative to petrochemical-based polyols.

Abstract: Systems and methods for a tethered optical imaging probe configured to be integrated into an optical system for medical diagnosis are provided. In one configuration, the present disclosure provides a tethered optical imaging probe including a motor arranged within a swallowable capsule. A rotational speed of the motor is actively controlled by a feedback signal.

Abstract: Cycloaliphatic polyester polyols and processes for making them from thermoplastic polyesters are disclosed. One process comprises heating a thermoplastic polyester with a glycol to give a digested intermediate and hydrogenating aromatic rings in the digested intermediate to produce the cycloaliphatic polyester polyol. Optionally, the digested intermediate is reacted with a hydrophobe to give a modified polyol prior to hydrogenation, and the modified polyol is hydrogenated to give the cycloaliphatic polyester polyol. The high-recycle-content cycloaliphatic polyester polyols have desirable attributes for formulating polyurethane dispersions, two-component polyurethane coatings, mono- or poly(meth)acrylates, polyisocyanurates, flexible and rigid foams, coatings, adhesives, sealants, and elastomers, and they provide a sustainable alternative to petrochemical-based polyols.

Abstract: Cycloaliphatic polyester polyols and processes for making them from thermoplastic polyesters are disclosed. One process comprises heating a thermoplastic polyester with a glycol to give a digested intermediate and hydrogenating aromatic rings in the digested intermediate to produce the cycloaliphatic polyester polyol. Optionally, the digested intermediate is reacted with a hydrophobe to give a modified polyol prior to hydrogenation, and the modified polyol is hydrogenated to give the cycloaliphatic polyester polyol. The high-recycle-content cycloaliphatic polyester polyols have desirable attributes for formulating polyurethane dispersions, two-component polyurethane coatings, mono- or poly(meth)acrylates, polyisocyanurates, flexible and rigid foams, coatings, adhesives, sealants, and elastomers, and they provide a sustainable alternative to petrochemical-based polyols.

Abstract: Cycloaliphatic polyester polyols and processes for making them from thermoplastic polyesters are disclosed. One process comprises heating a thermoplastic polyester with a glycol to give a digested intermediate and hydrogenating aromatic rings in the digested intermediate to produce the cycloaliphatic polyester polyol. Optionally, the digested intermediate is reacted with a hydrophobe to give a modified polyol prior to hydrogenation, and the modified polyol is hydrogenated to give the cycloaliphatic polyester polyol. The high-recycle-content cycloaliphatic polyester polyols have desirable attributes for formulating polyurethane dispersions, two-component polyurethane coatings, mono- or poly(meth)acrylates, polyisocyanurates, flexible and rigid foams, coatings, adhesives, sealants, and elastomers, and they provide a sustainable alternative to petrochemical-based polyols.