Abstract: This disclosure relates to GLP-1 agonists of Formula (I), including pharmaceutically acceptable salts and solvates thereof, and pharmaceutical compositions including the same.

Abstract: The disclosure relates to a target for physical vapor deposition processes. In one embodiment, a physical vapor deposition (PVD) target, includes a monolithic target with a support region partially defined by a process face and radial sidewalls; and a recess within a mounting face of the monolithic target, the recess disposed opposite the process face and extending radially outward of the radial sidewalls.

Abstract: Disclosed are various embodiments for payment protocols using decentralized identifiers (DIDs) and verifiable credentials (VCs). Various embodiments can receive a transfer peer DID comprising at least a first account peer DID, a second account peer DID, and instructions to initiate a transfer for a transfer amount between a first user record and a second user record. The first user record can be identified by the first account peer DID. The second user record can be identified by the second account peer DID. Various embodiments can generate a VC for the first account peer DID that comprises at least an authorization amount that represents an account balance that has been increased or decreased by the transfer amount. In various embodiments, the VC can be signed by a private key associated with an institution DID. Various embodiments can then send the VC to the client device.

Abstract: Disclosed are various embodiments for consolidated protocols for decentralized identifier communications (DIDComm). In various embodiments, an issuer can receive a secure connection request and request for a credential from a holder. The issuer can then send a second packet comprising an acceptance of the secure connection request to the holder and subsequently send a verifiable credential after establishing the secure connection. The holder can simultaneously send an acknowledgement for setting up the secure connection and receiving the verifiable credential. The holder can request a second secure connection with a verifier. After establishing the second secure connection, the holder can send a verifiable presentation or the verifiable credential to the verifier, which the verifier can verify.

Abstract: This disclosure relates to GLP-1 agonists of Formula (I), including pharmaceutically acceptable salts and solvates thereof, and pharmaceutical compositions including the same.

Abstract: Disclosed are various approaches for relationship and attribute management are described. In some examples, a verifier service performs a verification process using a relationship decentralized identifier (DID) that provides proof of a relationship between the holder and a DID management service. An attribute request is that specifies an attribute is transmitted from the verifier service to the DID management service. The DID management service provides the verifier service with information based on the attribute once the holder provides an authorization response that authorizes usage of the attribute.

Abstract: Disclosed are various embodiments for executing entity-specific cryptographic code in a cryptographic coprocessor. In one embodiment, an exemplary method comprises transmitting, from an entity service to a client device, a key identifier and encrypted code that implements a cryptographic algorithm, wherein the encrypted code further includes an encryption key, wherein the key identifier identifies a particular root key that is associated with the entity service and is stored with a cryptographic coprocessor of the client device; receiving, by the entity service from the client device, a cryptogram that includes information encrypted using the cryptographic algorithm and the encryption key; and decrypting, by the entity service, the cryptogram using the encryption key.

Abstract: Methods of processing a substrate in a PVD chamber are provided herein. In some embodiments, a method of processing a substrate in a PVD chamber, includes: sputtering material from a target disposed in the PVD chamber and onto a substrate, wherein at least some of the material sputtered from the target is guided to the substrate through a magnetic field provided by one or more upper magnets disposed about a processing volume of the PVD chamber above a support pedestal for the substrate in the PVD chamber, one or more first magnets disposed about the support pedestal and providing an increased magnetic field strength at an edge region of the substrate, and one or more second magnets disposed below the support pedestal that increase a magnetic field strength at a central region of the substrate.

Abstract: Systems and methods for voice-enabled transactions are disclosed. A merchant system may generate a transaction request comprising a transaction amount and a merchant identifier. The merchant system may invoke an audio signal generator to generate an audio transaction signal comprising the transaction request data. A voice assistant may play the audio transaction signal. The user initiating the transaction may use a mobile device to detect and ingest the audio transaction signal. In response to detecting and ingesting the audio transaction signal, the mobile device may interact with a payment network to authorize, process, and complete the transaction request. The payment network may transmit a transaction approval to the merchant system.

Abstract: Disclosed are various embodiments for executing entity-specific cryptographic code in a cryptographic coprocessor. In one embodiment, an exemplary method comprises transmitting, from an entity service to a client device, a key identifier and encrypted code that implements a cryptographic algorithm, wherein the encrypted code further includes an encryption key, wherein the key identifier identifies a particular root key that is associated with the entity service and is stored with a cryptographic coprocessor of the client device; receiving, by the entity service from the client device, a cryptogram that includes information encrypted using the cryptographic algorithm and the encryption key; and decrypting, by the entity service, the cryptogram using the encryption key.

Abstract: Disclosed are various embodiments for executing entity-specific cryptographic code in a cryptographic coprocessor. In one embodiment, an exemplary method comprises receiving encrypted code that includes implementing a cryptographic algorithm from a service via a network, wherein the encrypted code further includes a symmetric encryption key; decrypting, by a cryptographic coprocessor, the encrypted code; executing, by the cryptographic coprocessor, the decrypted code to generate a cryptogram including information encrypted using the cryptographic algorithm and the symmetric encryption key; and sending the cryptogram to the service via the network.

Abstract: A semiconductor manufacturing system has a turbine disposed inside a semiconductor manufacturing clean room. A controller is disposed outside the semiconductor manufacturing clean room and is coupled to the turbine through a first cable. A first computer is coupled to the controller through a second cable. The first computer has a web server configured to communicate with the controller via the second cable. A second computer is disposed in the semiconductor manufacturing clean room and is connected to the web server of the first computer. The web server hosts a web page including a reset button configured to issue a reset command to the controller. The web page also displays a status of the turbine.

Abstract: A semiconductor manufacturing system has a turbine disposed inside a semiconductor manufacturing clean room. A controller is disposed outside the semiconductor manufacturing clean room and is coupled to the turbine through a first cable. A first computer is coupled to the controller through a second cable. The first computer has a web server configured to communicate with the controller via the second cable. A second computer is disposed in the semiconductor manufacturing clean room and is connected to the web server of the first computer. The web server hosts a web page including a reset button configured to issue a reset command to the controller. The web page also displays a status of the turbine.

Abstract: Disclosed are various embodiments for a hosted point-of-sale service that provides the security features of card-present transactions for card-not-present transactions. The various embodiments of the present disclosure can be configured to receive a merchant identifier and a transaction amount for a transaction from a merchant terminal, as well as receive the merchant identifier and encrypted payment account data for the transaction. The encrypted payment account data can then be decrypted. An authorization request for the transaction is then generated based at least in part on the merchant identifier, the transaction amount, and the payment account data. The authorization request is then sent to a payment processor, which can route the authorization request to an authorizing entity via a payment network. An authorization response is received in response from the authorizing entity via the payment processor, and the contents are forwarded on to the merchant terminal.

Abstract: Disclosed are various embodiments for executing entity-specific cryptographic code in a cryptographic coprocessor. In one embodiment, an exemplary method comprises receiving encrypted code that includes implementing a cryptographic algorithm from a service via a network, wherein the encrypted code further includes a symmetric encryption key; decrypting, by a cryptographic coprocessor, the encrypted code; executing, by the cryptographic coprocessor, the decrypted code to generate a cryptogram including information encrypted using the cryptographic algorithm and the symmetric encryption key; and sending the cryptogram to the service via the network.

Abstract: Disclosed are various embodiments for executing entity-specific cryptographic code in a cryptographic coprocessor. In one embodiment, encrypted code implementing a cryptographic algorithm is received from a service via a network. The cryptographic coprocessor decrypts the encrypted code. The cryptographic coprocessor executes the decrypted code to generate a cryptogram including information encrypted using the cryptographic algorithm. The cryptogram is sent to the service via the network.

Abstract: Systems and methods for voice-enabled transactions are disclosed. A merchant system may generate a transaction request comprising a transaction amount and a merchant identifier. The merchant system may invoke an audio signal generator to generate an audio transaction signal comprising the transaction request data. A voice assistant may play the audio transaction signal. The user initiating the transaction may use a mobile device to detect and ingest the audio transaction signal. In response to detecting and ingesting the audio transaction signal, the mobile device may interact with a payment network to authorize, process, and complete the transaction request. The payment network may transmit a transaction approval to the merchant system.

Abstract: Systems and methods for voice-enabled transactions are disclosed. A merchant system may generate a transaction request comprising a transaction amount and a merchant identifier. The merchant system may invoke an audio signal generator to generate an audio transaction signal comprising the transaction request data. A voice assistant may play the audio transaction signal. The user initiating the transaction may use a mobile device to detect and ingest the audio transaction signal. In response to detecting and ingesting the audio transaction signal, the mobile device may interact with a payment network to authorize, process, and complete the transaction request. The payment network may transmit a transaction approval to the merchant system.

Abstract: Disclosed are various embodiments for executing entity-specific cryptographic code in a trusted execution environment. In one embodiment, encrypted code implementing a cryptographic algorithm is received from a service via a network. The encrypted code is provided to an application executed in a trusted execution environment of the computing device. The encrypted code is decrypted in the trusted execution environment. The decrypted code is executed in the trusted execution environment to generate a cryptogram including information encrypted using the cryptographic algorithm.