Abstract: A device and method for changing lug nut covers is provided. The device includes a cylinder with a wrench end and an opposing power tool end. The cylinder has a length extending from the wrench end that has a smaller diameter than a length extending from the power tool end. The wrench end is hexagonal shaped for fitting to a lug nut cover wrench and the power tool end encloses an aperture for fitting to a power tool bit. The method includes attaching the device to a lug nut cover wrench through a hexagonal-shaped cylinder in a wrench end of the device, placing the lug nut cover wrench over a lug nut cover, inserting a power tool bit into an aperture enclosed in an opposing power tool end of the device, and torquing the device using the power tool to remove or attach the lug nut cover.

Abstract: In one or more embodiments a mast climbing work structure may be provided. The mast climbing work structure may include a base structure and a mast attached to the base structure and rising vertically from the base structure. The mast climbing work structure may further include a work platform attached to the mast. The work platform may have a deck a structural frame underneath the deck and at least one side platform connected to a side of the structural frame. The work platform may be configured to ascend and descend via the vertical mast and the side platform may be configured to raise vertically and translate alongside the side of the structural frame.

Abstract: A system for providing discharge monitoring of a firearm includes an event detection module, a signal processing module and a trigger pull sensor assembly. The event detection module has at least one sensor that senses an acceleration and generates an acceleration signal. The signal processing module receives the acceleration signal. The signal processing module is configured to determine whether the acceleration signal is a discharge event and generate an event detection signal based on the determination and is configured to maintain a shot count of the firearm based on the determination that the event detection signal is a discharge event. The trigger pull sensor assembly senses mechanical movement of a trigger of the firearm and communicates a trigger actuation signal to the signal processing module corresponding to a position of the trigger. The event detection signal is further based on the trigger actuation signal.

Abstract: A system for providing discharge monitoring of a firearm includes a first sensor, a trigger pull sensor assembly, an event detection module and a display. The first sensor senses a first acceleration along a first axis and sends a first input signal. The trigger pull sensor assembly senses mechanical movement of a trigger of the firearm, and communicates a second input signal corresponding to a position of the trigger. The event detection module receives the first input signal and compares the first acceleration to an acceleration threshold indicative of a shot; receives the second input signal and determines whether the second input signal is satisfies a second threshold indicative of a shot; determines whether a discharge has occurred based on both the first signal satisfying the acceleration threshold and the second input signal satisfying the second threshold; and generates an event detection signal based on the determination.

Abstract: A computer-implemented method performed by a user device is provided. The computer-implemented method includes receiving a message including an encrypted credential from a server computer; determining a response shared secret using a private key and a server public key; decrypting the encrypted credential using the response shared secret to determine a credential; obtaining a key derivation parameter from the credential; determining a first cryptogram key using the key derivation parameter; generating a first cryptogram using the first cryptogram key; and sending the first cryptogram to a second computer.

Abstract: Methods and devices are provided for a live real time spectrum analyzer to run on a wireless microphone receiver system whereby color coding, distinctive plotting and labelling may be applied to allow users to differentiate the source of RF emissions contributing to observed peaks in the spectrum.

Abstract: A system for providing discharge monitoring of a firearm includes a first sensor, a trigger pull sensor assembly, an event detection module and a display. The first sensor senses a first acceleration along a first axis and sends a first input signal. The trigger pull sensor assembly senses mechanical movement of a trigger of the firearm, and communicates a second input signal corresponding to a position of the trigger. The event detection module receives the first input signal and compares the first acceleration to an acceleration threshold indicative of a shot; receives the second input signal and determines whether the second input signal is satisfies a second threshold indicative of a shot; determines whether a discharge has occurred based on both the first signal satisfying the acceleration threshold and the second input signal satisfying the second threshold; and generates an event detection signal based on the determination.

Abstract: Techniques for obfuscating and deploying digital assets (e.g., mobile applications) are provided to mitigate the risk of unauthorized disclosure. An asset can be received that is to be deployed to a plurality of mobile devices, each of the mobile devices associated with a corresponding account having account attributes. A deployment group of one or more mobile devices for deploying the asset can be identified based on a set of one or more obfuscation parameters, comprising account attributes shared among the one or more mobile devices within the deployment group. A customized obfuscation scheme to be applied to the asset can be determined based at least in part on the set of obfuscation parameters. The customized obfuscation scheme can be applied to the asset to generate an obfuscated asset. The obfuscated asset can be transmitted and/or updated over a network to the one or more mobile devices within the deployment group.

Abstract: A satellite system may have a constellation of communications satellites. Satellite terminal equipment may be used to communicate with the satellite constellation. The satellite terminal equipment may have indoor and outdoor equipment that can communicate wirelessly. Power may be conveyed wirelessly between the indoor equipment and the outdoor equipment. The indoor equipment may include communications circuitry for supporting communications with electronic devices. The outdoor equipment may include satellite communications circuitry. The satellite communications circuitry may include antennas, satellite transceiver circuitry, and modems. Wireless communications between the indoor and outdoor equipment may be supported using radio-frequency wireless communications circuits or optical communications circuits.

Abstract: A system for providing discharge monitoring of a firearm includes an event detection module, a signal processing module and a trigger pull sensor assembly. The event detection module has at least one sensor that senses an acceleration and generates an acceleration signal. The signal processing module receives the acceleration signal. The signal processing module is configured to determine whether the acceleration signal is a discharge event and generate an event detection signal based on the determination and is configured to maintain a shot count of the firearm based on the determination that the event detection signal is a discharge event. The trigger pull sensor assembly senses mechanical movement of a trigger of the firearm and communicates a trigger actuation signal to the signal processing module corresponding to a position of the trigger. The event detection signal is further based on the trigger actuation signal.

Abstract: A computer-implemented method performed by a user device is provided. The computer-implemented method includes receiving a message including an encrypted credential from a server computer; determining a response shared secret using a private key and a server public key; decrypting the encrypted credential using the response shared secret to determine a credential; obtaining a key derivation parameter from the credential; determining a first cryptogram key using the key derivation parameter; generating a first cryptogram using the first cryptogram key; and sending the first cryptogram to a second computer.

Abstract: Described herein is a flavored delivery system including different particles. Also described herein are consumer products including said flavored delivery system.

Abstract: A system and method for providing a medical simulation device that utilizes open software platforms and provides functionality in both software and hardware modules is disclosed. The medical simulation system facilitates plug and play operation with installed hardware and software modules that are automatically recognized by the system for compatibility and the system configures itself according to identification information of the hardware module.

Abstract: Embodiments of the invention introduce efficient methods for securely generating a cryptogram by a user device, and validating the cryptogram by a server computer. A secure communication can be conducted whereby a user device provides a cryptogram without requiring the user device to persistently store an encryption key or other sensitive data used to generate the cryptogram. The user device and server computer can mutually authenticate and establish a shared secret. Using the shared secret, the server computer can derive a session key and transmit key derivation parameters encrypted using the session key to the user device. The user device can derive the session key using the shared secret, decrypt the encrypted key derivation parameters, and store the key derivation parameters. Key derivation parameters and the shared secret can be used to generate a single use cryptogram key, which can be used to generate a cryptogram for conducting secure communications.

Abstract: Techniques for obfuscating and deploying digital assets (e.g., mobile applications) are provided to mitigate the risk of unauthorized disclosure. An asset can be received that is to be deployed to a plurality of mobile devices, each of the mobile devices associated with a corresponding account having account attributes. A deployment group of one or more mobile devices for deploying the asset can be identified based on a set of one or more obfuscation parameters, comprising account attributes shared among the one or more mobile devices within the deployment group. A customized obfuscation scheme to be applied to the asset can be determined based at least in part on the set of obfuscation parameters. The customized obfuscation scheme can be applied to the asset to generate an obfuscated asset. The obfuscated asset can be transmitted and/or updated over a network to the one or more mobile devices within the deployment group.

Abstract: A satellite system may have a constellation of communications satellites. Satellite terminal equipment may be used to communicate with the satellite constellation. The satellite terminal equipment may have indoor and outdoor equipment that can communicate wirelessly. Power may be conveyed wirelessly between the indoor equipment and the outdoor equipment. The indoor equipment may include communications circuitry for supporting communications with electronic devices. The outdoor equipment may include satellite communications circuitry. The satellite communications circuitry may include antennas, satellite transceiver circuitry, and modems. Wireless communications between the indoor and outdoor equipment may be supported using radio-frequency wireless communications circuits or optical communications circuits.

Abstract: Techniques for obfuscating and deploying digital assets (e.g., mobile applications) are provided to mitigate the risk of unauthorized disclosure. An asset can be received that is to be deployed to a plurality of mobile devices, each of the mobile devices associated with a corresponding account having account attributes. A deployment group of one or more mobile devices for deploying the asset can be identified based on a set of one or more obfuscation parameters, comprising account attributes shared among the one or more mobile devices within the deployment group. A customized obfuscation scheme to be applied to the asset can be determined based at least in part on the set of obfuscation parameters. The customized obfuscation scheme can be applied to the asset to generate an obfuscated asset. The obfuscated asset can be transmitted and/or updated over a network to the one or more mobile devices within the deployment group.

Abstract: A satellite system may have a constellation of communications satellites. Satellite terminal equipment may be used to communicate with the satellite constellation. The satellite terminal equipment may have indoor and outdoor equipment that can communicate wirelessly. Power may be conveyed wirelessly between the indoor equipment and the outdoor equipment. The indoor equipment may include communications circuitry for supporting communications with electronic devices. The outdoor equipment may include satellite communications circuitry. The satellite communications circuitry may include antennas, satellite transceiver circuitry, and modems. Wireless communications between the indoor and outdoor equipment may be supported using radio-frequency wireless communications circuits or optical communications circuits.

Abstract: Embodiments of the invention introduce efficient methods for securely generating a cryptogram by a user device, and validating the cryptogram by a server computer. A secure communication can be conducted whereby a user device provides a cryptogram without requiring the user device to persistently store an encryption key or other sensitive data used to generate the cryptogram. The user device and server computer can mutually authenticate and establish a shared secret. Using the shared secret, the server computer can derive a session key and transmit key derivation parameters encrypted using the session key to the user device. The user device can derive the session key using the shared secret, decrypt the encrypted key derivation parameters, and store the key derivation parameters. Key derivation parameters and the shared secret can be used to generate a single use cryptogram key, which can be used to generate a cryptogram for conducting secure communications.

Abstract: Embodiments of the invention introduce efficient methods for securely generating a cryptogram by a user device, and validating the cryptogram by a server computer. A secure communication can be conducted whereby a user device provides a cryptogram without requiring the user device to persistently store an encryption key or other sensitive data used to generate the cryptogram. The user device and server computer can mutually authenticate and establish a shared secret. Using the shared secret, the server computer can derive a session key and transmit key derivation parameters encrypted using the session key to the user device. The user device can derive the session key using the shared secret, decrypt the encrypted key derivation parameters, and store the key derivation parameters. Key derivation parameters and the shared secret can be used to generate a single use cryptogram key, which can be used to generate a cryptogram for conducting secure communications.