Abstract: Devices and methods for detecting axial forces applied to a container are provided. The devices can include a device housing, a container section, a force measurement sensor, and a processing section. The device housing can extend between a first housing end and a second housing end along a longitudinal axis. The container section can be mounted to the housing proximate the first housing end. The container section can have an open first section end and a closed second section end spaced apart along the longitudinal axis and at least one sidewall extending therebetween. The container section can define a cavity bounded by the first section end, the second section end and the at least one sidewall. The force measurement sensor can be positioned to generate the force measurement data in response to an axial force applied at the first section end.

Abstract: Devices and methods for detecting axial forces applied to a container are provided. The devices can include a device housing, a container section, a force measurement sensor, and a processing section. The device housing can extend between a first housing end and a second housing end along a longitudinal axis. The container section can be mounted to the housing proximate the first housing end. The container section can have an open first section end and a closed second section end spaced apart along the longitudinal axis and at least one sidewall extending therebetween. The container section can define a cavity bounded by the first section end, the second section end and the at least one sidewall. The force measurement sensor can be positioned to generate the force measurement data in response to an axial force applied at the first section end.

Abstract: Devices and methods for detecting axial forces applied to a container are provided. The devices can include a device housing, a container section, a force measurement sensor, and a processing section. The device housing can extend between a first housing end and a second housing end along a longitudinal axis. The container section can be mounted to the housing proximate the first housing end. The container section can have an open first section end and a closed second section end spaced apart along the longitudinal axis and at least one sidewall extending therebetween. The container section can define a cavity bounded by the first section end, the second section end and the at least one sidewall. The force measurement sensor can be positioned to generate the force measurement data in response to an axial force applied at the first section end.

Abstract: Devices and methods for detecting axial forces applied to a container are provided. The devices can include a device housing, a container section, a force measurement sensor, and a processing section. The device housing can extend between a first housing end and a second housing end along a longitudinal axis. The container section can be mounted to the housing proximate the first housing end. The container section can have an open first section end and a closed second section end spaced apart along the longitudinal axis and at least one sidewall extending therebetween. The container section can define a cavity bounded by the first section end, the second section end and the at least one sidewall. The force measurement sensor can be positioned to generate the force measurement data in response to an axial force applied at the first section end.

Abstract: Systems and methods are provided for sensing impacts applied to an article during a production and transportation process. The systems and methods can include a plurality of impact sensors fixed to the article and a processor coupled to the plurality of impact sensors. Each impact sensor can be fixed to the article at a corresponding sensor location and the plurality of impact sensors can be configured to generate a plurality of impact measurements in response to an impact applied to the article. The processor can be configured to: receive the plurality of impact measurements from the plurality of impact sensors; determine, from the plurality of impact measurements, that an impact condition is satisfied; determine an impact location based on the plurality of impact measurements and the corresponding sensor locations; and determine an overall impact magnitude based on the impact location and the plurality of impact measurements.

Abstract: A handheld communication device to communicate with a remote universal serial bus (USB) host controller via an integrated power and data port is provided. The device includes a microprocessor communicating with a power management integrated circuit (IC), wherein said microprocessor requires greater than 100 mA to be enumerated with the USB host controller. The device includes a USB microcontroller communicating with the USB host controller via a multiplexer and integrated power and data port, wherein the USB microcontroller requires less than 100 mA to be enumerated with the USB host controller, and wherein if a current available from the rechargeable battery is below a specified threshold required to power up the microprocessor, then the USB microcontroller performs USB enumeration with the USB host controller.

Abstract: A handheld communication device to communicate with a remote universal serial bus (USB) host controller via an integrated power and data port is provided. The device includes a microprocessor communicating with a power management integrated circuit (IC), wherein said microprocessor requires greater than 100 mA to be enumerated with the USB host controller. The device includes a USB microcontroller communicating with the USB host controller via a multiplexer and integrated power and data port, wherein the USB microcontroller requires less than 100 mA to be enumerated with the USB host controller, and wherein if a current available from the rechargeable battery is below a specified threshold required to power up the microprocessor, then the USB microcontroller performs USB enumeration with the USB host controller.

Abstract: The proposed solution relates to enumeration of a handheld device by a host controller in a laptop, and more particularly to a method and apparatus to support USB enumeration of such a handheld device where greater than 100 mA is required to enumerate the chipset associated with the handheld device. The proposed solution comprises a handheld device with an added USB microcontroller. In operation, the integrated USB microcontroller is only powered up when the USB charging cable is plugged in and the rechargeable battery level is below the threshold required to power up the handheld device with less than 100 mA pre-enumeration USB current. The integrated USB microcontroller performs USB enumeration with the host controller using the pre-enumeration 100 mA current, so that the charging current can be increased to 500 mA post enumeration.

Abstract: The proposed solution relates to enumeration of a handheld device by a host controller in a laptop, and more particularly to a method and apparatus to support USB enumeration of such a handheld device where greater than 100 mA is required to enumerate the chipset associated with the handheld device. The proposed solution comprises a handheld device with an added USB microcontroller. In operation, the integrated USB microcontroller is only powered up when the USB charging cable is plugged in and the rechargeable battery level is below the threshold required to power up the handheld device with less than 100 mA pre-enumeration USB current. The integrated USB microcontroller performs USB enumeration with the host controller using the pre-enumeration 100 mA current, so that the charging current can be increased to 500 mA post enumeration.