Abstract: According to an embodiment of the disclosure, a method for monitoring a battery pack is provided. The battery pack includes a plurality of modules and a pack controller, and each module includes a corresponding module controller. For each module, the method includes measuring a module current and measuring a module voltage. The measured module current and the measured module voltage are compared to state of health (SOH) data in at least one dynamic look-up table. A state of charge for the module is determined based on the comparison of the measured module current and the measured module voltage to the SOH data in the dynamic look-up table. For a particular embodiment, the dynamic look-up table is initially configured based on a type of battery chemistry for the battery pack, and after each charge cycle for the module, the dynamic look-up table is updated based on empirical data for the module.

Abstract: The present invention relates to an arrow with an embedded deployable RFID tag, and to the methods of using the same in order to improve tracking of an animal. In one embodiment, the tracking device has a body that attached intermediate the head and shaft of an arrow. The internal components can compress during impact with a target, allowing an embedded to become embedded within the target. The embedder can utilize an RFID or other electronically trackable device. A safety can further be provided to prevent the deployment of the embedder during target practice. A tracker can be used to track specific tags that are deployed, and in particular, tags that are lodged within an animal. In one additional embodiment, a signal is provided when the RFID tag is deployed.

Abstract: According to an embodiment of the disclosure, a method for monitoring a battery pack is provided. The battery pack includes a plurality of modules and a pack controller, and each module includes a corresponding module controller. For each module, the method includes measuring a module current and measuring a module voltage. The measured module current and the measured module voltage are compared to state of health (SOH) data in at least one dynamic look-up table. A state of charge for the module is determined based on the comparison of the measured module current and the measured module voltage to the SOH data in the dynamic look-up table. For a particular embodiment, the dynamic look-up table is initially configured based on a type of battery chemistry for the battery pack, and after each charge cycle for the module, the dynamic look-up table is updated based on empirical data for the module.

Abstract: The present invention relates to an arrow with an embedded deployable RFID tag, and to the methods of using the same in order to improve tracking of an animal. In one embodiment, the tracking device has a body that attached intermediate the head and shaft of an arrow. The internal components can compress during impact with a target, allowing an embedded to become embedded within the target. The embedder can utilize an RFID or other electronically trackable device. A safety can further be provided to prevent the deployment of the embedder during target practice. A tracker can be used to track specific tags that are deployed, and in particular, tags that are lodged within an animal. In one additional embodiment, a signal is provided when the RFID tag is deployed.