Abstract: A human-portable rotatable cosmetic dispenser (10, 30, 50). Dispensers (22, 32, 58) for a cosmetic product (26) are supported by a rotor (16, 34, 56) which can be spun about a base (14, 38, 52). The base and rotor combination may be formed as a fidget spinner (12).

Abstract: The present invention is an implantable tissue stimulation therapy system, comprising an implantable tissue stimulation device including a power source of a known stored energy amount, a programmer communicably coupled to the device and adapted to propose one or more therapy parameters for the device, each therapy parameter having a known energy consumption associated therewith, wherein a predicted elective service date of the power source based on the one or more proposed therapy parameters and the known energy amount of the power source is automatically determined, and a display communicatively coupled to the activation device, the display being configured to indicate the predicted elective power source service date to an operator, wherein the operator may choose to select the one or more proposed therapy parameters based on the indicated predicted elective service date and the selected one or more therapy parameters are transmitted to the device.

Abstract: The present invention is an implantable tissue stimulation therapy system, comprising an implantable tissue stimulation device including a power source of a known stored energy amount, a programmer communicably coupled to the device and adapted to propose one or more therapy parameters for the device, each therapy parameter having a known energy consumption associated therewith, wherein a predicted elective service date of the power source based on the one or more proposed therapy parameters and the known energy amount of the power source is automatically determined, and a display communicatively coupled to the activation device, the display being configured to indicate the predicted elective power source service date to an operator, wherein the operator may choose to select the one or more proposed therapy parameters based on the indicated predicted elective service date and the selected one or more therapy parameters are transmitted to the device.

Abstract: Connection structures on an extra-vascular electrode lead body improve strain relief and strengthen the transition region where electrical conductors carried by the lead body are joined to individual electrodes at the distal end of the lead. The electrodes include structure or mechanisms for externally securing the electrode assembly to a body part. A first connection structure is located on the lead body proximal the electrodes to anchor the lead body to a first anchor location in the body that generally moves in concert with the body part. A second connection structure is located on the lead body proximal to the first connection structure to anchor the lead body to a second anchor location that is at least partially independent of movement of the body part. The first and second anchor location are offset by a distance that is less than a distance between the first and second connection structures to provide strain relief for the electrodes.

Abstract: Connection structures on an extra-vascular electrode lead body improve strain relief and strengthen the transition region where electrical conductors carried by the lead body are joined to individual electrodes at the distal end of the lead. The electrodes include structure or mechanisms for externally securing the electrode assembly to a body part. A first connection structure is located on the lead body proximal the electrodes to anchor the lead body to a first anchor location in the body that generally moves in concert with the body part. A second connection structure is located on the lead body proximal to the first connection structure to anchor the lead body to a second anchor location that is at least partially independent of movement of the body part. The first and second anchor location are offset by a distance that is less than a distance between the first and second connection structures to provide strain relief for the electrodes.

Abstract: Computer housings with retractable expansion bay covers and methods for operating expansion bay covers. In one embodiment, a computer housing includes casing, a front bezel attached to the casing, and a retractable cover system attached to the casing and/or the front bezel. In one embodiment, the casing can have a side structure with a first side and a second side, and a front structure spanning across a front portion of the side structure. The front structure generally has a plurality of permanent drive bays and at least one expansion bay, and the front bezel generally has an opening for each permanent drive bay and an aperture for the expansion bays. The retractable cover system is slidably attached to the casing and/or the front bezel to selectively cover the expansion bay aperture. The cover system can include an internal track in the front bezel or along the side structure and a movable cover having a nub received in the track.

Abstract: Computer housings with retractable expansion bay covers and methods for operating expansion bay covers. In one embodiment, a computer housing includes casing, a front bezel attached to the casing, and a retractable cover system attached to the casing and/or the front bezel. In one embodiment, the casing can have a side structure with a first side and a second side, and a front structure spanning across a front portion of the side structure. The front structure generally has a plurality of permanent drive bays and at least one expansion bay, and the front bezel generally has an opening for each permanent drive bay and an aperture for the expansion bays. The retractable cover system is slidably attached to the casing and/or the front bezel to selectively cover the expansion bay aperture. The cover system can include an internal track in the front bezel or along the side structure and a movable cover having a nub received in the track.

Abstract: Computer housings with retractable expansion bay covers and methods for operating expansion bay covers. In one embodiment, a computer housing includes casing, a front bezel attached to the casing, and a retractable cover system attached to the casing and/or the front bezel. In one embodiment, the casing can have a side structure with a first side and a second side, and a front structure spanning across a front portion of the side structure. The front structure generally has a plurality of permanent drive bays and at least one expansion bay, and the front bezel generally has an opening for each permanent drive bay and an aperture for the expansion bays. The retractable cover system is slidably attached to the casing and/or the front bezel to selectively cover the expansion bay aperture. The cover system can include an internal track in the front bezel or along the side structure and a movable cover having a nub received in the track.