Abstract: A leadless biostimulator, such as a leadless pacemaker, including a header assembly having a monolithic controlled release device (MCRD) for therapeutic agent elution, is described. The MCRD is in fluid communication with a space between an insulator and an electrode of the header assembly to elute therapeutic agent into the space when the leadless biostimulator is implanted. The therapeutic agent can elute through the space around the electrode to provide controlled elution of the therapeutic agent to a surrounding environment. The electrode can extend longitudinally through the insulator cavity to a distal tip that provides a stable surface area and controlled impedance for pacing a target tissue. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless cardiac pacemaker, having a header assembly is described. The header assembly includes a helix mount mounted on a flange. An inner surface of the helix mount conforms to an outer surface of the flange, and the outer surface has a non-circular profile such that the conforming surfaces interfere with rotation of the helix mount relative to the flange. The non-circular profile includes a linear segment, such as a radial segment, that resists rotational movement of the helix mount. The helix mount has a protrusion that extends into a recess of the flange to interfere with longitudinal movement between the helix mount and the flange. The protrusion is formed before or after mounting the helix mount on the flange. The interfering surfaces threadlessly interconnect the header assembly components. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless pacemaker, including a header assembly having a monolithic controlled release device (MCRD) for therapeutic agent elution, is described. The MCRD is in fluid communication with a space between an insulator and an electrode of the header assembly to elute therapeutic agent into the space when the leadless biostimulator is implanted. The therapeutic agent can elute through the space around the electrode to provide controlled elution of the therapeutic agent to a surrounding environment. The electrode can extend longitudinally through the insulator cavity to a distal tip that provides a stable surface area and controlled impedance for pacing a target tissue. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless cardiac pacemaker, having a header assembly is described. The header assembly includes a helix mount mounted on a flange. An inner surface of the helix mount conforms to an outer surface of the flange, and the outer surface has a non-circular profile such that the conforming surfaces interfere with rotation of the helix mount relative to the flange. The non-circular profile includes a linear segment, such as a radial segment, that resists rotational movement of the helix mount. The helix mount has a protrusion that extends into a recess of the flange to interfere with longitudinal movement between the helix mount and the flange. The protrusion is formed before or after mounting the helix mount on the flange. The interfering surfaces threadlessly interconnect the header assembly components. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless cardiac pacemaker, having a header assembly is described. The header assembly includes a helix mount mounted on a flange. An inner surface of the helix mount conforms to an outer surface of the flange, and the outer surface has a non-circular profile such that the conforming surfaces interfere with rotation of the helix mount relative to the flange. The non-circular profile includes a linear segment, such as a radial segment, that resists rotational movement of the helix mount. The helix mount has a protrusion that extends into a recess of the flange to interfere with longitudinal movement between the helix mount and the flange. The protrusion is formed before or after mounting the helix mount on the flange. The interfering surfaces threadlessly interconnect the header assembly components. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless cardiac pacemaker, having a header assembly is described. The header assembly includes a helix mount mounted on a flange. An inner surface of the helix mount conforms to an outer surface of the flange, and the outer surface has a non-circular profile such that the conforming surfaces interfere with rotation of the helix mount relative to the flange. The non-circular profile includes a linear segment, such as a radial segment, that resists rotational movement of the helix mount. The helix mount has a protrusion that extends into a recess of the flange to interfere with longitudinal movement between the helix mount and the flange. The protrusion is formed before or after mounting the helix mount on the flange. The interfering surfaces threadlessly interconnect the header assembly components. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless pacemaker, including a header assembly having a monolithic controlled release device (MCRD) for therapeutic agent elution, is described. The MCRD is in fluid communication with a space between an insulator and an electrode of the header assembly to elute therapeutic agent into the space when the leadless biostimulator is implanted. The therapeutic agent can elute through the space around the electrode to provide controlled elution of the therapeutic agent to a surrounding environment. The electrode can extend longitudinally through the insulator cavity to a distal tip that provides a stable surface area and controlled impedance for pacing a target tissue. Other embodiments are also described and claimed.

Abstract: A leadless biostimulator, such as a leadless cardiac pacemaker, having a header assembly is described. The header assembly includes a helix mount mounted on a flange. An inner surface of the helix mount conforms to an outer surface of the flange, and the outer surface has a non-circular profile such that the conforming surfaces interfere with rotation of the helix mount relative to the flange. The non-circular profile includes a linear segment, such as a radial segment, that resists rotational movement of the helix mount. The helix mount has a protrusion that extends into a recess of the flange to interfere with longitudinal movement between the helix mount and the flange. The protrusion is formed before or after mounting the helix mount on the flange. The interfering surfaces threadlessly interconnect the header assembly components. Other embodiments are also described and claimed.

Abstract: A multi-media device interface (18) couples a multi-media device (16) to a portable electronic device (10). Multi-media and other information can be loaded into the portable electronic device (10) from the multi-media device (16) or stored in the multi-media device (16) from the portable electronic device (10). The multi-media device interface (18) queues commands to the multi-media device (16) from the portable electronic device (10) while the multi-media device (16) completes a previously-issued command.

Abstract: A multi-media device interface (18) couples a multi-media device (16) to a portable electronic device (10). Multi-media and other information can be loaded into the portable electronic device (10) from the multi-media device (16) or stored in the multi-media device (16) from the portable electronic device (10). The multi-media device interface (18) queues commands to the multi-media device (16) from the portable electronic device (10) while the multi-media device (16) completes a previously-issued command.

Abstract: A method, telecommunication apparatus, and electronic device for securely creating an identity data block are disclosed. A secure memory 208 may store a unique private key 326 associated with a unique public key 328. A processor 204 may generate the identity data block 332 in the secure memory 208 using the unique private key 326. The processor 204 may erase the unique private key 326 from the secure memory 208.

Abstract: Data is received from multiple data sources. The data received from the data sources provides information about patients in a population who have received one or more therapies. Patient-centric records are generated. Each of the patient-centric records stores patient data regarding a different patient in the population. The patient data stored in the patient-centric records is based on the data received from the data sources.

Abstract: A method, telecommunication apparatus, and electronic device for securely creating an identity data block are disclosed. A secure memory 208 may store a unique private key 326 associated with a unique public key 328. A processor 204 may generate the identity data block 332 in the secure memory 208 using the unique private key 326. The processor 204 may erase the unique private key 326 from the secure memory 208.

Abstract: An apparatus for stimulation of the body, including sexual stimulation, includes a body, formed by a bathing or showing sponge, with a compartment for holding a stimulating apparatus, such as a vibrator. The compartment with the stimulating apparatus is concealed by the body, from plain view.

Abstract: A method and apparatus is provided for power conservation of a hardware module (142) which is coupleable to a portable electronic device (100). The hardware module (142) has unique identification information associated therewith and stored therein. The unique identification information is provided periodically (308) to the portable electronic device (100) and stored therein (207). To conserve power, the portable electronic device (100) sends a power-down notice (212) to the hardware module (142), the module controller (144) stores current state information of the hardware module (142) in a non-volatile memory (146) thereof, and the hardware module (142) is powered off (214).

Abstract: Techniques are provided for preventing replacement of a one-time-programmable (OTP) component. The OTP component can be part of a wireless device. The wireless device is configured such that programming of a new IMEI code into the OTP component is permitted only when the wireless device is in a secure-mode state. A challenge-response protocol is used to place the wireless device in this secure-mode state.

Abstract: A communication system (100) includes a portal (110), a subscriber (108), a service processor (112), and a communication network (102-104, 107) for providing communication between the portal (110), the subscriber (108) and the service processor (112).

Abstract: A server, e.g., a client (105, 107, 109), receives a request for a digital signature to be applied to digital information, obtains a representation of the information, determines a designation of key pair(s) to be applied thereto; and transmits a request for the digital signature to a front end server (103a, 103b). The front end server determines one or more of whether the client is authentic and authorized, the user identifier is authentic, and the user identifier is permitted to make the request. If so, the front end server transmits a request to generate a digital signature to a back end server (101). The back end server determines one or more of whether the front end server is authentic and the designated key pair correspond to the requesting front end server. If so, the back end server generates the digital signature based on the information and the key pair(s).

Abstract: A multi-media device interface (18) couples a multi-media device (16) to a portable electronic device (10). Multi-media and other information can be loaded into the portable electronic device (10) from the multi-media device (16) or stored in the multi-media device (16) from the portable electronic device (10). The multi-media device interface (18) queues commands to the multi-media device (16) from the portable electronic device (10) while the multi-media device (16) completes a previously-issued command.

Abstract: A multi-media device interface (18) couples a multi-media device (1:6) to a portable electronic device (10). Multi-media and other information can be loaded into the portable electronic device (10) from the multi-media device (16) or stored in the multi-media device (16) from the portable electronic device (10). The multi-media device interface (18) queues commands to the multi-media device (16) from the portable electronic device (10) while the multi-media device (16) completes a previously-issued command.