Abstract: A stimulation system designed to be implanted in a person and including several distributed elements connected by a wire bus comprising an energy wire, a data wire and a reference wire.

Abstract: An active implantable medical device including, once implanted, a module external to the patient and a module inside the patient, the external module and the internal module being intended to transfer energy and data from one to the other. Also, a method for transferring energy and data, the method being implemented by the active implantable medical device.

Abstract: A current switcher including: a positive supply bus and a negative supply bus; a floating-output current amplifier configured to make flow, as an output, an intermediate current dependent on a flowing setpoint current implied as an input; at least one anodic reference dipole connected between the positive supply bus and the floating-output current amplifier; at least one cathodic reference dipole connected between the floating-output current amplifier and the negative supply bus; and at least two stimulation bridges, each stimulation bridge including an anodic current source and a cathodic current source each configured to copy the intermediate current.

Abstract: A neural stimulation device configured to apply neural activations including at least two interleaved sequences of current pulses, and a neurostimulation method. The device includes at least one neural electrode including at least two electrical contacts and intended to be implanted on at least one nerve; a current pulse generator connected to the at least one neural electrode via a current distributor; a storage element configured to contain a library of sequences, each sequence including a time series of current pulses associated with a configuration of electrical contacts; and a sequencer configured to apply neural activation to the at least one neural electrode, the neural activation including at least two interleaved sequences.

Abstract: The present invention relates to compounds of formula (I) AA1-AA2-D-Ile-AA3-D-Met-D-Tyr-D-Ala-D-Tyr-D-Val-D- Ala-Gly-D-Ile-D-Leu-D-Lys-D-Arg-D-Trp-NH2 (I) or a pharmaceutically acceptable salts thereof, to processes for their obtention and to their therapeutic indications.

Abstract: An active implantable medical device including, once implanted, a module external to the patient and a module inside the patient, the external module and the internal module being intended to transfer energy and data from one to the other. Also, a method for transferring energy and data, the method being implemented by the active implantable medical device.

Abstract: A novel antimicrobial peptide is provided having an inhibitory effect on biofilms produced by biofilm-forming bacteria. The peptide is effective against wide range bacterial targets; generates no antimicrobial resistance; agglutinates bacteria cells enhancing the pathogen removal at the infectious focus; promotes biofilm eradication and prevents biofilm development. Compositions comprising the peptide are provided to treat and prevent infectious diseases, and for other uses such as the disinfection of medical and surgical materials.

Abstract: A novel antimicrobial peptide is provided having an inhibitory effect on biofilms produced by biofilm-forming bacteria. The peptide is effective against wide range bacterial targets; generates no antimicrobial resistance; agglutinates bacteria cells enhancing the pathogen removal at the infectious focus; promotes biofilm eradication and prevents biofilm development. Compositions comprising the peptide are provided to treat and prevent infectious diseases, and for other uses such as the disinfection of medical and surgical materials.

Abstract: A device includes a pulse generator coupled to a neurostimulation lead placed around the nerve and a set of electrodes individually connected to the generator by a splitter circuit controlled to preferentially stimulate certain regions of the nerve relative to other regions. The device performing an iterative search of an optimal configuration operating by selection of a plurality of different stimulation configurations, storing of a cardiac physiological parameter measured for each selected stimulation configuration, and designation as optimal stimulation configuration of the one of said selected different stimulation configurations, depending on at least the stored values of the physiological parameter measured for different electrode configurations.

Abstract: A method for stimulating vagal neurons as demonstrated by generation of action potentials on these same neurons, wherein electrical pulse trains are periodically applied to electrodes implanted on the anterior and posterior vagus nerve at an entrance of a diaphragm, wherein each electrical pulse train is formed by a plurality of monophasic pulses having a frequency of at least 13.0 kHz.

Abstract: A device includes a pulse generator coupled to a neurostimulation lead placed around the nerve and a set of electrodes individually connected to the generator by a splitter circuit controlled to preferentially stimulate certain regions of the nerve relative to other regions. The device performing an iterative search of an optimal configuration operating by selection of a plurality of different stimulation configurations, storing of a cardiac physiological parameter measured for each selected stimulation configuration, and designation as optimal stimulation configuration of the one of said selected different stimulation configurations, depending on at least the stored values of the physiological parameter measured for different electrode configurations.

Abstract: A device includes a pulse generator coupled to a neurostimulation lead placed around the nerve and a set of electrodes individually connected to the generator by a splitter circuit controlled to preferentially stimulate certain regions of the nerve relative to other regions. The device performing an iterative search of an optimal configuration operating by selection of a plurality of different stimulation configurations, storing of a cardiac physiological parameter measured for each selected stimulation configuration, and designation as optimal stimulation configuration of the one of said selected different stimulation configurations, depending on at least the stored values of the physiological parameter measured for different electrode configurations.

Abstract: A device includes a pulse generator coupled to a neurostimulation lead placed around the nerve and a set of electrodes individually connected to the generator by a splitter circuit controlled to preferentially stimulate certain regions of the nerve relative to other regions. The device performing an iterative search of an optimal configuration operating by selection of a plurality of different stimulation configurations, storing of a cardiac physiological parameter measured for each selected stimulation configuration, and designation as optimal stimulation configuration of the one of said selected different stimulation configurations, depending on at least the stored values of the physiological parameter measured for different electrode configurations.

Abstract: A system and method for wirelessly testing integrated circuits provides a multiple layer interface to wirelessly test integrated circuits. A wireless testing structure for an integrated circuit comprises a wireless transceiver and a wireless test interface. The wireless transceiver is configured to receive test information from a tester and transmit test result information to the tester. The wireless test interface is configured to interface between the wireless transceiver and the integrated circuit. The wireless test interface comprises a media access controller and a test control block. The media access controller is configured to implement a media access control protocol for wireless communication. The test control block is configured to decode test information received from the tester, to trigger a test of the integrated circuit in response to the decoded test information, and to encode test result information that is generated by the integrated circuit in response to the test.

Abstract: A control device implantable in a human body—includes a control unit and at least one electrode, said control unit being connected to each electrode to control stimulation and/or measurement thereof. The control unit includes: a timing dock; a memory storing configuration data defined to enable configuration of each electrode correlated with identifiers; a memory storing program data describing a time profile correlated with identifiers; an executor activatable to send each electrode electric pulses corresponding to a predetermined program according to a predetermined electrode configuration, according to the clock; a sequencer arranged to receive an ordered plurality of pairs, each including an electrode configuration identifier and a program identifier, and selectively to activate the executor with the electrode and program configuration pairs denoted by the pairs of identifiers received as an input, according to the order thereof and the clock.

Abstract: A control device implantable in a human body—includes a control unit and at least one electrode, said control unit being connected to each electrode to control stimulation and/or measurement thereof. The control unit includes: a timing dock; a memory storing configuration data defined to enable configuration of each electrode correlated with identifiers; a memory storing program data describing a time profile correlated with identifiers; an executor activatable to send each electrode electric pulses corresponding to a predetermined program according to a predetermined electrode configuration, according to the clock; a sequencer arranged to receive an ordered plurality of pairs, each including an electrode configuration identifier and a program identifier, and selectively to activate the executor with the electrode and program configuration pairs denoted by the pairs of identifiers received as an input, according to the order thereof and the clock.

Abstract: A system and method for wirelessly testing integrated circuits provides a multiple layer interface to wirelessly test integrated circuits. A wireless testing structure for an integrated circuit comprises a wireless transceiver and a wireless test interface. The wireless transceiver is configured to receive test information from a tester and transmit test result information to the tester. The wireless test interface is configured to interface between the wireless transceiver and the integrated circuit. The wireless test interface comprises a media access controller and a test control block. The media access controller is configured to implement a media access control protocol for wireless communication. The test control block is configured to decode test information received from the tester, to trigger a test of the integrated circuit in response to the decoded test information, and to encode test result information that is generated by the integrated circuit in response to the test.

Abstract: A device (ES) for distributing power between n cathodes (Ki) of at least one multipolar stimulating electrode (EM) comprises at least one anode (A), wherein n is equal to or greater than two. Said device (ES) comprises a reconfigurable current mirror (MC) which is provided with n outputs (K?i) connectable to said n cathodes (Ki), respectively and supplies to the n (K?i) outputs n complementary fractions of a control current having respective selected values which are substantially constant at the control current amplitude variation in order to carry out a substantially constant spatial location of stimulation.

Abstract: A device (ES) for distributing power between n cathodes (Ki) of at least one multipolar stimulating electrode (EM) comprises at least one anode (A), wherein n is equal to or greater than two. Said device (ES) comprises a reconfigurable current mirror (MC) which is provided with n outputs (K?i) connectable to said n cathodes (Ki), respectively and supplies to the n (K?i) outputs n complementary fractions of a control current having respective selected values which are substantially constant at the control current amplitude variation in order to carry out a substantially constant spatial location of stimulation.

Abstract: A procedure for obtaining carbocalcitonin comprising the condensation of fragment 1, a docosapeptide corresponding to the carboxamide end of the carbocalcitonin sequence, conveniently protected and anchored on resin, with fragment 2 or 3, a nonapeptide corresponding to the amino end of the salmon calcitonin sequence, with a ready-formed cycle between the Asu and Ser residua, and the treatment of the complete peptide skeleton (fragment 6 or 7) with an acid to free the totally deprotected peptide from the resin.