mhurhangee/ep-ind-claims huggingface dataset:
A medical system comprising: processing circuitry configured to: receive, via a sensing electrode located at a target region of a patient, a plurality of evoked compound action potential (ECAP) signals elicited from respective electrical stimuli delivered to the patient; characterized in that the processing circuitry is further configured to: determine, based on the plurality of ECAP signals, an aggressor category for at least some ECAP signals of the plurality of ECAP signals, the aggressor category determined from a plurality of aggressor categories; determine, based on the aggressor category, a set of control policy parameters that at least partially define closed-loop control of stimulation therapy; and control delivery of the stimulation therapy according to at least the set of control policy parameters and one or more subsequent ECAP signals. processing circuitry configured to: receive, via a sensing electrode located at a target region of a patient, a plurality of evoked compound action potential (ECAP) signals elicited from respective electrical stimuli delivered to the patient; characterized in that the processing circuitry is further configured to: determine, based on the plurality of ECAP signals, an aggressor category for at least some ECAP signals of the plurality of ECAP signals, the aggressor category determined from a plurality of aggressor categories; determine, based on the aggressor category, a set of control policy parameters that at least partially define closed-loop control of stimulation therapy; and control delivery of the stimulation therapy according to at least the set of control policy parameters and one or more subsequent ECAP signals. determine, based on the plurality of ECAP signals, an aggressor category for at least some ECAP signals of the plurality of ECAP signals, the aggressor category determined from a plurality of aggressor categories; determine, based on the aggressor category, a set of control policy parameters that at least partially define closed-loop control of stimulation therapy; and control delivery of the stimulation therapy according to at least the set of control policy parameters and one or more subsequent ECAP signals.
A pressure scanner assembly (200,300), characterised in that the pressure scanner assembly comprises: at least one replaceable sensor plate (205,305), wherein each of the replaceable sensor plates has a plurality of pressure sensors (210,310) each comprising a piezoresistive bridge and a fixed span resistor in series with the bridge that transmit a signal substantially indicative of a sensed pressure condition; a memory chip (215,315) disposed on each of the replaceable sensor plates, wherein the memory chip stores correction coefficients for each of the pressure sensors on the corresponding replaceable sensor plate; and at least one multiplexer disposed on each of the replaceable sensor plates (205,305), wherein each of the multiplexers receive the signals indicative of the sensed pressure condition from each of the pressure sensors (210,310) on the corresponding replaceable sensor plate and transmits a final output, wherein a temperature of each pressure sensor (210,310) is measured by configuring each of the multiplexers to measure common mode voltages of each sensor, and wherein the multiplexers are configured to have a separate input that allows for measurements of each side of the piezoresistive bridge and the temperature data along with the correction coefficients stored in the memory are used to calculate the pressure over an entire temperature range. at least one replaceable sensor plate (205,305), wherein each of the replaceable sensor plates has a plurality of pressure sensors (210,310) each comprising a piezoresistive bridge and a fixed span resistor in series with the bridge that transmit a signal substantially indicative of a sensed pressure condition; a memory chip (215,315) disposed on each of the replaceable sensor plates, wherein the memory chip stores correction coefficients for each of the pressure sensors on the corresponding replaceable sensor plate; and at least one multiplexer disposed on each of the replaceable sensor plates (205,305), wherein each of the multiplexers receive the signals indicative of the sensed pressure condition from each of the pressure sensors (210,310) on the corresponding replaceable sensor plate and transmits a final output, wherein a temperature of each pressure sensor (210,310) is measured by configuring each of the multiplexers to measure common mode voltages of each sensor, and wherein the multiplexers are configured to have a separate input that allows for measurements of each side of the piezoresistive bridge and the temperature data along with the correction coefficients stored in the memory are used to calculate the pressure over an entire temperature range.
A curable adhesive composition, wherein the composition is a two-component composition comprising: an adhesive component comprising: (i) an aliphatic glycidyl ether; (ii) an aromatic glycidyl ether and optionally a cycloaliphatic epoxy; and (iii) a silane reducing agent; and a catalyst component comprising: (iv) a Group 9 or Group 10 noble metal catalyst, wherein the adhesive component and/or the catalyst component further comprises an initiator. an adhesive component comprising: (i) an aliphatic glycidyl ether; (ii) an aromatic glycidyl ether and optionally a cycloaliphatic epoxy; and (iii) a silane reducing agent; and (i) an aliphatic glycidyl ether; (ii) an aromatic glycidyl ether and optionally a cycloaliphatic epoxy; and (iii) a silane reducing agent; and a catalyst component comprising: (iv) a Group 9 or Group 10 noble metal catalyst,
A guidance system for assisting with the insertion of a needle or other medical component into the body of a patient, wherein the guidance system utilizes imaging technology, the system comprising an imaging device including a probe for producing an image of an internal body portion target to be used in the imaging technology, the probe including one or more sensors, wherein the one or more sensors are configured to sense a detectable characteristic of the needle or the other medical component, the needle or other medical component comprising the detectable characteristic, and the detectable characteristic of the needle or other medical component being a magnetic field of at least one magnetic element of the needle or other medical component.
A film comprising at least one layer A) and at least one layer B), wherein the layer A) comprises a copolymer (i) of propylene with hexene-1 containing from 3 to 9% by weight, preferably from 5 to 9% by weight, more preferably from 6 to 9% by weight, in particular from 6.5 to 9% by weight, of recurring units derived from hexene-1, said copolymer having a melting temperature from 125°C to 143°C, preferably from 128°C to 143°C as determined by differential scanning calorimetry according to ISO 11357-3, with a heating rate of 20°C/min, and the layer B) comprises a polyolefin composition (ii) containing (all percentages being by weight): a) 10-40%, preferably 20-40%, more preferably 25-38%, of one or more propylene polymers selected from propylene homopolymers, copolymers of propylene with ethylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, and copolymers of propylene with ethylene and said CH 2 =CHR α-olefin, said copolymers containing over 85% of propylene and having a fraction insoluble in xylene at room temperature greater than 80%; and b) 60-90%, preferably 60-80%, more preferably 62-75%, of one or more copolymers of ethylene with propylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, or a combination thereof, and optionally minor quantities of a diene ranging from 1 to 10% by weight, said copolymers containing ethylene in a quantity from 20 to 40%, preferably from 20 to 38%, and having solubility in xylene at room temperature greater than 70%, preferably greater than 80%; the amounts of (a) and (b) being referred to the total weight of (a) and (b). a) 10-40%, preferably 20-40%, more preferably 25-38%, of one or more propylene polymers selected from propylene homopolymers, copolymers of propylene with ethylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, and copolymers of propylene with ethylene and said CH 2 =CHR α-olefin, said copolymers containing over 85% of propylene and having a fraction insoluble in xylene at room temperature greater than 80%; and b) 60-90%, preferably 60-80%, more preferably 62-75%, of one or more copolymers of ethylene with propylene or a CH 2 =CHR α-olefin, where R is a C 2 -C 8 alkyl radical, or a combination thereof, and optionally minor quantities of a diene ranging from 1 to 10% by weight, said copolymers containing ethylene in a quantity from 20 to 40%, preferably from 20 to 38%, and having solubility in xylene at room temperature greater than 70%, preferably greater than 80%;
A connector for an electrical line having a base body, which has two end faces (202, 203) and several main surfaces (204, 205), wherein in a first end face a through-opening is provided for the electrical line, wherein in the base body a contact receiving chamber is connected to the through-opening, which is arranged between the through-opening and a spring receiving chamber, in which an elastic spring means is received, wherein the through-opening has a smaller diameter than the contact receiving chamber, so that there is a step at a transition between the through-opening and the contact receiving chamber, and wherein a projection or several projections is/are arranged in the contact receiving chamber adjacent to the step, characterized in that in a first main surface an opening is provided, which extends in the region of the through-opening and the contact receiving chamber and that the opening in the region through-opening has a first width and that the opening in a region of the contact receiving chamber, which is adjacent to the through-opening, has the same width as in the region of the through-opening, wherein the first width corresponds to the diameter of the through-opening, and that the width of the opening in the remaining region of the contact receiving chamber increases to a width, which substantially corresponds to the diameter of the contact receiving chamber.
Wallet or wallet with a tag/tracker, having at least one outer side which is made of leather and has a wall thickness, characterised in that a cutout with a receiving pocket for the tag/tracker is provided in the outer side, wherein the tag/tracker is integrated in a releasable and captive manner directly into the cutout of the outer side so as to be directly visible.
An input assembly for a terminal, comprising: a fingerprint identification structure; and a decoration enclosure coupled to the fingerprint identification structure and configured to decorate the fingerprint identification structure, the decoration enclosure comprising: a decoration ring; and a support rim extending inwards from an inner wall of the decoration ring and supporting the fingerprint identification structure, wherein the fingerprint identification structure is configured as a fingerprint chip package structure, and the fingerprint chip package structure comprises: a package body comprising a first package portion received in a hole defined in the support rim and a second package portion coupled to the first package portion and supported on the support rim; and a fingerprint identification chip packaged in the second package portion. a fingerprint identification structure; and a decoration enclosure coupled to the fingerprint identification structure and configured to decorate the fingerprint identification structure, the decoration enclosure comprising: a decoration ring; and a support rim extending inwards from an inner wall of the decoration ring and supporting the fingerprint identification structure, a decoration ring; and a support rim extending inwards from an inner wall of the decoration ring and supporting the fingerprint identification structure, wherein the fingerprint identification structure is configured as a fingerprint chip package structure, and the fingerprint chip package structure comprises: a package body comprising a first package portion received in a hole defined in the support rim and a second package portion coupled to the first package portion and supported on the support rim; and a fingerprint identification chip packaged in the second package portion. a package body comprising a first package portion received in a hole defined in the support rim and a second package portion coupled to the first package portion and supported on the support rim; and a fingerprint identification chip packaged in the second package portion.
A wireless communication station (AP 1, AP 2, AP 3, AP 4, STA-1, STA-2, STA-3) configured to transmit and receive a frame using a predetermined channel by access control based on carrier sense multiple access with collision avoidance, CSMA/CA, using a clear channel assessment threshold, CCA threshold, considering an interference power from an interfering station (14, 15) which uses the predetermined channel, wherein: a format that includes an identification of a basic service set, BSS, which the wireless communication station (AP 1, AP 2, AP 3, AP 4, STA-1, STA-2, STA-3) belongs to, within a preamble of the frame is an HE format; the wireless communication station (AP 1, AP 2, AP 3, AP 4, STA-1, STA-2, STA-3) comprises a control part configured to check a format of a frame received at a predetermined receiver sensitivity or above, hereinafter referred to as a received frame, and to continue demodulation of the received frame if the format is HE format and the identification of BSS in the received frame is consistent with its own BSS; and the control part is configured to perform carrier sense with a predetermined CCA threshold for the HE format if the received frame is in the HE format and the identification of BSS of the received frame is not consistent with its own BSS, to stop demodulation of the received frame to transmit a frame if the predetermined channel is idle; and to stop demodulation of the received frame to receive a frame if the predetermined channel is busy. a format that includes an identification of a basic service set, BSS, which the wireless communication station (AP 1, AP 2, AP 3, AP 4, STA-1, STA-2, STA-3) belongs to, within a preamble of the frame is an HE format; the wireless communication station (AP 1, AP 2, AP 3, AP 4, STA-1, STA-2, STA-3) comprises a control part configured to check a format of a frame received at a predetermined receiver sensitivity or above, hereinafter referred to as a received frame, and to continue demodulation of the received frame if the format is HE format and the identification of BSS in the received frame is consistent with its own BSS; and the control part is configured to perform carrier sense with a predetermined CCA threshold for the HE format if the received frame is in the HE format and the identification of BSS of the received frame is not consistent with its own BSS, to stop demodulation of the received frame to transmit a frame if the predetermined channel is idle; and to stop demodulation of the received frame to receive a frame if the predetermined channel is busy. to stop demodulation of the received frame to transmit a frame if the predetermined channel is idle; and to stop demodulation of the received frame to receive a frame if the predetermined channel is busy.
A methacrylic resin composition comprising 10 to 99 parts by mass of a methacrylic resin containing not less than 80 mass% of a methyl methacrylate unit and 90 to 1 part by mass of a block copolymer containing 10 to 60 mass% of a methyl methacrylate polymer block and 90 to 40 mass% of an acrylate polymer block and having a refractive index of 1.485 to 1.495, the total of and being 100 parts by mass, wherein the acrylate polymer block is a copolymer block composed of 50 to 90 mass% of an alkyl acrylate and 50 to 10 mass% of an aromatic (meth)acrylate.
A measurement device for downhole spectroscopy of a flow sample, the measurement device being deployable downhole and comprising a flow body, a source assembly (100, 610) and a detector assembly disposed on the flow body, the flow body having a flow line configured to conduct the flow sample therethrough, the source assembly comprising: a plurality of individual light emitting diode, LED, sources (210, 620) configured to generate optical signals across a spectral range of wavelengths, and; a routing assembly (200, 500, 610) disposed between the individual LED sources and the flow line, the routing assembly (200, 500, 610) having a plurality of spectral filters and optical elements (216, 260, 264, 266, 520, 530, 630, 640, 645, 650), the routing assembly (200, 500, 610) configured to (i) spectrally filter the generated signals of the LED sources (210, 620), (ii) concurrently combine the spectrally filtered signals through free space into a common optical beam, and (iii) concurrently route the common optical beam through free space into a reference channel and one or more measurement channels, the one or more measurement channels being configured to interact with the flow sample passing through the flow line before passing to the detector assembly; and control circuitry electrically coupled to the LED sources (210, 620) and operable to electronically modulate each of the LED sources (210, 620) at an independent frequency, the detector assembly including a detection system configured to determine amplitude measurements of the reference channel, the detector system being configured to communicate the amplitude measurements to the control circuitry, the control circuitry being operable to use the amplitude measurements as feedback to control the LED sources. a plurality of individual light emitting diode, LED, sources (210, 620) configured to generate optical signals across a spectral range of wavelengths, and; a routing assembly (200, 500, 610) disposed between the individual LED sources and the flow line, the routing assembly (200, 500, 610) having a plurality of spectral filters and optical elements (216, 260, 264, 266, 520, 530, 630, 640, 645, 650), the routing assembly (200, 500, 610) configured to (i) spectrally filter the generated signals of the LED sources (210, 620), (ii) concurrently combine the spectrally filtered signals through free space into a common optical beam, and (iii) concurrently route the common optical beam through free space into a reference channel and one or more measurement channels, the one or more measurement channels being configured to interact with the flow sample passing through the flow line before passing to the detector assembly; and control circuitry electrically coupled to the LED sources (210, 620) and operable to electronically modulate each of the LED sources (210, 620) at an independent frequency,
Protection device for a vehicle interior compartment, comprising a flexible planar structure which is displaceable between a rest position and a protective position, and which, on a face end region, is provided with a dimensionally stable guiding profile (9, 9a, 9b), which profile is guided in vehicle-fixed guiding tracks on opposite face sides thereof, wherein each face side of the guiding profile (9, 9a, 9b) is associated with a coupling member which is in operative connection with an entrainer (12, 12a, 12b) guided in the respective guiding track by means of a retaining device acting in a force-limited manner, wherein the entrainers (12, 12a, 12b) are shiftable in mutual synchronization within the guiding tracks by means of a drive system, characterized in that the coupling members are in operative connection to the entrainers (12, 12a, 12b) eccentrically offset in relation to a central longitudinal axis of the guiding profile (9, 9a, 9b), and in that the coupling members are detachable from the entrainers (12, 12a, 12b) in response to external strains of the guiding profile (9, 9a, 9b) in directional components which are orthogonal in relation to a plane of deployment of the planar structure.
A training adapter system for a defibrillator comprising: a pair of patient electrodes; a connector disposed for electrical connection with the defibrillator; an ECG simulator; and a defibrillation energy shunt resistor characterized in that the training adapter system further comprises: a detector operable to detect the proper placement of the patient electrode pair on a simulated patient (i) by sensing an impedance change caused by the patient electrodes placed across a conductive strip installed on the simulated patient, (ii) by magnetic sensors installed in the simulated patient, or (iii) by an input by button or remote control; and a controller configured to electrically connect the connector with the ECG simulator and the shunt resistor in response to a signal from the detector. a pair of patient electrodes; a connector disposed for electrical connection with the defibrillator; an ECG simulator; and a defibrillation energy shunt resistor characterized in that the training adapter system further comprises: a detector operable to detect the proper placement of the patient electrode pair on a simulated patient (i) by sensing an impedance change caused by the patient electrodes placed across a conductive strip installed on the simulated patient, (ii) by magnetic sensors installed in the simulated patient, or (iii) by an input by button or remote control; and a controller configured to electrically connect the connector with the ECG simulator and the shunt resistor in response to a signal from the detector. a detector operable to detect the proper placement of the patient electrode pair on a simulated patient (i) by sensing an impedance change caused by the patient electrodes placed across a conductive strip installed on the simulated patient, (ii) by magnetic sensors installed in the simulated patient, or (iii) by an input by button or remote control; and a controller configured to electrically connect the connector with the ECG simulator and the shunt resistor in response to a signal from the detector.
A medical device system for treating a cancerous tumor comprising: one or more implantable electric field generating electrodes; and an electric field shaping element configured to be implanted along with the one or more electric field generating electrodes, the electric field shaping element comprising a material that alters the spatial area of tissue exposed to the electric field, wherein the electric field shaping element is configured to be positioned between a cancerous tumor and an adjacent non-cancerous tissue or between an adjacent non-cancerous tissue and the one or more electric field generating electrodes. one or more implantable electric field generating electrodes; and an electric field shaping element configured to be implanted along with the one or more electric field generating electrodes, the electric field shaping element comprising a material that alters the spatial area of tissue exposed to the electric field,
A security device comprising at least two luminescent elementary patterns (4, 5; 16, 17; 19, 20) produced on a document so as to react to mutually differing excitations, the elementary patterns being arranged with respect to one another so as to produce an animated global pattern when the security device is subjected in an alternating and/or simultaneous manner to the different excitations, the elementary patterns being produced on one and the same face of the document, the elementary patterns (4, 5; 16, 17) reacting to excitations of mutually different wavelengths (λ1, λ2), being characterized in that the document comprises a transparent window, the elementary patterns (4, 5) are arranged on one and the same face of the transparent window, at least one of the elementary patterns being covered with a filtering varnish in respect of the wavelength of excitation of the elementary pattern covered with said varnish.