mhurhangee/ep-ind-claims huggingface dataset:
An external device useable to transfer power or data to an implantable medical device, comprising: a printed circuit board having a front side and a back side, wherein the front side of the printed circuit board carries a user interface; a first coil formed in a first plane parallel to the printed circuit board and comprising a plurality of turns wrapped around a first axis perpendicular to the first plane, the first coil being wrapped in a racetrack configuration around the back of the printed circuit board; a second coil comprising a plurality of turns wrapped around a second axis, wherein the first axis is orthogonal to the second axis, and wherein the second coil is wrapped around a ferrite core and affixed to the printed circuit board; transmitter circuitry configured to produce a signal to drive the first and second coils (62a, 62b); and a battery; wherein the first and second coils (62a, 62b), the transmitter circuitry and the battery are located on the back side of the printed circuit board; and wherein the signal is phase shifted at one of the coils when compared to the other coil to produce a rotating magnetic field for transferring the power or data to the implantable medical device. a printed circuit board having a front side and a back side, wherein the front side of the printed circuit board carries a user interface; a first coil formed in a first plane parallel to the printed circuit board and comprising a plurality of turns wrapped around a first axis perpendicular to the first plane, the first coil being wrapped in a racetrack configuration around the back of the printed circuit board; a second coil comprising a plurality of turns wrapped around a second axis, wherein the first axis is orthogonal to the second axis, and wherein the second coil is wrapped around a ferrite core and affixed to the printed circuit board; transmitter circuitry configured to produce a signal to drive the first and second coils (62a, 62b); and a battery; wherein the first and second coils (62a, 62b), the transmitter circuitry and the battery are located on the back side of the printed circuit board; and wherein the signal is phase shifted at one of the coils when compared to the other coil to produce a rotating magnetic field for transferring the power or data to the implantable medical device.
A monitoring device with a safety sensor, which is designed for monitoring a protective field running in a plane in such a way that a safety function is triggered in the event of an object intrusion registered by the safety sensor in the protective field, and with an arrangement of muting sensors, wherein the safety sensor is at least partially bridged when a permissible object is detected by means of the muting sensors, characterised in that the muting sensors are formed by distance sensors which are arranged in the plane of the protective field and by means of which a region lying in the plane of the protective field is detected.
A structure for an aircraft, comprising: - a first structural member; - a second structural member coupled to the first structural member; - a fastener that couples the first structural member to the second structural member, the fastener being inserted into an insertion hole formed in a portion where the first structural member is overlapped with the second structural member, the fastener being in electrically non-contact with each of the first structural member and the second structural member in the insertion hole; and - a conductive object preventing a spark between the fastener and each of the first structural member and the second structural member by forming a current pathways that leads current, flowing inside the at least either one of the first structural member and the second structural member to the other structural member, characterised in that at least a part of the conductive object is embedded inside at least either one of the first structural member and the second structural member, wherein the conductive object consists of at least one of a pin and a bolt. - a first structural member; - a second structural member coupled to the first structural member; - a fastener that couples the first structural member to the second structural member, the fastener being inserted into an insertion hole formed in a portion where the first structural member is overlapped with the second structural member, the fastener being in electrically non-contact with each of the first structural member and the second structural member in the insertion hole; and - a conductive object preventing a spark between the fastener and each of the first structural member and the second structural member by forming a current pathways that leads current, flowing inside the at least either one of the first structural member and the second structural member to the other structural member,
Clutch bearing device comprising a bearing provided with an inner ring and with an outer ring, and a retaining sleeve coming into axial contact with one of the rings and provided with a body and a plurality of bended tabs extending radially outwards and circumferentially spaced apart, the device further comprising a washer axially interposed between said tabs and said ring, characterized in that, at least in a first group of the tabs of the retaining sleeve, each tab comprises a root portion issued from the body and provided with at least one region having reduced thickness relative to the thickness of the rest of said tab.
A valve member for adjusting fluid pressure in a bladder system of an article of footwear, comprising: a first fluid passage extending to a central bore; a second fluid passage extending to the central bore; a third fluid passage extending to the central bore; and a valve provided in the central bore, wherein the valve includes (a) a first orifice, (b) a second orifice, and (c) a central passage connecting the first orifice and the second orifice, wherein: in a first inflation position of the valve, the first orifice is in fluid communication with the first fluid passage and the second orifice is in fluid communication with the second fluid passage, and in a second inflation position of the valve, the first orifice is in fluid communication with the third fluid passage and the second orifice is in fluid communication with the first fluid passage. a first fluid passage extending to a central bore; a second fluid passage extending to the central bore; a third fluid passage extending to the central bore; and a valve provided in the central bore, wherein the valve includes (a) a first orifice, (b) a second orifice, and (c) a central passage connecting the first orifice and the second orifice, wherein: in a first inflation position of the valve, the first orifice is in fluid communication with the first fluid passage and the second orifice is in fluid communication with the second fluid passage, and in a second inflation position of the valve, the first orifice is in fluid communication with the third fluid passage and the second orifice is in fluid communication with the first fluid passage. in a first inflation position of the valve, the first orifice is in fluid communication with the first fluid passage and the second orifice is in fluid communication with the second fluid passage, and in a second inflation position of the valve, the first orifice is in fluid communication with the third fluid passage and the second orifice is in fluid communication with the first fluid passage.
A process for the production of a compound of formula wherein the process comprises as a first step (step) an ethynylation of the compound of formula wherein the reaction temperature is between - 40°C - 10°C, and as a second step (step) a Meyer-Schuster rearrangement and wherein the rearrangement (step) is carried out at a reaction temperature of 10°C to 50°C, and wherein step is carried out by a catalytic reaction step as following wherein R is K or Cs, in the presence of NH 3 as solvent and wherein the rearrangement (step) is carried out by using at least one transition metal-based catalyst.
Meter electronics for detecting a flow anomaly in a flow material flowing through a flow meter, the meter electronics comprising an interface for receiving a vibrational response of the flow material, wherein the vibrational response comprises at least a first sensor signal and a second sensor signal and a processing system in communication with the interface and arranged to receive the vibrational response from the interface; the meter electronics being characterized by comprising means for storing one or more anomaly profiles, and the processing system being configured to: generate a first ninety degree phase shifted signal from the first sensor signal and generate at least one flow characteristic using at least the first sensor signal and the first ninety degree phase shifted signal; compare the at least one flow characteristic to at least one of the stored anomaly profiles; and, if the at least one flow characteristic falls within one of the stored anomaly profiles, indicate an anomaly condition. generate a first ninety degree phase shifted signal from the first sensor signal and generate at least one flow characteristic using at least the first sensor signal and the first ninety degree phase shifted signal; compare the at least one flow characteristic to at least one of the stored anomaly profiles; and, if the at least one flow characteristic falls within one of the stored anomaly profiles, indicate an anomaly condition.
A method for presenting data related to a patient, the method comprising: receiving or extracting, by a processor, a plurality of modality-specific datasets (204, 304), a first modality-specific dataset of the plurality of modality-specific datasets (204, 304) having a first dimensionality and a second modality-specific dataset of the plurality of modality-specific datasets (204, 304) having a second dimensionality, the first dimensionality being different than the second dimensionality; generating, by the processor with a trained encoder (200, 300, 410), a first data signature for the first modality-specific dataset and a second data signature for the second modality-specific dataset, a dimensionality of the first data signature being less than the first dimensionality and a dimensionality of the second data signature being less than the second dimensionality, the dimensionality of the first data signature being the same as the dimensionality of the second data signature; generating, by the processor with the trained encoder (200, 300, 410), a joint data signature (202, 302, 409) based on the first data signature and the second data signature as inputs to the trained encoder (200, 300, 410); transmitting, by the processor, the joint data signature (202, 302, 409) to a computing device in communication with and remote from the processor; receiving, by the processor, the data related to the patient from the computing device in response to the transmitting of the joint data signature (202, 302, 409); and displaying a representation of the received data related to the patient. receiving or extracting, by a processor, a plurality of modality-specific datasets (204, 304), a first modality-specific dataset of the plurality of modality-specific datasets (204, 304) having a first dimensionality and a second modality-specific dataset of the plurality of modality-specific datasets (204, 304) having a second dimensionality, the first dimensionality being different than the second dimensionality; generating, by the processor with a trained encoder (200, 300, 410), a first data signature for the first modality-specific dataset and a second data signature for the second modality-specific dataset, a dimensionality of the first data signature being less than the first dimensionality and a dimensionality of the second data signature being less than the second dimensionality, the dimensionality of the first data signature being the same as the dimensionality of the second data signature; generating, by the processor with the trained encoder (200, 300, 410), a joint data signature (202, 302, 409) based on the first data signature and the second data signature as inputs to the trained encoder (200, 300, 410); transmitting, by the processor, the joint data signature (202, 302, 409) to a computing device in communication with and remote from the processor; receiving, by the processor, the data related to the patient from the computing device in response to the transmitting of the joint data signature (202, 302, 409); and displaying a representation of the received data related to the patient.
Satellite comprising a heat pipe for the thermal control of electronic equipments, said heat pipe being formed by a closed cavity containing a two-phase fluid, characterized in that the heat pipe comprises: - at least one heat exchange zone comprising a flat enclosure configured in the form of a volume of which one dimension is significantly smaller than the other two, typically at least ten times smaller, said flat enclosure having a first capillary structure, formed by a porous structure, over all or part of its inner surface, enabling the fluid in its liquid form to wet said first capillary structure, - at least one heat transport zone configured in the form of at least one tube, of circular cross section, having a second capillary structure over all or part of its inner face, - the second capillary structure is formed by grooves, - said flat enclosure and said at least one tube are connected such that vapour can circulate freely in all of the cavity, and such that a continuity of capillarity is ensured between the porous structure and the grooves such that the liquid can wet the entire capillary structure thus formed. - at least one heat exchange zone comprising a flat enclosure configured in the form of a volume of which one dimension is significantly smaller than the other two, typically at least ten times smaller, said flat enclosure having a first capillary structure, formed by a porous structure, over all or part of its inner surface, enabling the fluid in its liquid form to wet said first capillary structure, - at least one heat transport zone configured in the form of at least one tube, of circular cross section, having a second capillary structure over all or part of its inner face, - the second capillary structure is formed by grooves, - said flat enclosure and said at least one tube are connected such that vapour can circulate freely in all of the cavity, and such that a continuity of capillarity is ensured between the porous structure and the grooves such that the liquid can wet the entire capillary structure thus formed.
A system for imaging a dental aligner, the system comprising: an optical coherence tomography scanner; one or more processors; and memory coupled to the one or more processors, the memory configured to store computer-program instructions, that, when executed by the one or more processors, perform a computer-implemented method comprising: generating a three-dimensional model of a combined dental aligner and patient's teeth (303, 1021) from an OCT scan of the patient's teeth (1001, 1101) while the dental aligner is worn on the teeth, wherein both the dental aligner and the patient's teeth are scanned together; extracting an aligner outer surface, an aligner inner surface and a tooth surface from the 3D model; identifying one or more regions of contact between the dent aligner and the patient's teeth using the extracted aligner inner surface and the tooth surface from the 3D model; and displaying the one or more regions of contact. an optical coherence tomography scanner; one or more processors; and memory coupled to the one or more processors, the memory configured to store computer-program instructions, that, when executed by the one or more processors, perform a computer-implemented method comprising: generating a three-dimensional model of a combined dental aligner and patient's teeth (303, 1021) from an OCT scan of the patient's teeth (1001, 1101) while the dental aligner is worn on the teeth, wherein both the dental aligner and the patient's teeth are scanned together; extracting an aligner outer surface, an aligner inner surface and a tooth surface from the 3D model; identifying one or more regions of contact between the dent aligner and the patient's teeth using the extracted aligner inner surface and the tooth surface from the 3D model; and displaying the one or more regions of contact. generating a three-dimensional model of a combined dental aligner and patient's teeth (303, 1021) from an OCT scan of the patient's teeth (1001, 1101) while the dental aligner is worn on the teeth, wherein both the dental aligner and the patient's teeth are scanned together; extracting an aligner outer surface, an aligner inner surface and a tooth surface from the 3D model; identifying one or more regions of contact between the dent aligner and the patient's teeth using the extracted aligner inner surface and the tooth surface from the 3D model; and displaying the one or more regions of contact.
An open electrosurgical forceps for sealing tissue, comprising: a pair of first and second shaft members (12, 20) each having a jaw member (62, 64) disposed at a distal end thereof and a handle (15, 17) disposed at the proximal end thereof, said jaw members being movable from a first position in spaced relation relative to one another to at least one subsequent position wherein the jaw members (62, 64) cooperate to grasp tissue therebetween; each of said jaw members (62, 64) including an electrically conductive sealing plate (67, 68) for communicating electrosurgical energy through tissue held therebetween; at least one of said jaw members (62, 64) including a cutting slot defined along a length thereof, said cutting slot being dimensioned to reciprocate a cutting instrument therealong; and an actuator for selectively advancing the cutting instrument from a first position wherein said cutting instrument is disposed proximal to tissue held between said jaw members (62, 64) to at least one subsequent position wherein said cutting instrument is disposed distal to tissue held between said jaw members (62, 64), said actuator including a trigger assembly which cooperates with a pulley and cable system or a rack and pinion system to advance said cutting instrument from the first to second positions through tissue held therebetween, wherein said trigger assembly of said actuator is configured to be pulled proximally to distally advance said cutting instrument through said cutting slot. a pair of first and second shaft members (12, 20) each having a jaw member (62, 64) disposed at a distal end thereof and a handle (15, 17) disposed at the proximal end thereof, said jaw members being movable from a first position in spaced relation relative to one another to at least one subsequent position wherein the jaw members (62, 64) cooperate to grasp tissue therebetween; each of said jaw members (62, 64) including an electrically conductive sealing plate (67, 68) for communicating electrosurgical energy through tissue held therebetween; at least one of said jaw members (62, 64) including a cutting slot defined along a length thereof, said cutting slot being dimensioned to reciprocate a cutting instrument therealong; and an actuator for selectively advancing the cutting instrument from a first position wherein said cutting instrument is disposed proximal to tissue held between said jaw members (62, 64) to at least one subsequent position wherein said cutting instrument is disposed distal to tissue held between said jaw members (62, 64), said actuator including a trigger assembly which cooperates with a pulley and cable system or a rack and pinion system to advance said cutting instrument from the first to second positions through tissue held therebetween, wherein said trigger assembly of said actuator is configured to be pulled proximally to distally advance said cutting instrument through said cutting slot.
A controller (102, 202) for controlling a plurality of light sources, the controller (102, 202) comprising: - a plurality of microphones, - an orientation and/or a location sensor, - a receiver (106, 206) configured to receive a sound input from a plurality of microphones, the sound input being a user input from a user, - a localization module (108, 208) configured to determine a user location of the user relative to the plurality of microphones based on differences between the sound input received at different microphones of the plurality of microphones, and - a processor (110, 210) configured to receive location information indicative of locations of the plurality of light sources, receive an orientation signal indicative of an orientation of the controller (102, 202) from the orientation sensor and/or a location signal from the location sensor indicative of a location of the controller (102, 202), determine the locations of the plurality of light sources relative to the controller (102, 202) based on the orientation signal and/or the location signal, determine which one or more light sources of the plurality of light sources are associated with the user location based on the locations of the plurality of light sources relative to the controller (102, 202), and control the one or more light sources based on the sound input, wherein the plurality of light sources are distributed over a plurality of areas, and wherein the location information is indicative of in which areas the plurality of light sources are located, and wherein the localization module (108, 208) is configured to determine a user area wherein the user is located based on the user location, and wherein the processor (110, 210) is configured to determine which one or more light sources are located in the user area, and to control one or more light sources located in the user area based on the sound input. - a plurality of microphones, - an orientation and/or a location sensor, - a receiver (106, 206) configured to receive a sound input from a plurality of microphones, the sound input being a user input from a user, - a localization module (108, 208) configured to determine a user location of the user relative to the plurality of microphones based on differences between the sound input received at different microphones of the plurality of microphones, and - a processor (110, 210) configured to receive location information indicative of locations of the plurality of light sources, receive an orientation signal indicative of an orientation of the controller (102, 202) from the orientation sensor and/or a location signal from the location sensor indicative of a location of the controller (102, 202), determine the locations of the plurality of light sources relative to the controller (102, 202) based on the orientation signal and/or the location signal, determine which one or more light sources of the plurality of light sources are associated with the user location based on the locations of the plurality of light sources relative to the controller (102, 202), and control the one or more light sources based on the sound input,
A surface mountable condenser microphone comprising a diaphragm spaced by a spacer from a conductive capacitor layer, said conductive capacitor layer arranged on a surface of a back plate, wherein the back plate is realized by an isolating carrier; the back plate carries the conductive capacitor layer; and the back plate furthermore carries, isolated from the conductive capacitor layer on another surface area separated by air ventilation holes of the same side of the back plate, a spacer layer that forms the spacer, characterized in that the microphone comprises a fixation element with a circular area to hold the diaphragm between a first fixation ring and a second fixation ring of the fixation element to span the diaphragm over the spacer layer, and the circular area is arranged below the level of the spacer layer.