mhurhangee/patent-ind-claim-en huggingface dataset:
A component arrangement for producing a welded joint in a joining zone , with a first thermoplastic component and at least a second thermoplastic component and a resistance element with a conductive path structure formed on a thermoplastic plastics film , which structure has at least one heating portion and connection portions , wherein the heating portion can be heated by introducing electrical energy, so that surrounding plastics material can be melted, wherein the resistance element, at least with its heating portion , is arranged in the joining zone between the components, characterised in that the thermoplastic film has a higher melting point than the thermoplastic materials of the components (100; 110).
Volume flow regulator assembly comprising a volume flow regulator configured to be built into a ventilation line, the volume flow regulator having a tubular casing , a throttle member that is movably arranged in the casing, and an actuator mounted on the outside of the casing for adjusting the throttle member, characterized by a connector box having an access opening that is exposed in an installed condition of the assembly, and by an adapter sleeve having a receiving section in which the volume flow regulator is slidably accommodated, the adapter sleeve further having a connector section axially adjacent to the receiving section and adapted to be connected to a socket of the connector box, wherein the internal diameter of the connector section and the internal diameter of the socket as well as the width of the access opening in the direction transverse to the axis of the socket are larger than the external diameter of the casing of the volume flow regulator.
Device for producing a three-dimensional shaped metal body comprising a base plate, the height of which can be adjusted relative to a carriage , a carriage guide, a carriage which runs in this carriage guide and traverses the base plate and has at least one material chamber for discharging metal powder above the base plate, and at least one laser element for melting discharged metal powder point-by-point, wherein the carriage has, in an alternating sequence in the direction of movement of the carriage , a laser element and a material chamber alternating in each case, wherein the at least one laser element is formed by a plurality of lasers, by means of which points below the carriage can be irradiated over the entire width of the carriage, and a material chamber or a material chamber arrangement made of a plurality of material chambers extends over the entire width of the carriage and has one or more discharge openings for discharging the metal powder stored in the material chamber or chambers below the entire width of the carriage .
A neurological lead , comprising: a planar formed, cylindrical film coupled with an external tube, the planar formed, cylindrical film comprising: a first polymeric layer ; a first silicon based barrier layer at least partially disposed over the first polymeric layer; a first metal layer at least partially disposed over the first silicon based barrier layer, the first metal layer comprising: a plurality of electrodes each electrode of the plurality of electrodes having rounded corners, and a plurality of periphery traces , each periphery trace of the plurality of periphery traces at least partially encircling a perimeter of a corresponding electrode of the plurality of electrodes and electrically coupled with the corresponding electrode via at least two connection points ; a second silicon based barrier layer at least partially disposed over the first metal layer; and a second polymeric layer at least partially disposed over the second silicon based barrier layer. a first polymeric layer ; a first silicon based barrier layer at least partially disposed over the first polymeric layer; a first metal layer at least partially disposed over the first silicon based barrier layer, the first metal layer comprising: a plurality of electrodes each electrode of the plurality of electrodes having rounded corners, and a plurality of periphery traces , each periphery trace of the plurality of periphery traces at least partially encircling a perimeter of a corresponding electrode of the plurality of electrodes and electrically coupled with the corresponding electrode via at least two connection points ; a plurality of electrodes each electrode of the plurality of electrodes having rounded corners, and a plurality of periphery traces , each periphery trace of the plurality of periphery traces at least partially encircling a perimeter of a corresponding electrode of the plurality of electrodes and electrically coupled with the corresponding electrode via at least two connection points ; a second silicon based barrier layer at least partially disposed over the first metal layer; and a second polymeric layer at least partially disposed over the second silicon based barrier layer.
An apparatus, comprising: a flexible catheter adapted for insertion into a heart of a living subject and having a distal segment (37; 53); an ablation electrode disposed at the distal segment to be brought into contact with a target tissue in the heart; the ablation electrode having an external surface , and a cavity (41; 43) formed in the external surface; a microelectrode (45; 47; 61) configured to fit into the cavity; a conductive wire lead connecting the microelectrode to receiving circuitry; and an electrical shield (51; 71) surrounding the wire lead, wherein the electrical shield provides an envelope with potential equal to the potential of the ablation electrode. a flexible catheter adapted for insertion into a heart of a living subject and having a distal segment (37; 53); an ablation electrode disposed at the distal segment to be brought into contact with a target tissue in the heart; the ablation electrode having an external surface , and a cavity (41; 43) formed in the external surface; a microelectrode (45; 47; 61) configured to fit into the cavity; a conductive wire lead connecting the microelectrode to receiving circuitry; and an electrical shield (51; 71) surrounding the wire lead, wherein the electrical shield provides an envelope with potential equal to the potential of the ablation electrode.
A device for assessing in real time the hypnotic and analgesic effect in a subject during wakefulness, sedation and general anesthesia, comprising at least one processor and at least one computer readable medium coupled to the processor, said at least one computer readable medium comprises operations executed by said at least one processor, said operations are: a. receiving electroencephalography (EEG) data; b. receiving a second set of data on the state of brain function from a brain impedance tomography device; c. receiving drug interaction data of drug infused in said subject; d. defining an initial index of nociception (qNOX) as a function of said EEG data and said second set of data; e. providing final index of nociception (qNOX'); wherein said processor is configured to calculate said index of nociception (qNOX(')) in real time using established mathematical manipulation from input of said EEG data and said drug interaction data. a. receiving electroencephalography (EEG) data; b. receiving a second set of data on the state of brain function from a brain impedance tomography device; c. receiving drug interaction data of drug infused in said subject; d. defining an initial index of nociception (qNOX) as a function of said EEG data and said second set of data; e. providing final index of nociception (qNOX');
An evolved NodeB, eNB, for requesting feedback from a packet data convergence protocol, PDCP, receiver, comprising: radio frequency, RF, circuitry; and baseband circuitry, coupled with the RF circuitry, to: identify a packet data unit, PDU, to be transmitted to the PDCP receiver, the PDCP receiver to aggregate a first group of PDUs transmitted via a long term evolution, LTE, link and a second group of PDUs transmitted via a wireless local area network, WLAN, link; embed, within the PDU, a poll request for a status of aggregation by the PDCP receiver; and cause the RF circuitry to transmit the PDU embedded with the poll request to the PDCP receiver, wherein the RF circuitry is to receive a transmission from the PDCP receiver that includes information related to the status of aggregation of the PDUs communicated across the LTE link and the WLAN link, the information including an indication of a sequence number associated with a lower edge of an ordering window of the PDCP receiver; the baseband circuitry is to: identify a PDU associated with the sequence number; and cause the RF circuitry to transmit the PDU associated with the sequence number to the PDCP receiver in response to the reception of the transmission from the PDCP receiver. radio frequency, RF, circuitry; and baseband circuitry, coupled with the RF circuitry, to: identify a packet data unit, PDU, to be transmitted to the PDCP receiver, the PDCP receiver to aggregate a first group of PDUs transmitted via a long term evolution, LTE, link and a second group of PDUs transmitted via a wireless local area network, WLAN, link; embed, within the PDU, a poll request for a status of aggregation by the PDCP receiver; and cause the RF circuitry to transmit the PDU embedded with the poll request to the PDCP receiver, wherein identify a packet data unit, PDU, to be transmitted to the PDCP receiver, the PDCP receiver to aggregate a first group of PDUs transmitted via a long term evolution, LTE, link and a second group of PDUs transmitted via a wireless local area network, WLAN, link; embed, within the PDU, a poll request for a status of aggregation by the PDCP receiver; and cause the RF circuitry to transmit the PDU embedded with the poll request to the PDCP receiver, wherein the RF circuitry is to receive a transmission from the PDCP receiver that includes information related to the status of aggregation of the PDUs communicated across the LTE link and the WLAN link, the information including an indication of a sequence number associated with a lower edge of an ordering window of the PDCP receiver; the baseband circuitry is to: identify a PDU associated with the sequence number; and cause the RF circuitry to transmit the PDU associated with the sequence number to the PDCP receiver in response to the reception of the transmission from the PDCP receiver. identify a PDU associated with the sequence number; and cause the RF circuitry to transmit the PDU associated with the sequence number to the PDCP receiver in response to the reception of the transmission from the PDCP receiver.
An apparatus for manufacturing a curved display panel, wherein the apparatus comprises: a carrying machine configured to carry a curved cover ; a flexible bag configured to fasten a flexible display device which is to be attached to the curved cover , wherein the flexible display device is disposed below the flexible bag in a vertical direction; and a supporting machine configured to fasten the flexible bag , wherein the flexible bag is disposed below the supporting machine in the vertical direction; characterised in that an infusion equipment configured to infuse a liquid substance into the flexible bag when at least one portion of the flexible display device is located above the curved cover in the vertical direction, such that the flexible display device is attached to a central area and a bending area of an inner surface of the curved cover under a pressure applied by the liquid substance , and the pressure corresponds to a gravity of the liquid substance . a carrying machine configured to carry a curved cover ; a flexible bag configured to fasten a flexible display device which is to be attached to the curved cover , wherein the flexible display device is disposed below the flexible bag in a vertical direction; and a supporting machine configured to fasten the flexible bag , wherein the flexible bag is disposed below the supporting machine in the vertical direction; characterised in that an infusion equipment configured to infuse a liquid substance into the flexible bag when at least one portion of the flexible display device is located above the curved cover in the vertical direction, such that the flexible display device is attached to a central area and a bending area of an inner surface of the curved cover under a pressure applied by the liquid substance , and the pressure corresponds to a gravity of the liquid substance .
A displacement sensor comprising: a piezoelectric film that generates a charge according to a displacement amount; an electrode that is arranged so as to face the piezoelectric film; and an adhesive layer that is interposed between the piezoelectric film and the electrode , wherein the adhesive layer has a higher relative permittivity than the piezoelectric film . a piezoelectric film that generates a charge according to a displacement amount; an electrode that is arranged so as to face the piezoelectric film; and an adhesive layer that is interposed between the piezoelectric film and the electrode , wherein the adhesive layer has a higher relative permittivity than the piezoelectric film .
A method of wireless communication performed by a user equipment, UE, the method comprising: receiving a transmit power control, TPC, command that is based at least in part on a scheduled transmission of a sidelink communication; determining , based at least in part on transmitting the sidelink communication at a power that is lower than a power configured for the scheduled transmission of the sidelink communication, whether to adjust a transmit power of the UE based at least in part on the TPC command; and selectively adjusting the transmit power of the UE based at least in part on determining whether to adjust the transmit power. receiving a transmit power control, TPC, command that is based at least in part on a scheduled transmission of a sidelink communication; determining , based at least in part on transmitting the sidelink communication at a power that is lower than a power configured for the scheduled transmission of the sidelink communication, whether to adjust a transmit power of the UE based at least in part on the TPC command; and selectively adjusting the transmit power of the UE based at least in part on determining whether to adjust the transmit power.
Mounting unit with an attachment part which has at least one bore for fastening to a substructure, comprising a sleeve-shaped spacer which is held in the bore of the attachment part , comprising a fastening element , in particular a screw , which has a head on its one end and a fastening section interacting with a bore of the substructure on its other end, wherein the fastening element penetrates the spacer with a shaft in an axially movable way, characterized by a spring element , which is curved toward the attachment part , is placed on the annular surface of an end face of the sleeve-shaped spacer facing the head of the fastening element , and is supported in the mounted state on the attachment part , wherein the spring element has outer spring tabs on its under side, which, in the installed state, contact the periphery of the sleeve-shaped spacer in a self-locking way.
A method of processing at least one component using a robot-guided tool, wherein the method comprises the steps of: specifying (S10) a target position for each of a plurality of points ( x s,1 - x s,8 ) on a processing path; selecting (S20) points to be corrected ( x s,1 , x s,3 , x s,5 , x s,7 ) from the specified points ( x s,1 - x s,8 ), wherein points which are to be corrected are selected in a processing program by selecting from a list or by including in a list or by marking or by instructions which are able to be input, for determining actual positions of specified points of the processing path, or with the aid of an input facility for inputting points to be corrected, and wherein, by default, every second, third or nth point of the specified points is preselected; determining (S30), for each of the selected points ( x 1 , x 3 , x 5 , x 7 ) and in a manner supported by a sensor, a component-specific actual position on the component to be processed; replacing (S40) the target position for at least one of the selected points on the basis of the actual position which has been determined for that point; traversing (S50) the processing path on the basis of this at least one new target position; and processing this component with the robot-guided tool. specifying (S10) a target position for each of a plurality of points ( x s,1 - x s,8 ) on a processing path; selecting (S20) points to be corrected ( x s,1 , x s,3 , x s,5 , x s,7 ) from the specified points ( x s,1 - x s,8 ), wherein points which are to be corrected are selected in a processing program by selecting from a list or by including in a list or by marking or by instructions which are able to be input, for determining actual positions of specified points of the processing path, or with the aid of an input facility for inputting points to be corrected, and wherein, by default, every second, third or nth point of the specified points is preselected; determining (S30), for each of the selected points ( x 1 , x 3 , x 5 , x 7 ) and in a manner supported by a sensor, a component-specific actual position on the component to be processed; replacing (S40) the target position for at least one of the selected points on the basis of the actual position which has been determined for that point; traversing (S50) the processing path on the basis of this at least one new target position; and processing this component with the robot-guided tool.
An antenna element used for a multi-band dual-polarized antenna comprising: four radiating elements , a balun element configured to feed power to the radiating elements , and a fastening plate configured to fasten the balun element, wherein the balun element comprises two dielectric plates , and the two dielectric plates are embedded into each other in a crossing manner, wherein two signal transmission units , one feeding unit, and two filtering units are printed on each dielectric plate , and the filtering units are configured for decoupling; the two signal transmission units are disposed on a first surface of each dielectric plate , the top end of each signal transmission unit is electrically connected to the bottom end of a radiating element respectively, the feeding unit is disposed on a second surface of each dielectric plate opposite to the first surface, and a bottom end of the feeding unit and bottom ends of the signal transmission units are electrically connected to the fastening plate separately; wherein each filtering unit comprises one filtering module; or each filtering unit comprises two or more filtering modules, and the filtering modules comprised in each filtering unit are connected in parallel; or the filtering modules comprised in each filtering unit are connected in series; wherein each filtering module comprises a first metal piece and a second metal piece ; the first metal piece is printed on the second surface of the dielectric plate , and the first metal piece at least partially overlaps the signal transmission unit in space; and the second metal piece is disposed at a bottom end of the first metal piece , the second metal piece and the first metal piece are welded to each other, and the second metal piece does not overlap the signal transmission unit in space; wherein each radiating element , each first metal piece , and each second metal piece are successively disposed from top to bottom respectively; and each filtering module is electrically connected to the bottom end of one signal transmission unit , or each filtering module is electrically connected to the fastening plate .
An absorbent article comprising: a chassis comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , and comprising a longitudinal axis (y) extending along a length of said chassis and a transverse axis being substantially perpendicular to the longitudinal axis and extending along a width of said chassis, wherein said length extends along the longest dimension of said chassis; and at least one elastically elongatable panel joined to the chassis, wherein the elastically elongatable panel comprises: a. at least one cover layer ; and b. an elastomeric film attached to the cover layer , wherein said at least one cover layer and elastomeric film are joined by mechanical bonding at a plurality of discrete bonding elements , and wherein each said panel comprises a plurality of wrinkles having peaks and troughs formed on at least one of said cover layer , and characterized in that the said panel comprises a plurality of openings (O) extending through the film and/or the cover layer(s) and in that said openings (O) are positioned outboard and/or inboard of said discrete bonding elements so that said openings (O) and said bonding elements do not substantially coincide, wherein the openings (O) have an average surface area that is smaller than the average surface area of the discrete bonding elements . a chassis comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , and comprising a longitudinal axis (y) extending along a length of said chassis and a transverse axis being substantially perpendicular to the longitudinal axis and extending along a width of said chassis, wherein said length extends along the longest dimension of said chassis; and at least one elastically elongatable panel joined to the chassis, wherein the elastically elongatable panel comprises: a. at least one cover layer ; and b. an elastomeric film attached to the cover layer , a. at least one cover layer ; and b. an elastomeric film attached to the cover layer , wherein said at least one cover layer and elastomeric film are joined by mechanical bonding at a plurality of discrete bonding elements , and wherein each said panel comprises a plurality of wrinkles having peaks and troughs formed on at least one of said cover layer , and characterized in that the said panel comprises a plurality of openings (O) extending through the film and/or the cover layer(s) and in that said openings (O) are positioned outboard and/or inboard of said discrete bonding elements so that said openings (O) and said bonding elements do not substantially coincide, wherein the openings (O) have an average surface area that is smaller than the average surface area of the discrete bonding elements .
A user terminal comprising: a transmission unit configured to transmit, to a radio base station, at least one capability information concerning a supportable delay, the supportable delay being a delay that can be supported by the user terminal; and a control unit configured to perform control of a transmission of a given uplink radio resource, in a time interval of not less than the supportable delay, on the basis of a downlink control signal notified from the radio base station, wherein the at least one capability information comprises first capability information concerning a delay taken to transmit an uplink control signal after reception of the downlink data signal. a transmission unit configured to transmit, to a radio base station, at least one capability information concerning a supportable delay, the supportable delay being a delay that can be supported by the user terminal; and a control unit configured to perform control of a transmission of a given uplink radio resource, in a time interval of not less than the supportable delay, on the basis of a downlink control signal notified from the radio base station, wherein the at least one capability information comprises first capability information concerning a delay taken to transmit an uplink control signal after reception of the downlink data signal.