mhurhangee/patent-ind-claim-en huggingface dataset:
An armrest comprising: an upper support section having one or more ventilation and drainage apertures that couple an upper surface of the upper support section to a lower portion of the armrest to facilitate airflow and drainage between the upper surface of the upper support section and the lower portion of the armrest ; one or more control implements (88; 89); and an arm pad removably coupled to the upper support section , the arm pad comprising one or more pad apertures formed therein that communicate with the ventilation and drainage apertures to allow ventilation and drainage between an upper surface of the arm pad and the lower portion of the armrest . an upper support section having one or more ventilation and drainage apertures that couple an upper surface of the upper support section to a lower portion of the armrest to facilitate airflow and drainage between the upper surface of the upper support section and the lower portion of the armrest ; one or more control implements (88; 89); and an arm pad removably coupled to the upper support section , the arm pad comprising one or more pad apertures formed therein that communicate with the ventilation and drainage apertures to allow ventilation and drainage between an upper surface of the arm pad and the lower portion of the armrest .
A rechargeable battery comprising: an electrode assembly comprising a first electrode , a second electrode , a separator between the first electrode and the second electrode , a first electrode tab coupled to the first electrode , and a second electrode tab coupled to the second electrode ; a case accommodating the electrode assembly and coupled to the first electrode tab ; and a cap assembly sealing an opening in the case , the cap assembly comprising: a cap plate coupled to the case and covering the opening in the case ; and a terminal plate coupled to the cap plate , wherein the terminal plate comprises: a flange portion coupled to and electrically insulated from the cap plate ; and a tab connecting portion protruding from the flange portion toward the electrode assembly and extending through a terminal opening in the cap plate , the tab connecting portion being coupled to the second electrode tab , wherein outer surfaces of the flange portion and the tab connecting portion form a planar outer surface of the terminal plate , and wherein the tab connecting portion has a planar inner surface that protrudes into the case . an electrode assembly comprising a first electrode , a second electrode , a separator between the first electrode and the second electrode , a first electrode tab coupled to the first electrode , and a second electrode tab coupled to the second electrode ; a case accommodating the electrode assembly and coupled to the first electrode tab ; and a cap assembly sealing an opening in the case , the cap assembly comprising: a cap plate coupled to the case and covering the opening in the case ; and a terminal plate coupled to the cap plate , a cap plate coupled to the case and covering the opening in the case ; and a terminal plate coupled to the cap plate , wherein the terminal plate comprises: a flange portion coupled to and electrically insulated from the cap plate ; and a tab connecting portion protruding from the flange portion toward the electrode assembly and extending through a terminal opening in the cap plate , the tab connecting portion being coupled to the second electrode tab , a flange portion coupled to and electrically insulated from the cap plate ; and a tab connecting portion protruding from the flange portion toward the electrode assembly and extending through a terminal opening in the cap plate , the tab connecting portion being coupled to the second electrode tab , wherein outer surfaces of the flange portion and the tab connecting portion form a planar outer surface of the terminal plate , and wherein the tab connecting portion has a planar inner surface that protrudes into the case .
Heat cell with a fuel-operated burner , a fuel gas metering device , a control pressure line , wherein the burner is supplied with fuel gas from the fuel gas metering device depending on the pressure in the control pressure line , a heat exchanger for transferring thermal energy of the exhaust gas of the burner to a heat sink, and a housing with an opening and a removable burner door , wherein the opening can be closed by the removable burner door , wherein the burner is mounted on one side of the burner door and the other side of the burner door is connected to a supply of fuel gas and air for supplying a fuel gas and air mixture, characterised in that the control pressure line is arranged between the housing and the burner door .
Method for controlling the lateral position of a vehicle on a traffic lane , the method comprising: - a first step (E1) of automatically controlling the lateral position of the vehicle following a first reference trajectory (TR1), and - a first step (E2) of monitoring the lateral distance separating the vehicle from an edge (BD, BG) of the traffic lane, the first monitoring step comprising a substep (E22) of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a first threshold (S1), then - a step (E3) of detecting a command applied to a steering wheel of the vehicle by a driver for shifting the vehicle toward an edge of the traffic lane, then - stopping the first monitoring step (E2), - a second step (E4) of automatically controlling the lateral position of the vehicle following a second reference trajectory (TR2), the second trajectory being determined according to the command applied to the steering wheel by the driver, and - a second step (E5) of monitoring the lateral distance separating the vehicle from an edge of the traffic lane, the second monitoring step comprising a substep (E52) of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a second threshold (S2), the second threshold (S2) being strictly less than the first threshold (S1). - a first step (E1) of automatically controlling the lateral position of the vehicle following a first reference trajectory (TR1), and - a first step (E2) of monitoring the lateral distance separating the vehicle from an edge (BD, BG) of the traffic lane, the first monitoring step comprising a substep (E22) of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a first threshold (S1), then - a step (E3) of detecting a command applied to a steering wheel of the vehicle by a driver for shifting the vehicle toward an edge of the traffic lane, then - stopping the first monitoring step (E2), - a second step (E4) of automatically controlling the lateral position of the vehicle following a second reference trajectory (TR2), the second trajectory being determined according to the command applied to the steering wheel by the driver, and - a second step (E5) of monitoring the lateral distance separating the vehicle from an edge of the traffic lane, the second monitoring step comprising a substep (E52) of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a second threshold (S2), the second threshold (S2) being strictly less than the first threshold (S1).
An electronic device comprising: a sensor panel included in one of a touch screen sensor, a fingerprint recognition sensor, or a pen recognition sensor, the sensor panel being configured to form an electric field based on a driving signal; and a sensor operation module configured to provide to the sensor panel the driving signal, which has a code sequence in which orthogonal codes of a code division multiplexing, CDM, scheme are applied to orthogonal carriers of an orthogonal frequency division multiplexing, OFDM, scheme and that has a peak to average power ratio, PAPR, of a specified value, wherein the sensor operation module is further configured to perform at least one of: peak reducing transmission signal composition of multiplying a signal generated by the code sequence by a PAPR reducing signal, PRS, such that the PAPR of the driving signal is the specified value, or amplitude clipping a signal such that a PAPR of the driving signal is the specified value and compensating a specified number of times a distorted orthogonal signal of the clipped signal a sensor panel included in one of a touch screen sensor, a fingerprint recognition sensor, or a pen recognition sensor, the sensor panel being configured to form an electric field based on a driving signal; and a sensor operation module configured to provide to the sensor panel the driving signal, which has a code sequence in which orthogonal codes of a code division multiplexing, CDM, scheme are applied to orthogonal carriers of an orthogonal frequency division multiplexing, OFDM, scheme and that has a peak to average power ratio, PAPR, of a specified value, wherein the sensor operation module is further configured to perform at least one of: peak reducing transmission signal composition of multiplying a signal generated by the code sequence by a PAPR reducing signal, PRS, such that the PAPR of the driving signal is the specified value, or amplitude clipping a signal such that a PAPR of the driving signal is the specified value and compensating a specified number of times a distorted orthogonal signal of the clipped signal
A system comprising: a hemostatic valve unit ; a cardiac assist unit ; and a sealed access device providing a separation of a wet/dry zone in a heart and said sealed access device comprising an apical base plate; wherein said hemostatic valve unit having a through port with proximal and distal openings configured to provide a communication channel and having a splittable housing comprising housing parts radially movable when said housing is split longitudinally and wherein said hemostatic valve unit is at a distal end connectable to said apical base plate of said access device; wherein said cardiac assist unit is configured to be at least partially inserted through said communication channel into a heart, and wherein said cardiac assist unit is configured to be arranged on the dry side of said wet/dry zone a hemostatic valve unit ; a cardiac assist unit ; and a sealed access device providing a separation of a wet/dry zone in a heart and said sealed access device comprising an apical base plate; wherein said hemostatic valve unit having a through port with proximal and distal openings configured to provide a communication channel and having a splittable housing comprising housing parts radially movable when said housing is split longitudinally and wherein said hemostatic valve unit is at a distal end connectable to said apical base plate of said access device; wherein said cardiac assist unit is configured to be at least partially inserted through said communication channel into a heart, and wherein said cardiac assist unit is configured to be arranged on the dry side of said wet/dry zone
A terminal device comprising: a synchronization processing unit configured to perform synchronization processing with another terminal device via radio communication, based on one of a plurality of synchronization signals for radio communication; and a control unit , characterized in that each of the plurality of synchronization signals comprises a priority as an attribute, wherein the priority of a synchronization signal is based on one or more of - the originating device of the synchronization signal, - the sending device of the synchronization signal, and - the number of relays of the synchronization signal, and the control unit is configured to control a monitoring period for each of the plurality of synchronization signals in accordance with the priority of the respective synchronization signal, and monitor a synchronization state of the one of the synchronization signals within the monitoring period corresponding to the respective synchronization signal, in order to conduct at least one of determining establishment of the synchronization by the one of the plurality of synchronization signals, maintaining the synchronization by the one of the plurality of synchronization signals, and re-searching another synchronization signal among the plurality of synchronization signals in case of occurrence of an out-of-sync condition after establishment of the synchronization. a synchronization processing unit configured to perform synchronization processing with another terminal device via radio communication, based on one of a plurality of synchronization signals for radio communication; and a control unit , each of the plurality of synchronization signals comprises a priority as an attribute, wherein the priority of a synchronization signal is based on one or more of - the originating device of the synchronization signal, - the sending device of the synchronization signal, and - the number of relays of the synchronization signal, and - the originating device of the synchronization signal, - the sending device of the synchronization signal, and - the number of relays of the synchronization signal, and the control unit is configured to control a monitoring period for each of the plurality of synchronization signals in accordance with the priority of the respective synchronization signal, and monitor a synchronization state of the one of the synchronization signals within the monitoring period corresponding to the respective synchronization signal, in order to conduct at least one of determining establishment of the synchronization by the one of the plurality of synchronization signals, maintaining the synchronization by the one of the plurality of synchronization signals, and re-searching another synchronization signal among the plurality of synchronization signals in case of occurrence of an out-of-sync condition after establishment of the synchronization.
A boiler comprising: a combustion vessel forming a combustion chamber ; a primary burner provided to the combustion vessel ; a secondary burner provided to the combustion vessel , provided downstream of flame formed by the primary burner , and having a smaller capacity than the primary burner ; a secondary burner wind box accommodating the secondary burner and attached to the combustion vessel ; an air supply unit configured to supply air to the secondary burner wind box ; and a control unit configured to control the air supply unit ; wherein the control unit is configured to drive the air supply unit when the primary burner is in operation and the secondary burner is not in operation; characterized in that a cooling steam supply unit configured to supply cooling steam that cools the secondary burner when the secondary burner is not in operation. a combustion vessel forming a combustion chamber ; a primary burner provided to the combustion vessel ; a secondary burner provided to the combustion vessel , provided downstream of flame formed by the primary burner , and having a smaller capacity than the primary burner ; a secondary burner wind box accommodating the secondary burner and attached to the combustion vessel ; an air supply unit configured to supply air to the secondary burner wind box ; and a control unit configured to control the air supply unit ; wherein the control unit is configured to drive the air supply unit when the primary burner is in operation and the secondary burner is not in operation; characterized in that a cooling steam supply unit configured to supply cooling steam that cools the secondary burner when the secondary burner is not in operation.
A method comprising: supporting multiple MIH, Media Independent Handover, Users by a local MIH Function under a constraint in which only one of the MIH Users is allowed to change the state of a local link on a local node during a period of time, the method further including a remote MIH User on a network node controlling local links on the local node, wherein the remote MIH User controls a handover process, wherein the remote MIH user sends a conflict request for local links on the local node to perform a handover, the conflict request being a request primitive which can change the state of a link, wherein a local MIH User on the local node issues to the local MIH function on the local node an MIH register request primitive specifying an identifier of a remote MIH function on the network node as a destination MIH function identifier parameter of the MIH register request primitive, wherein the MIH register request primitive includes a set-of-owned-links parameter that includes a list of links IDs, identities, representing local links on the local node which the remote MIH user can own. supporting multiple MIH, Media Independent Handover, Users by a local MIH Function under a constraint in which only one of the MIH Users is allowed to change the state of a local link on a local node during a period of time, the method further including a remote MIH User on a network node controlling local links on the local node, wherein the remote MIH User controls a handover process, wherein the remote MIH user sends a conflict request for local links on the local node to perform a handover, the conflict request being a request primitive which can change the state of a link, wherein a local MIH User on the local node issues to the local MIH function on the local node an MIH register request primitive specifying an identifier of a remote MIH function on the network node as a destination MIH function identifier parameter of the MIH register request primitive, wherein the MIH register request primitive includes a set-of-owned-links parameter that includes a list of links IDs, identities, representing local links on the local node which the remote MIH user can own.
A quark matrix having a sodium content of below 50 ppm and a dry matter content of 15 to 20% by weight and a protein content of 10 to 15% by weight, obtained by (a) subjecting raw milk to heat treatment, separating the cream, (b) subjecting the skimmed milk thus obtained to a microfiltration, obtaining a first retentate R1, which represents a first dairy protein concentrate, and a first permeate P1, (c) subjecting the permeate P1 to an ultrafiltration and/or a reverse osmosis, obtaining a second retentate R2, which represents a second dairy protein concentrate, and a second permeate P2, (d) subjecting the permeate P2 to an electrodialysis with a subsequent treatment using a cation exchanger, producing a diluate D1, (e) combining the diluate D1 with the retentate R1, (f) subjecting the combination product thus obtained to heat treatment until denaturation sets in, g) fermenting the denaturation product thus obtained by the addition of starter cultures and rennet, and (h) adjusting the fermentation product thus obtained to defined dry matter and protein contents. (a) subjecting raw milk to heat treatment, separating the cream, (b) subjecting the skimmed milk thus obtained to a microfiltration, obtaining a first retentate R1, which represents a first dairy protein concentrate, and a first permeate P1, (c) subjecting the permeate P1 to an ultrafiltration and/or a reverse osmosis, obtaining a second retentate R2, which represents a second dairy protein concentrate, and a second permeate P2, (d) subjecting the permeate P2 to an electrodialysis with a subsequent treatment using a cation exchanger, producing a diluate D1, (e) combining the diluate D1 with the retentate R1, (f) subjecting the combination product thus obtained to heat treatment until denaturation sets in, g) fermenting the denaturation product thus obtained by the addition of starter cultures and rennet, and (h) adjusting the fermentation product thus obtained to defined dry matter and protein contents.
A method comprising: detecting, in a device , an invalid passcode state of the device while the device is in a locked state; prompting a communication from the device to a trusted contact while the device is in the locked state, the trusted contact being designated by the device ; transmitting the communication to the trusted contact with a lost passcode request while the device is in the locked state, wherein transmitting the communication from the device comprises retrieving a passcode from a secure storage facility and forming a message to be sent to the trusted contact in the communication that includes the retrieved passcode; receiving, by the device, the passcode from the trusted contact; and unlocking the device using the passcode received from the trusted contact. detecting, in a device , an invalid passcode state of the device while the device is in a locked state; prompting a communication from the device to a trusted contact while the device is in the locked state, the trusted contact being designated by the device ; transmitting the communication to the trusted contact with a lost passcode request while the device is in the locked state, wherein transmitting the communication from the device comprises retrieving a passcode from a secure storage facility and forming a message to be sent to the trusted contact in the communication that includes the retrieved passcode; receiving, by the device, the passcode from the trusted contact; and unlocking the device using the passcode received from the trusted contact.
A method of transforming a plant plastid, comprising the steps of: (a) preparing an explant from a seed of a plant, the explant comprising meristematic tissue of a mature embryo of the seed; and (b) transforming at least one plastid of a cell of the explant with an exogenous DNA molecule, the exogenous DNA molecule comprising: (i) a first arm region homologous to a first plastid genome sequence; (ii) a second arm region homologous to a second plastid genome sequence; and (iii) an insertion sequence positioned between the first arm region and the second arm region of the exogenous DNA molecule, wherein the cells of the explant do not form a callus tissue prior to the transforming step (b), and wherein the insertion sequence is incorporated into a plastid genome of the plant cell between the first plastid genome sequence and the second plastid genome sequence. (a) preparing an explant from a seed of a plant, the explant comprising meristematic tissue of a mature embryo of the seed; and (b) transforming at least one plastid of a cell of the explant with an exogenous DNA molecule, the exogenous DNA molecule comprising: (i) a first arm region homologous to a first plastid genome sequence; (ii) a second arm region homologous to a second plastid genome sequence; and (iii) an insertion sequence positioned between the first arm region and the second arm region of the exogenous DNA molecule, wherein the cells of the explant do not form a callus tissue prior to the transforming step (b), and wherein the insertion sequence is incorporated into a plastid genome of the plant cell between the first plastid genome sequence and the second plastid genome sequence. (i) a first arm region homologous to a first plastid genome sequence; (ii) a second arm region homologous to a second plastid genome sequence; and (iii) an insertion sequence positioned between the first arm region and the second arm region of the exogenous DNA molecule,