mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining isotropic stress by means of at least one Hall element , which has a plate-shaped area made of a doped semiconductor material and comprises four contacts contacting the plate-shaped area, the contacts forming corners of a quadrangle, two neighbouring corners of the quadrangle defining an edge thereof, the method comprising determining at least one van der Pauw transresistance value (R vdp1 , R vdp2 ) in at least one van der Pauw measurement setup of the at least one Hall element , wherein the four contacts of the Hall element form contact pairs, a contact pair comprising two contacts which are neighbouring corners of the quadrangle, one contact pair being used for supplying a current (I) and the other contact pair being used for measuring a voltage (V vdp1 ), a relationship between the supplied current (I) and the measured voltage (V vdp1 ) defining the Van der Pauw transresistance value (R vdp1 ), characterized in that the method comprises determining a stress signal (V s ) which depends at least on the at least one Van der Pauw transresistance value (R vdp1 , R vdp2 ) of which at least a first Van der Pauw transresistance is measured, and of which a second Van der Pauw transresistance value is measured or determined from a transresistance offset value (R offset ) and the first Van der Pauw transresistance value wherein R Offset = R vdp 2 - R vdp 1 , wherein determining the stress signal (V S ) is done by deriving a sheet resistance value, or sheet resistance voltage V sq , by solving the van der Pauw equation exp − π R vdp 1 R sq + exp − π R vdp 2 R sq = 1 or an approximation based on a linear combination of the at least one Van der Pauw transresistance value, wherein the sheet resistance voltage (V sq ) is proportional to the sheet resistance value (R sq ) and, by determining the stress signal (V s ) by evaluating V S = V sq 2 + Γ 1 2 V Offset 2 + Γ 2 2 Δ V W 2 wherein Γ 1 is a constant and V offset is a voltage proportional to the transresistance offset value (R offset ), and wherein Γ 2 is a constant and ΔV W is the difference voltage over a first diagonal of the contacts as a result from applying a current along the first diagonal and the voltage over a second diagonal of the contacts as a result from applying a current along the second diagonal, and determining the isotropic stress by comparing the determined stress signal (V s ) with a reference function for the stress signal (V S, ref (T)) which is obtained by a calibration procedure in function of temperature.
A minibody comprising a hinge region comprising: an upper hinge region that comprises no amino acids capable of crosslinking with a corresponding amino acid; and a sequence CPPCPPC (SEQ ID NO: 52), wherein SEQ ID NO: 52 is located as the core hinge region of the minibody, wherein the core hinge region is connected to a C-terminus of the upper hinge region, the minibody further comprising a lower hinge or extension sequence connected C-terminal to the core hinge region, wherein the hinge region comprises no cysteines in the upper hinge region. an upper hinge region that comprises no amino acids capable of crosslinking with a corresponding amino acid; and a sequence CPPCPPC (SEQ ID NO: 52), wherein SEQ ID NO: 52 is located as the core hinge region of the minibody, wherein the core hinge region is connected to a C-terminus of the upper hinge region, the minibody further comprising a lower hinge or extension sequence connected C-terminal to the core hinge region, wherein the hinge region comprises no cysteines in the upper hinge region.
Method for prestressing a steel structure, in which at least one carbon fibre-reinforced polymer strip is attached at each of its end regions with end anchorages in a tensile force-locking manner to a steel beam to be reinforced of the steel structure , and thereafter, in a region between these end anchorages , at least one lifting element arranged between the respective carbon fibre-reinforced polymer strip and the steel beam to be reinforced is extended substantially perpendicular to the carbon fibre-reinforced polymer strip , such that a uniform tension is generated over the entire length of the carbon fibre reinforced polymeric band , to effect a tensile force tension between the end anchors of the respective carbon fibre reinforced polymeric band , which tensile force is many times greater than the lifting force due to the leverage effect, and which tensile force is introduced into the structure via the end anchors , the lifting of the respective carbon fibre reinforced polymeric band being secured by means of a mechanical support.
A response message transmission method, comprising: receiving , by relay user equipment, a request message sent by remote user equipment, wherein the request message carries indication information; sending , by the relay user equipment to a base station, a resource request carrying the indication information, wherein the resource request is used to trigger the base station to determine a relay communication period of the remote user equipment according to the indication information, and to allocate a first initial resource in the relay communication period to the relay user equipment; and determining , by the relay user equipment, a first target resource based on the first initial resource, and sending a response message corresponding to the request message to the remote user equipment by using the first target resource, wherein the relay communication period is a discontinuous reception DRX dormant period that is configured by the base station for the remote user equipment, or the relay communication period is a discovery gap that is configured by the base station at the request of the remote user equipment. receiving , by relay user equipment, a request message sent by remote user equipment, wherein the request message carries indication information; sending , by the relay user equipment to a base station, a resource request carrying the indication information, wherein the resource request is used to trigger the base station to determine a relay communication period of the remote user equipment according to the indication information, and to allocate a first initial resource in the relay communication period to the relay user equipment; and determining , by the relay user equipment, a first target resource based on the first initial resource, and sending a response message corresponding to the request message to the remote user equipment by using the first target resource, wherein the relay communication period is a discontinuous reception DRX dormant period that is configured by the base station for the remote user equipment, or the relay communication period is a discovery gap that is configured by the base station at the request of the remote user equipment.
A process for the of production of the compound of formula (I) wherein as first step (step (ia)) a Darzens reaction is carried out between a compound of formula (II) wherein R 1 is H or CH 3 , preferably wherein R 1 is H, and a compound of formula (III) wherein X is Cl or Br, preferably wherein X is Cl, and R 2 is C 1 -C 4 -alkyl, preferably methyl or ethyl, in the presence of MOR, wherein R is a C 1 -C 4 -alkyl group (preferably methyl or ethyl), and M signifies Na + , K + or Cs + , wherein from 1.0 to 1.1 mol equivalents of the compound of formula (III), based on the amount of the compound of formula (II), and from 1.0 to 1.1 mol equivalents of MOR, based on the amount of the compound of formula (II), is used and wherein step (ia) is carried out at a reaction temperature in the range of from -5°C to 5°C, followed by a second step (ib) whereby a saponification reaction in the presence of NaOH to form the compound of formula (V) takes place, wherein step (ib) is carried out at room temperature and in step (ii) the compound of formula (V) is undergoing a decarboxylation reaction to form the compound of formula (I), wherein step (ii) is carried out at room temperature. wherein as first step (step (ia)) a Darzens reaction is carried out between a compound of formula (II) wherein R 1 is H or CH 3 , preferably wherein R 1 is H, and a compound of formula (III) wherein X is Cl or Br, preferably wherein X is Cl, and R 2 is C 1 -C 4 -alkyl, preferably methyl or ethyl, in the presence of MOR, wherein R is a C 1 -C 4 -alkyl group (preferably methyl or ethyl), and M signifies Na + , K + or Cs + , wherein from 1.0 to 1.1 mol equivalents of the compound of formula (III), based on the amount of the compound of formula (II), and from 1.0 to 1.1 mol equivalents of MOR, based on the amount of the compound of formula (II), is used and wherein step (ia) is carried out at a reaction temperature in the range of from -5°C to 5°C, followed by a second step (ib) whereby a saponification reaction in the presence of NaOH to form the compound of formula (V) takes place, wherein step (ib) is carried out at room temperature and in step (ii) the compound of formula (V) is undergoing a decarboxylation reaction to form the compound of formula (I), wherein step (ii) is carried out at room temperature.
A tool coupler for coupling a top drive to one or more tools, the tool coupler comprising: a first component having a shaft and a plurality of locking members ; a second component having: an inner housing for receiving the shaft and a plurality of complementary locking members , wherein the shaft is rotatable relative to the inner housing ; and an outer housing configured to rotationally lock the first component to the second component, wherein the outer housing includes a locking beam configured to engage with the plurality of locking members to rotationally lock the first component . a first component having a shaft and a plurality of locking members ; a second component having: an inner housing for receiving the shaft and a plurality of complementary locking members , wherein the shaft is rotatable relative to the inner housing ; and an outer housing configured to rotationally lock the first component to the second component, wherein the outer housing includes a locking beam configured to engage with the plurality of locking members to rotationally lock the first component . an inner housing for receiving the shaft and a plurality of complementary locking members , wherein the shaft is rotatable relative to the inner housing ; and an outer housing configured to rotationally lock the first component to the second component, wherein the outer housing includes a locking beam configured to engage with the plurality of locking members to rotationally lock the first component .
Agricultural machine, in particular a harvester such as a baler, having a monitoring device , which has at least one temperature sensor (1-19) for monitoring the temperature of a temperature-critical machine component , and an electronic evaluation device for evaluating the temperature signal of the temperature sensor and providing a warning and/or control signal when reaching or exceeding a critical temperature state, wherein the electronic evaluation device is designed to determine a temporal sequence of the temperature signal of the at least one temperature sensor (1-19) and to evaluate it at least with regard to its rate of rise and/or duration of rise and/or with regard to deviations from a previously stored temperature curve and, if an excessive rate of rise and/or excessive duration of rise and/or excessive deviation from the stored temperature curve is detected, to emit the said warning and/or control signal, characterised in that the electronic evaluation device is designed to compare the temporal sequence of the measured temperature signal with the temporal sequence of a detected operating speed and/or a detected load of the temperature-monitored machine component and to emit the warning and/or control signal in the event of excessive deviations of the temperature signal sequence from the operating speed and/or load sequence.
A method for a device comprising an audio playback device, the method comprising: receiving, via a wireless power receiver , wireless power from one or more external transmitter devices ; storing energy via an energy storage component of the device using the received wireless power; and based on the received wireless power, modulating operation of the device, characterised in that modulating operation of the device comprises at least one of: modulating audio playback; reducing a volume of audio playback; reducing a low-frequency output of audio playback; routing at least a portion of low-frequency audio content to a second audio playback device for synchronous playback; or disabling at least one microphone of the device. receiving, via a wireless power receiver , wireless power from one or more external transmitter devices ; storing energy via an energy storage component of the device using the received wireless power; and based on the received wireless power, modulating operation of the device, characterised in that modulating audio playback; reducing a volume of audio playback; reducing a low-frequency output of audio playback; routing at least a portion of low-frequency audio content to a second audio playback device for synchronous playback; or disabling at least one microphone of the device.
Motor vehicle air conditioning loop in which a refrigerant fluid flows, and comprising, in the direction of flow of the refrigerant fluid: • a compressor , • a first heat exchanger arranged downstream of the compressor , • a first expansion device arranged downstream of the first heat exchanger , and • a second heat exchanger arranged downstream of the first expansion device , the said air conditioning loop further comprising a heat storage circuit (A) connecting a first junction point arranged downstream of the first heat exchanger , between the said first heat exchanger and the expansion device , and a second junction point arranged upstream of the compressor , between the second heat exchanger and the said compressor , the said heat storage circuit (A) comprising: • a second expansion device arranged downstream of the first junction point , • a thermal battery arranged downstream of the second expansion device , • a bypass branch (A2) for bypassing the first heat exchanger and connecting a fifth junction point , arranged upstream of the first heat exchanger , and a sixth junction point , arranged between the second expansion device and the thermal battery , characterized in that the said heat storage circuit (A) further comprises a connecting branch (A1) connecting a third junction point , arranged between the thermal battery and the second junction point , and a fourth junction point , arranged between the first junction point and the first expansion device . • a compressor , • a first heat exchanger arranged downstream of the compressor , • a first expansion device arranged downstream of the first heat exchanger , and • a second heat exchanger arranged downstream of the first expansion device , • a second expansion device arranged downstream of the first junction point , • a thermal battery arranged downstream of the second expansion device , • a bypass branch (A2) for bypassing the first heat exchanger and connecting a fifth junction point , arranged upstream of the first heat exchanger , and a sixth junction point , arranged between the second expansion device and the thermal battery ,
A method performed by a user equipment, UE, for handover, using one of a delta configuration signalling scheme or a full configuration signalling scheme, from a source base station, BS, supporting a first protocol release to a target BS supporting a second protocol release, wherein the UE is configured according to the first protocol release used by the source BS, the method comprising: receiving a handover command message from the target BS, via the source BS, wherein on a condition that the first protocol release is newer than the second protocol release, the handover command message comprises a one-bit indication that the UE perform a full configuration; and on a condition that the handover command message comprises the one-bit indication, releasing parameters defined in said first protocol release and performing a full configuration procedure for handover to the target BS. receiving a handover command message from the target BS, via the source BS, wherein on a condition that the first protocol release is newer than the second protocol release, the handover command message comprises a one-bit indication that the UE perform a full configuration; and on a condition that the handover command message comprises the one-bit indication, releasing parameters defined in said first protocol release and performing a full configuration procedure for handover to the target BS.
Sewing machine - with stitch-forming tools cooperating in a stitch-forming region for forming a seam in a sewing material , - with a sewing material feeding device for feeding the sewing material along a sewing direction , - with a thickness sensor for detecting a thickness of the sewing material in a detection region , which is arranged upstream from the stitch-forming region in the sewing direction , - wherein the thickness sensor is designed as a triangulation sensor with a light source for measuring light and with a detector for the measuring light , wherein - a source center of the light source , -- a center (Z) of the detection region , and -- a center of the detector , define precisely one triangulation plane (xz) of the triangulation sensor , - wherein the measuring light detector is designed in such a way that it detects the measuring light at least one of reflected and scattered by the sewing material in the detection region , characterized in that a ratio A/B of a distance A between the measuring light source and the measuring light detector to a distance (B) between the measuring light source and/or the measuring light detector on the one hand and the detection region on the other hand is at most 1/10. - with stitch-forming tools cooperating in a stitch-forming region for forming a seam in a sewing material , - with a sewing material feeding device for feeding the sewing material along a sewing direction , - with a thickness sensor for detecting a thickness of the sewing material in a detection region , which is arranged upstream from the stitch-forming region in the sewing direction , - wherein the thickness sensor is designed as a triangulation sensor with a light source for measuring light and with a detector for the measuring light , wherein - a source center of the light source , -- a center (Z) of the detection region , and -- a center of the detector , define precisely one triangulation plane (xz) of the triangulation sensor , -- a center (Z) of the detection region , and -- a center of the detector , - wherein the measuring light detector is designed in such a way that it detects the measuring light at least one of reflected and scattered by the sewing material in the detection region ,
A household appliance, comprising: - a controller to control the operation of the household appliance ; and - an input unit providing input elements that are actuatable by a user of the household appliance , the input elements comprising at least a power-off-button that is implemented as a physical input element, wherein the input unit is coupled to the controller ; wherein the household appliance is operable in at least a main operating mode and in a service mode in which at least one service function that is not available in the main operating mode is provided to a user of the household appliance , characterized in that the controller is configured to: - when the household appliance is in a turned on state, operate the household appliance in the service mode upon receiving from the input unit a user input that corresponds to the actuation of one or more input elements according to a first predetermined input sequence, wherein the first predetermined input sequence comprises an actuation of the power-off-button ; - when the household appliance is in the turned on state, turn off the household appliance upon receiving from the input unit a user input that corresponds to the actuation of the power-off-button if said actuation does not comply with the first predetermined input sequence. - a controller to control the operation of the household appliance ; and - an input unit providing input elements that are actuatable by a user of the household appliance , the input elements comprising at least a power-off-button that is implemented as a physical input element, wherein the input unit is coupled to the controller ; - when the household appliance is in a turned on state, operate the household appliance in the service mode upon receiving from the input unit a user input that corresponds to the actuation of one or more input elements according to a first predetermined input sequence, wherein the first predetermined input sequence comprises an actuation of the power-off-button ; - when the household appliance is in the turned on state, turn off the household appliance upon receiving from the input unit a user input that corresponds to the actuation of the power-off-button if said actuation does not comply with the first predetermined input sequence.
A mold for vulcanizing and molding an unvulcanized green tire heated by a heating device, the mold comprising: a tread mold that presses a tread section of the green tire, wherein the tread mold includes a plurality of segments divided in a circumferential direction of the green tire mounted in the mold , the segment is provided inside thereof with a design surface mold for pressing the tread section and molding a design of the tread section , and is provided with a holder member for holding the design surface mold and transferring heat from the heating device, and the design surface mold includes a plurality of piece members divided in a width direction of the green tire mounted in the mold , wherein the tread mold is provided with a hindrance section that hinders heat from being transferred from the holder member to the piece members , characterized in that the hindrance section is located at a central region in the width direction of the green tire mounted in the mold , between the piece members and the holder member wherein the holder member includes a recess recessed from a holder member surface on the piece member side, and the hindrance section is a gap defined by the recess and the piece members, and wherein the piece members have joint end edges put in contact with and mated with an adjacent piece member , and the joint end edges are formed in a rugged shape such as to interfere with each other to hinder relative movement of the adjacent piece member in a tire circumferential direction, a tire width direction, and a tire radial direction. a tread mold that presses a tread section of the green tire, wherein the tread mold includes a plurality of segments divided in a circumferential direction of the green tire mounted in the mold , the segment is provided inside thereof with a design surface mold for pressing the tread section and molding a design of the tread section , and is provided with a holder member for holding the design surface mold and transferring heat from the heating device, and the design surface mold includes a plurality of piece members divided in a width direction of the green tire mounted in the mold , wherein the tread mold is provided with a hindrance section that hinders heat from being transferred from the holder member to the piece members , characterized in that the hindrance section is located at a central region in the width direction of the green tire mounted in the mold , between the piece members and the holder member wherein the holder member includes a recess recessed from a holder member surface on the piece member side, and the hindrance section is a gap defined by the recess and the piece members, and wherein the piece members have joint end edges put in contact with and mated with an adjacent piece member , and the joint end edges are formed in a rugged shape such as to interfere with each other to hinder relative movement of the adjacent piece member in a tire circumferential direction, a tire width direction, and a tire radial direction.