mhurhangee/patent-ind-claim-en huggingface dataset:
A gripper apparatus for removing and replacing objects in an array of objects, comprising: a support arm ; a gripper head extending downward from the support arm and having a downwardly facing lower end; a planetary gear assembly mounted in the gripper head, the planetary gear assembly having a central axis of rotation and including at least three planet gears , each planet gear having a respective planet gear axis of rotation, and at least one gripping pin associated with and extending downward respectively from each planet gear to project beyond the lower end of the gripper head; a reversible drive motor configured to operate the planetary gear assembly to rotate the planet gears about said planet gear axes of rotation and about the central axis ; and the planetary gear assembly being configured to move the respective gripping pins along predetermined inward and outward paths dependent on a drive direction of the reversible drive motor , whereby the distance between the respective gripping pins is varied for accommodating a range of different object sizes, the gripping pins being configured to grasp an object located between the gripping pins when urged against an outer surface of the object . a support arm ; a gripper head extending downward from the support arm and having a downwardly facing lower end; a planetary gear assembly mounted in the gripper head, the planetary gear assembly having a central axis of rotation and including at least three planet gears , each planet gear having a respective planet gear axis of rotation, and at least one gripping pin associated with and extending downward respectively from each planet gear to project beyond the lower end of the gripper head; a reversible drive motor configured to operate the planetary gear assembly to rotate the planet gears about said planet gear axes of rotation and about the central axis ; and the planetary gear assembly being configured to move the respective gripping pins along predetermined inward and outward paths dependent on a drive direction of the reversible drive motor , whereby the distance between the respective gripping pins is varied for accommodating a range of different object sizes, the gripping pins being configured to grasp an object located between the gripping pins when urged against an outer surface of the object .
Motor vehicle door lock, comprising a motor vehicle latch having a locking mechanism which is mounted in a latch case and which substantially consists of a catch and a pawl , further comprising a latch striker that interacts with the locking mechanism , and an opener that engages the latch striker during an opening process of an associated motor vehicle door, the opener being acted upon by means of an opening device which is at least partially integrated in the motor vehicle latch , the opening device additionally being designed to lift the pawl from the catch , characterized in that the opening device has a drive lever which can be acted upon by the actuator and/or by a spring , the drive lever being hingedly coupled to the opener , and the pawl being lifted from its engagement with the catch by means of the drive lever , and the opener being moved against the latch striker by a rotation of the drive lever .
A device for transmitting a motive force from a prime mover to a first and a second transfer shaft, comprising: an input shaft having a longitudinal axis; a load transfer member , wherein the load transfer member engages the input shaft and rotates around an axis perpendicular to the longitudinal axis of the input shaft; a first input shaft gear associated with the input shaft and a second input shaft gear associated with the input shaft; the first transfer shaft having a first transfer gear configured to engage the first input shaft gear and the second transfer shaft having a second transfer gear configured to engage the second input shaft gear , wherein the first and second input shaft gears engage the load transfer member at different locations thereon for transmitting motive force from the input shaft to the first and second transfer shafts; wherein the load transfer member comprises a first loading region to engage the first input shaft gear and a second loading region to engage the second input shaft gear ; and wherein each of the first input shaft gear and second input shaft gear comprises a circumferential slot configured to engage the first and second loading regions respectively. an input shaft having a longitudinal axis; a load transfer member , wherein the load transfer member engages the input shaft and rotates around an axis perpendicular to the longitudinal axis of the input shaft; a first input shaft gear associated with the input shaft and a second input shaft gear associated with the input shaft; the first transfer shaft having a first transfer gear configured to engage the first input shaft gear and the second transfer shaft having a second transfer gear configured to engage the second input shaft gear , wherein the first and second input shaft gears engage the load transfer member at different locations thereon for transmitting motive force from the input shaft to the first and second transfer shafts; wherein the load transfer member comprises a first loading region to engage the first input shaft gear and a second loading region to engage the second input shaft gear ; and wherein each of the first input shaft gear and second input shaft gear comprises a circumferential slot configured to engage the first and second loading regions respectively.
An electronic device comprising: a sensor module comprising a pressure sensor and a sensor hub configured to: sense using the pressure sensor a pressure applied to the electronic device, and send a pressure value corresponding to the sensed pressure to a processor ; and the processor configured to perform an operation corresponding to the pressure value received from the sensor module, when the sensor hub determines that the sensed pressure belongs to a first interval, the sensor module sends a first pressure value, which represents the first interval, to the processor, after sending the first pressure value, when the sensed pressure is sensed again as corresponding to the first interval, omit resending the first pressure value to the processor, when the sensor hub determines that the sensed pressure belongs to a second interval higher than the first interval, the sensor module sends a second pressure value corresponding to the sensed pressure to the processor, when the sensor hub determines that the sensed pressure belongs to a third interval higher than the second interval, the sensor module sends a third pressure value, which represents the third interval, to the processor, and after sending the third pressure value, when the sensed pressure is sensed again as corresponding to the third interval, omit resending the third pressure value to the processor. sense using the pressure sensor a pressure applied to the electronic device, and send a pressure value corresponding to the sensed pressure to a processor ; and the processor configured to perform an operation corresponding to the pressure value received from the sensor module, when the sensor hub determines that the sensed pressure belongs to a first interval, the sensor module sends a first pressure value, which represents the first interval, to the processor, after sending the first pressure value, when the sensed pressure is sensed again as corresponding to the first interval, omit resending the first pressure value to the processor, when the sensor hub determines that the sensed pressure belongs to a second interval higher than the first interval, the sensor module sends a second pressure value corresponding to the sensed pressure to the processor, when the sensor hub determines that the sensed pressure belongs to a third interval higher than the second interval, the sensor module sends a third pressure value, which represents the third interval, to the processor, and after sending the third pressure value, when the sensed pressure is sensed again as corresponding to the third interval, omit resending the third pressure value to the processor.
Cooling device for an electrical power component, comprising a cooling circuit operated with a liquid coolant, having a heat exchanger , which is connected in the cooling circuit and to which the power component is coupled in a thermally conductive manner, and having a cooler for cooling the coolant, which cooler, viewed in the flow direction of the coolant, is connected behind the heat exchanger in the cooling circuit, having an elongated distributor pipe , which, viewed in the flow direction of the liquid coolant, is connected behind the cooler and in front of the heat exchanger by means of cooling liquid channels in the cooling circuit, the cross-section of which is greater than the flow cross-section of the cooling liquid channel and which is mounted parallel to the gravity vector having a pump , which is connected in the cooling circuit for maintaining the circulation of the coolant, characterized by temperature sensors for detecting the temperature of the heat exchanger and for detecting the temperature of the ambient air, a heater for heating the coolant, which is located in the distributor pipe , wherein a control unit analyses the signals from the temperature sensors and activates the heater, if the power component is not in operation and if the heat exchanger assumes a lower temperature than the ambient air, so that without using the pump the heated coolant is circulated in the cooling circuit and heats the heat exchanger .
A method of transmitting a physical broadcast channel, PBCH, by a transmitting device in a wireless communication system, the method comprising: mapping (S1601) information for the PBCH to input bit positions of a Polar code of size N=512, based on a Polar sequence; encoding (S1603) the information for the PBCH based on the Polar code; and transmitting (S1605) the PBCH including the information encoded based on the Polar code, wherein the information for the PBCH includes (i) half-frame information and (ii) synchronization signal and PBCH block, SSB, index information, wherein the half-frame information is 1 bit and the SSB index information is 3 bits, wherein mapping the information for the PBCH to the input bit positions of the Polar code comprises: mapping the half-frame information to an input bit position 247 among input bit positions 0 to 511 of the Polar code, and mapping the SSB index information to input bit positions 253, 254, and 255 of the Polar code among the input bit positions 0 to 511 of the Polar code, and wherein a total payload size of the PBCH including the information is 56 bits. mapping (S1601) information for the PBCH to input bit positions of a Polar code of size N=512, based on a Polar sequence; encoding (S1603) the information for the PBCH based on the Polar code; and transmitting (S1605) the PBCH including the information encoded based on the Polar code, wherein the information for the PBCH includes (i) half-frame information and (ii) synchronization signal and PBCH block, SSB, index information, wherein the half-frame information is 1 bit and the SSB index information is 3 bits, wherein mapping the information for the PBCH to the input bit positions of the Polar code comprises: mapping the half-frame information to an input bit position 247 among input bit positions 0 to 511 of the Polar code, and mapping the SSB index information to input bit positions 253, 254, and 255 of the Polar code among the input bit positions 0 to 511 of the Polar code, and wherein a total payload size of the PBCH including the information is 56 bits. mapping the half-frame information to an input bit position 247 among input bit positions 0 to 511 of the Polar code, and mapping the SSB index information to input bit positions 253, 254, and 255 of the Polar code among the input bit positions 0 to 511 of the Polar code, and wherein a total payload size of the PBCH including the information is 56 bits.
Data transmission device for transmitting data packets , comprising - at least one receive interface (3 - 5) for receiving data packets from a respective data source (2 - 5), - a respective receive buffer (12 - 14) for buffering the data packets received via the respective receive interface (2 - 5), - a transfer device for transferring the data packets from the respective receive buffer (12 - 14) to a transmit buffer (16 - 18) selected for the respective data packet from a plurality of existing transmit buffers (16 - 18), and - a respective transmit interface (19 - 21) for transmitting the data packets stored in the respective transmit buffer (16 - 18) to a receiving device , wherein the transfer device is designed to transfer the respective data packet from the respective receive buffer (12 - 14) into the selected transmit buffer (16 - 18) only when an enable condition is fulfilled, the fulfilment of which depends on a fill level of one of the transmit buffers (16 - 18) other than the selected transmit buffer (16 - 18), characterised in that the fill level describes a length of a remaining partial data packet of another data packet previously transferred into the other transmit buffer (16 - 18), which partial data packet has not yet been transmitted via the transmit interface (19 - 21) assigned to the other transmit buffer (16 - 18), wherein the enable condition is fulfilled if the length of the data packet to be transferred to the selected transmit buffer (16 - 18) attains or exceeds the length of the partial data packet or the sum of the length of the partial data packet and a predetermined offset value . - at least one receive interface (3 - 5) for receiving data packets from a respective data source (2 - 5), - a respective receive buffer (12 - 14) for buffering the data packets received via the respective receive interface (2 - 5), - a transfer device for transferring the data packets from the respective receive buffer (12 - 14) to a transmit buffer (16 - 18) selected for the respective data packet from a plurality of existing transmit buffers (16 - 18), and - a respective transmit interface (19 - 21) for transmitting the data packets stored in the respective transmit buffer (16 - 18) to a receiving device ,
A liquid composition for producing a reflective coating, the composition comprising; diamond particles, and a binder which, when the liquid composition dries to form a solid coating, is transparent, characterised in that substantially all of the diamond particles have a largest dimension in the range of 35-175 μm and said diamond particles are visible and reflective in the solid coating. diamond particles, and a binder which, when the liquid composition dries to form a solid coating, is transparent, characterised in that substantially all of the diamond particles have a largest dimension in the range of 35-175 μm and said diamond particles are visible and reflective in the solid coating.
An organic vapor jet printing ,OVJP, apparatus comprising: an OVJP print head ; a first capacitive sensor physically connected to the OVJP print head ; a stage position adjustor configured to adjust the relative position of the OVJP print head and a substrate disposed below the OVJP print head; and a processing circuit in signal communication with the first capacitive sensor and the stage position adjustor and configured to provide a control signal to the stage position adjustor based upon a signal provided by the first capacitive sensor. an OVJP print head ; a first capacitive sensor physically connected to the OVJP print head ; a stage position adjustor configured to adjust the relative position of the OVJP print head and a substrate disposed below the OVJP print head; and a processing circuit in signal communication with the first capacitive sensor and the stage position adjustor and configured to provide a control signal to the stage position adjustor based upon a signal provided by the first capacitive sensor.
A tissue-removing catheter for removing tissue in a body lumen, the tissue-removing catheter comprising: an elongate body having an axis (LA) and proximal and distal end portions spaced apart from one another along the axis (LA), the elongate body being sized and shaped to be received in the body lumen; a tissue-removing element mounted on the distal end portion of the elongate body , the tissue-removing element being configured to remove the tissue as the tissue-removing element is rotated by the elongate body within the body lumen; an inner liner received within the elongate body , the inner liner defining a guidewire lumen ; and a sensor arranged with respect to the elongate body and inner liner and configured to detect wear of the inner liner caused by the elongate body contacting the inner liner during use. an elongate body having an axis (LA) and proximal and distal end portions spaced apart from one another along the axis (LA), the elongate body being sized and shaped to be received in the body lumen; a tissue-removing element mounted on the distal end portion of the elongate body , the tissue-removing element being configured to remove the tissue as the tissue-removing element is rotated by the elongate body within the body lumen; an inner liner received within the elongate body , the inner liner defining a guidewire lumen ; and a sensor arranged with respect to the elongate body and inner liner and configured to detect wear of the inner liner caused by the elongate body contacting the inner liner during use.
A sound processing apparatus comprising: a sound source position correction unit configured to correct sound source position information indicating a relation between a fixed position of an object sound source (OB 11) in a replay space and a moving hearing position of the sound, on a basis of a movement of the hearing position; and a reproduction area control unit configured to calculate a spatial frequency spectrum on a basis of an object sound source signal of a sound of the object sound source, the hearing position, and corrected sound source position information obtained by the correction, such that a reproduction area is adjusted in accordance with the movement of the hearing position provided inside a spherical or annular speaker array. a sound source position correction unit configured to correct sound source position information indicating a relation between a fixed position of an object sound source (OB 11) in a replay space and a moving hearing position of the sound, on a basis of a movement of the hearing position; and a reproduction area control unit configured to calculate a spatial frequency spectrum on a basis of an object sound source signal of a sound of the object sound source, the hearing position, and corrected sound source position information obtained by the correction, such that a reproduction area is adjusted in accordance with the movement of the hearing position provided inside a spherical or annular speaker array.
Rotating cleaner comprising a housing which has a cavity and an inlet which can be connected to a fluid supply line, comprising a shaft extending in sections into the cavity , comprising a spray body which has an interior space , which spray body is connected to the shaft for conjoint rotation therewith and includes at least one outlet opening , and comprising a bearing for rotatably supporting the shaft in the housing , wherein a fluid manifold (13; 13') configured for uniform distribution of fluid is arranged in the interior space , wherein the fluid manifold (13; 13') comprises a hollow body having a cylinder and a dome-shaped end face .
Installation system for the fastening of a sanitary fitting, for example of a toilet bowl or a urinal, including an installation frame , a rod which extends along a central axis (M) and has external toothing , a holding unit , which is connected to the installation frame , having a housing and at least one clamping jaw , which is mounted movably in the housing and comprises a toothed portion which matches the external toothing , via which holding unit the rod is movable into connection with the installation frame , wherein the clamping jaw is movable from an engagement position, in which the external toothing engages in the toothed portion , into a release position, in which the external toothing is located outside the toothed portion so that the rod is displaceable relative to the clamping jaw in the direction of the central axis (M), wherein the installation system additionally includes an installation tool , with which the clamping jaw is movable from the engagement position into the release position, characterized in that the installation tool comprises a sleeve portion with a sleeve chamber into which the rod extends during the installation, wherein the sleeve portion acts as installation protection for the rod , and wherein the sleeve chamber comprises a length (L) which receives in full the part of the rod which protrudes freely from the holding unit or from the installation frame , respectively, in such a manner that the rod is protected against external influences. an installation frame , a rod which extends along a central axis (M) and has external toothing , a holding unit , which is connected to the installation frame , having a housing and at least one clamping jaw , which is mounted movably in the housing and comprises a toothed portion which matches the external toothing , via which holding unit the rod is movable into connection with the installation frame , wherein the clamping jaw is movable from an engagement position, in which the external toothing engages in the toothed portion , into a release position, in which the external toothing is located outside the toothed portion so that the rod is displaceable relative to the clamping jaw in the direction of the central axis (M), wherein the installation system additionally includes an installation tool , with which the clamping jaw is movable from the engagement position into the release position, characterized in that the installation tool comprises a sleeve portion with a sleeve chamber into which the rod extends during the installation, wherein the sleeve portion acts as installation protection for the rod , and wherein the sleeve chamber comprises a length (L) which receives in full the part of the rod which protrudes freely from the holding unit or from the installation frame , respectively, in such a manner that the rod is protected against external influences.
A method of wireless communication performed by a user equipment, UE , comprising: receiving a single downlink control information, DCI, message identifying a plurality of semi-persistent scheduling, SPS, configurations to be jointly activated; determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the received DCI message and a beginning of one or more downlink, DL, data frames based on a first value carried in the DCI message ; and characterised by determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the one or more DL data frames and an instance in time at which the UE is to transmit a hybrid automatic repeat request acknowledgement, HARQ-ACK, based on a second value carried in the DCI message . receiving a single downlink control information, DCI, message identifying a plurality of semi-persistent scheduling, SPS, configurations to be jointly activated; determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the received DCI message and a beginning of one or more downlink, DL, data frames based on a first value carried in the DCI message ; and characterised by determining, for each SPS configuration of the plurality of SPS configurations, a number of time slots between an end of the one or more DL data frames and an instance in time at which the UE is to transmit a hybrid automatic repeat request acknowledgement, HARQ-ACK, based on a second value carried in the DCI message .