mhurhangee/patent-ind-claim-en huggingface dataset:
A MU-MIMO wireless communications base station that comprises: an array of multiple antennas to exchange uplink and downlink signals with spatially-distributed user terminals; multiple transmit chains, each coupled to one of the multiple antennas in said array by a respective transceiver that also couples said one of the multiple antennas to a respective one of multiple receive chains, wherein each receive chain derives estimated uplink channel response coefficients opportunistically from the wireless uplink signals; and a controller that determines a steering transform based on the estimated channel response coefficients, wherein the transmit chains apply the steering transform to spatially-distinct downlink signals to produce antenna-specific downlink signals for each antenna in the array; wherein the estimated uplink channel response coefficients are determined on a per user terminal antenna basis for each antenna in said array, and wherein the controller monitors, for each user terminal antenna, an elapsed time since that user terminal antenna's estimated uplink channel coefficients were derived; wherein upon determining that the elapsed time exceeds a threshold, the controller refreshes the estimated uplink channel response coefficient for that user terminal antenna by initiating a wireless packet exchange with that user terminal antenna; wherein the controller derives, from the estimated channel response coefficients, a mobility indicator for each user terminal antenna, and wherein the threshold depends on the mobility indicator for that user terminal antenna. an array of multiple antennas to exchange uplink and downlink signals with spatially-distributed user terminals; multiple transmit chains, each coupled to one of the multiple antennas in said array by a respective transceiver that also couples said one of the multiple antennas to a respective one of multiple receive chains, wherein each receive chain derives estimated uplink channel response coefficients opportunistically from the wireless uplink signals; and a controller that determines a steering transform based on the estimated channel response coefficients, wherein the transmit chains apply the steering transform to spatially-distinct downlink signals to produce antenna-specific downlink signals for each antenna in the array; wherein the estimated uplink channel response coefficients are determined on a per user terminal antenna basis for each antenna in said array, and wherein the controller monitors, for each user terminal antenna, an elapsed time since that user terminal antenna's estimated uplink channel coefficients were derived; wherein upon determining that the elapsed time exceeds a threshold, the controller refreshes the estimated uplink channel response coefficient for that user terminal antenna by initiating a wireless packet exchange with that user terminal antenna; wherein the controller derives, from the estimated channel response coefficients, a mobility indicator for each user terminal antenna, and wherein the threshold depends on the mobility indicator for that user terminal antenna.
Measuring arrangement for detecting the wall thickness of a pipe , comprising a testing head having an ultrasound probe and having a main body which receives the ultrasound probe and which, on its underside , defines a main body support surface , characterized in that the testing head has two wing elements which, on their undersides , define in each case one wing element support surface and which are held on the main body so as to be pivotable about pivot axes (A 1 , A 2 ), extending substantially parallel to one another and in a longitudinal direction (L), such that the wing element support surfaces can be moved towards one another and away from one another, characterized in that the wing elements are connected to one another via synchronization means , in particular in the form of synchronization toothings which mesh into one another, such that their pivoting movements about the associated pivot axes (A 1 , A 2 ) are realized synchronously.
Skin treatment device, comprising: - a housing with a handle section , - a skin treatment element rotatable around a rotational axis , - a protective rim arranged stationary at said housing and having an axial skin contact surface configured and arranged to support the skin of a user during use, wherein said skin treatment element is rotatable in relation to said protective rim, and - a drive mechanism for driving the skin treatment element in a rotational movement about said rotational axis, wherein said skin treatment element has an axial abrasive treatment surface which is accessible for skin treatment through an axial opening of the protective rim, wherein said axial opening extends over an angular range of 360° about said rotational axis, characterized in that said skin treatment element further has a circumferential abrasive treatment surface having an at least partially radial orientation, wherein said protective rim circumferentially encases said skin treatment element partially over an angular range of more than 120° and less than 330° about said rotational axis , such that the circumferential abrasive treatment surface is accessible for skin treatment in an area extending over an angular range of 30° to 240° about the rotational axis. - a housing with a handle section , - a skin treatment element rotatable around a rotational axis , - a protective rim arranged stationary at said housing and having an axial skin contact surface configured and arranged to support the skin of a user during use, wherein said skin treatment element is rotatable in relation to said protective rim, and - a drive mechanism for driving the skin treatment element in a rotational movement about said rotational axis, wherein said skin treatment element has an axial abrasive treatment surface which is accessible for skin treatment through an axial opening of the protective rim, wherein said axial opening extends over an angular range of 360° about said rotational axis, characterized in that said skin treatment element further has a circumferential abrasive treatment surface having an at least partially radial orientation, wherein said protective rim circumferentially encases said skin treatment element partially over an angular range of more than 120° and less than 330° about said rotational axis , such that the circumferential abrasive treatment surface is accessible for skin treatment in an area extending over an angular range of 30° to 240° about the rotational axis.
Injection molding device having an injection mold which has at least one mold cavity for at least partially accommodating a functional part and for molding a plastic molding onto the functional part to form a multicomponent part , in particular a syringe , wherein the injection molding device has at least one first functional part holder for a first type of functional part and at least one further functional part holder for a further type of functional part, and/or at least one placeholder element , and wherein the injection molding device comprises a changing device , by means of which the first functional part holder and the at least one further functional part holder and/or the placeholder element as a placeholder for a functional part holder can optionally be positioned in the respective use position thereof on the mold cavity , characterized in that the changing device comprises at least one rotary holder , on which the at least one first functional part holder and the at least one further functional part holder and the at least one placeholder element are arranged and/or formed, wherein the changing device has a driving device for the at least one rotary holder . and/or at least one placeholder element , and wherein the injection molding device comprises a changing device , by means of which the first functional part holder and the at least one further functional part holder and/or the placeholder element as a placeholder for a functional part holder can optionally be positioned in the respective use position thereof on the mold cavity , characterized in that the changing device comprises at least one rotary holder , on which the at least one first functional part holder and the at least one further functional part holder and the at least one placeholder element are arranged and/or formed, wherein the changing device has a driving device for the at least one rotary holder .
A therapeutic agent containing a nucleic acid consisting of a nucleotide sequence of hsa-miR-634 (SEQ ID NO: 2) for use in the treatment of cancer in which NRF2 is stabilized.
An apparatus for monitoring a load and/or an integrity of a mechanical object , comprising: - an optical waveguide , for attaching to the mechanical object ; - a transmitter for transmitting a signal through the optical waveguide ; - a plurality of receivers (103 - 108, 304) for receiving the signal from the optical waveguide , - a controller for determining a time-of-flight, on the basis of the transmitted signal and the received signals, wherein the optical waveguide is to be arranged as a web on the outer surface and/or within the mechanical object ; and wherein the transmitter functions also as the controller which is configured to compare the times-of-flight measured by the different receivers to their respective reference times. - an optical waveguide , for attaching to the mechanical object ; - a transmitter for transmitting a signal through the optical waveguide ; - a plurality of receivers (103 - 108, 304) for receiving the signal from the optical waveguide , - a controller for determining a time-of-flight, on the basis of the transmitted signal and the received signals, wherein the optical waveguide is to be arranged as a web on the outer surface and/or within the mechanical object ; and wherein the transmitter functions also as the controller which is configured to compare the times-of-flight measured by the different receivers to their respective reference times.
A micro device pick up array comprising: a base substrate having a via ; a membrane over the via ; a plug within the via and coupled to the base substrate by the membrane , wherein a gap separates the plug from the base substrate ; and an array of electrostatic transfer heads electrically coupled with the plug ; wherein the base substrate and the plug are formed of silicon. a base substrate having a via ; a membrane over the via ; a plug within the via and coupled to the base substrate by the membrane , wherein a gap separates the plug from the base substrate ; and an array of electrostatic transfer heads electrically coupled with the plug ; wherein the base substrate and the plug are formed of silicon.
A product with a conductive pattern comprising a substrate, and a conductive pattern formed on the surface of the substrate, wherein the conductive pattern has a circuit with a line width of not less than 1.0 μm and not more than 1000 μm, and the circuit comprises reduced copper, phosphorus, and voids. a substrate, and a conductive pattern formed on the surface of the substrate, wherein the conductive pattern has a circuit with a line width of not less than 1.0 μm and not more than 1000 μm, and the circuit comprises reduced copper, phosphorus, and voids.
A stator having an annular shape, comprising: a stator core that is annular in shape and comprises a tooth , the tooth including a circumferentially side surface , and an axially upper surface ; an insulating body including a side wall that covers the circumferentially side surface of the tooth , and an upper wall that covers the axially upper surface of the tooth , a radially inner side end surface of the upper wall being positioned farther toward a radially outer side than a radially inner side end surface of the side wall ; a coil ; and a resin-molded product (D) that covers the coil , the insulating body further defining a notch in the upper wall oft the insulating body , characterized in that the insulating body further includes a hook , and the notch is positioned at a location towards which the hook bends. a stator core that is annular in shape and comprises a tooth , the tooth including a circumferentially side surface , and an axially upper surface ; a circumferentially side surface , and an axially upper surface ; an insulating body including a side wall that covers the circumferentially side surface of the tooth , and an upper wall that covers the axially upper surface of the tooth , a radially inner side end surface of the upper wall being positioned farther toward a radially outer side than a radially inner side end surface of the side wall ; a coil ; and a resin-molded product (D) that covers the coil , the insulating body further defining a notch in the upper wall oft the insulating body , characterized in that the insulating body further includes a hook , and the notch is positioned at a location towards which the hook bends. a side wall that covers the circumferentially side surface of the tooth , and an upper wall that covers the axially upper surface of the tooth , a radially inner side end surface of the upper wall being positioned farther toward a radially outer side than a radially inner side end surface of the side wall ; a coil ; and a resin-molded product (D) that covers the coil , the insulating body further defining a notch in the upper wall oft the insulating body , characterized in that the insulating body further includes a hook , and the notch is positioned at a location towards which the hook bends.
A power control implementation method, applied to a first communication node, comprising: reporting the following information to a second communication node: power scaling factors for different codewords or different codeword groups; acquiring information about transmit precoding matrix indicator, TPMI; determining at least one precoding codeword in a preconfigured precoding codeword set according to the information about TPMI; and performing transmission to the second communication node according to the at least one precoding codeword. reporting the following information to a second communication node: power scaling factors for different codewords or different codeword groups; acquiring information about transmit precoding matrix indicator, TPMI; determining at least one precoding codeword in a preconfigured precoding codeword set according to the information about TPMI; and performing transmission to the second communication node according to the at least one precoding codeword.
A method for aiding health care personnel in dressing hosiery on a person with reduced mobility, said method comprises the steps of: • placing said person with reduced mobility in a chair comprising a tiltable leg rest , wherein said tiltable leg rest comprises at least one first free-rolling roller arranged to support a first leg of said person and at least one second free-rolling roller arranged to support a second leg of said person, • tilting said tiltable leg rest upward, wherein • sliding said hosiery onto one of said first leg and said second leg of said person so that at least a part of said hosiery slides between said first leg and said first free-rolling roller , or between said second leg and said second free-rolling roller , wherein said first free-rolling roller rotates around a first rotation axis and said second free-rolling roller rotates around a second rotation axis and wherein said first rotation axis and said second rotation axis are transverse in relation to a longitudinal direction of the legs of said person with reduced mobility. • placing said person with reduced mobility in a chair comprising a tiltable leg rest , wherein said tiltable leg rest comprises at least one first free-rolling roller arranged to support a first leg of said person and at least one second free-rolling roller arranged to support a second leg of said person, • tilting said tiltable leg rest upward, wherein • sliding said hosiery onto one of said first leg and said second leg of said person so that at least a part of said hosiery slides between said first leg and said first free-rolling roller , or between said second leg and said second free-rolling roller , wherein said first free-rolling roller rotates around a first rotation axis and said second free-rolling roller rotates around a second rotation axis and wherein said first rotation axis and said second rotation axis are transverse in relation to a longitudinal direction of the legs of said person with reduced mobility.
Device for fastening plate-shaped elements to flat carrier elements arranged thereunder, with a fastening screw engaging through a hole in the plate-shaped element , which can be fastened to the flat carrier element, wherein a plate-shaped fastening element is provided which can be inserted in the hole in the plate-shaped element , which rests with a circumferential edge region on the rim of the hole and has a central through-opening for the fastening screw , wherein the screw head of the fastening screw rests adjoining the central through-opening in the region of the plate-shaped element located inside the hole in the plate-shaped element , characterised in that the fastening screw is formed as a self-tapping fastening screw that can be screwed into the carrier element .
A tire comprising: a tread portion being provided with a pair of circumferentially and continuously extending shoulder main grooves and at least one crown main groove between the shoulder main grooves to form a pair of middle portions each of which is between one crown main groove and one shoulder main groove arranged adjacently; and each of the middle portions being provided with a longitudinal sipe , a plurality of inner middle sipes extending axially outwardly from the crown main groove and terminating without reaching the longitudinal sipe and a plurality of outer middle sipes extending axially inwardly from the shoulder main groove and terminating without reaching the longitudinal sipe , wherein the number of the outer middle sipes is greater than the number of the inner middle sipes , and wherein the longitudinal sipe is circumferentially and continuously extending, characterized in that no other grooves or sipes are provided on each of the middle portions than the longitudinal sipe , the plurality of inner middle sipes and the plurality of outer middle sipes . a tread portion being provided with a pair of circumferentially and continuously extending shoulder main grooves and at least one crown main groove between the shoulder main grooves to form a pair of middle portions each of which is between one crown main groove and one shoulder main groove arranged adjacently; and each of the middle portions being provided with a longitudinal sipe , a plurality of inner middle sipes extending axially outwardly from the crown main groove and terminating without reaching the longitudinal sipe and a plurality of outer middle sipes extending axially inwardly from the shoulder main groove and terminating without reaching the longitudinal sipe , wherein the number of the outer middle sipes is greater than the number of the inner middle sipes , and wherein the longitudinal sipe is circumferentially and continuously extending, characterized in that no other grooves or sipes are provided on each of the middle portions than the longitudinal sipe , the plurality of inner middle sipes and the plurality of outer middle sipes .
A pullulanase variant comprising the substitutions N368G+N393A+A492S, using SEQ ID NO: 3 for numbering wherein the variant has pullulanase activity; and wherein the variant has at least 95%, at least 96%, at least 97%, at least 98%, or at least 99%, or 100% sequence identity to the polypeptide of SEQ ID NO: 21, and wherein the variant has increased thermoactivity compared to the parent pullulanase of SEQ ID NO: 19, and wherein the increase in thermoactivity is determined as relative activity when measured at 70°C relative to activity at 65°C using the PHADEBAS assay.
A method for changing the shape of a flexible communication device, the method comprising: - recognizing (3:1) a request for actuating a haptic effect on the communication device; - initiating determination (3:2) of at least one property associated with the requested haptic effect; - initiating determination (3:3) of at least one property of the communication device, the at least one property of the communication device being caused by the shape of the communication device; - initiating, based on said properties, a determination (3:4) on whether conditions, specifying requirements for reproducing the haptic effect on the communication device, are met or not; and - initiating, in case said conditions are not met, determination (3:5) of a modification of the shape of the device, such that said conditions are met with respect to said properties. - recognizing (3:1) a request for actuating a haptic effect on the communication device; - initiating determination (3:2) of at least one property associated with the requested haptic effect; - initiating determination (3:3) of at least one property of the communication device, the at least one property of the communication device being caused by the shape of the communication device; - initiating, based on said properties, a determination (3:4) on whether conditions, specifying requirements for reproducing the haptic effect on the communication device, are met or not; and - initiating, in case said conditions are not met, determination (3:5) of a modification of the shape of the device, such that said conditions are met with respect to said properties.
A method comprising: performing a beacon position determination process with respect to at least one beacon usable for range determination by a robotic vehicle responsive to initiation of operation of the robotic vehicle ; determining a position of the at least one beacon based on the position determination process ; and employing the position of the at least one beacon as determined for position information determination of the robotic vehicle during continued operation of the robotic vehicle , the method being characterized in that performing the beacon position determination process comprises: receiving information indicative of a known initial position of the robotic vehicle ; measuring a first range to the at least one beacon at the known initial position ; receiving movement information regarding movement of the robotic vehicle away from the known initial position ; measuring a second range to the at least one beacon after the movement of the robotic vehicle ; and estimating the position of the at least one beacon based on a combination of a change between the first and second range values and the movement information. performing a beacon position determination process with respect to at least one beacon usable for range determination by a robotic vehicle responsive to initiation of operation of the robotic vehicle ; determining a position of the at least one beacon based on the position determination process ; and employing the position of the at least one beacon as determined for position information determination of the robotic vehicle during continued operation of the robotic vehicle , the method being characterized in that performing the beacon position determination process comprises: receiving information indicative of a known initial position of the robotic vehicle ; measuring a first range to the at least one beacon at the known initial position ; receiving movement information regarding movement of the robotic vehicle away from the known initial position ; measuring a second range to the at least one beacon after the movement of the robotic vehicle ; and receiving information indicative of a known initial position of the robotic vehicle ; measuring a first range to the at least one beacon at the known initial position ; receiving movement information regarding movement of the robotic vehicle away from the known initial position ; measuring a second range to the at least one beacon after the movement of the robotic vehicle ; and estimating the position of the at least one beacon based on a combination of a change between the first and second range values and the movement information.