mhurhangee/patent-ind-claim-en huggingface dataset:
A delta image sensor comprising an arrangement of pixels and a plurality of acquisition circuits corresponding to at least one pixel and formed as part of an integrated circuit, each acquisition circuit including: at least one sensor circuit comprising a photosensor configured to generate a sensor signal, VSIG, depending on a light signal illuminating the photosensor of the at least one pixel; at least one analogue to digital conversion, A/D, circuit configured to generate a digital representation corresponding to a current VSIG; at least one digital storage circuit configured to store a digital representation of at least one signal corresponding to a previous VSIG; at least one digital comparison circuit configured to compare the level of the stored representation with the digital representation corresponding to the current VSIG to detect whether a changed level is present; and at least one digital output circuit configured to generate an event output under the condition of the changed level; wherein the digital storage circuit is configured to store a digital representation provided externally to the delta image sensor. at least one sensor circuit comprising a photosensor configured to generate a sensor signal, VSIG, depending on a light signal illuminating the photosensor of the at least one pixel; at least one analogue to digital conversion, A/D, circuit configured to generate a digital representation corresponding to a current VSIG; at least one digital storage circuit configured to store a digital representation of at least one signal corresponding to a previous VSIG; at least one digital comparison circuit configured to compare the level of the stored representation with the digital representation corresponding to the current VSIG to detect whether a changed level is present; and at least one digital output circuit configured to generate an event output under the condition of the changed level; wherein the digital storage circuit is configured to store a digital representation provided externally to the delta image sensor.
A dielectric insulating insert arranged to be positioned between a drive shaft and a ball shaft of a motorised ball valve assembly, the insert comprising a body of dielectric material to form an insulating layer being in the form of a plate with opposing sides from each of which extends an engagement portion having a non-circular cross-section and configured to engage, respectively, with the drive shaft and the ball shaft in torque transfer engagement; characterised in that the engagement portions define a series of rounded lobes and the insert comprises a substrate , a dielectric coating formed on the substrate and an outer adhesive layer around the engagement portions.
A user equipment , UE, the UE comprising a transceiver ; and a processor and configured to: transmit , to a base station , BS, via the transceiver , a message reporting a coherence capability of the UE for an indication of a transmit precoding matrix indicator, TPMI, and a number of layers; receive , from the BS via the transceiver , downlink control information, DCI, including the indication of the TPMI and the number of layers; and transmit , to the BS via the transceiver , uplink, UL, data via a physical uplink shared channel, PUSCH, based on the indication of the TPMI and the number of layers, wherein a number of bits included in the DCI including the indication of the TPMI and the number of layers is determined by a coherence state that depends on the coherence capability reported by the UE ; wherein the coherence state is one of three coherence states where each coherence state corresponds to a subset of a UL codebook for the indication of the TPMI and the number of layers; wherein the coherence state is configured for the UE by the BS not to exceed the coherence capability reported by the UE ; and wherein the coherence capability reported by the UE is one of full, partial, or non-coherence; for a first coherence state of the three coherence states, the subset of the UL codebook includes full, partial, and non-coherent precoders, for a second coherence state of the three coherence states, the subset of the UL codebook includes only the partial and non-coherent precoders, and for a third coherence state of the three coherence states, the subset of the UL codebook includes only the non-coherent precoders. transmit , to a base station , BS, via the transceiver , a message reporting a coherence capability of the UE for an indication of a transmit precoding matrix indicator, TPMI, and a number of layers; receive , from the BS via the transceiver , downlink control information, DCI, including the indication of the TPMI and the number of layers; and transmit , to the BS via the transceiver , uplink, UL, data via a physical uplink shared channel, PUSCH, based on the indication of the TPMI and the number of layers, wherein a number of bits included in the DCI including the indication of the TPMI and the number of layers is determined by a coherence state that depends on the coherence capability reported by the UE ; wherein the coherence state is one of three coherence states where each coherence state corresponds to a subset of a UL codebook for the indication of the TPMI and the number of layers; wherein the coherence state is configured for the UE by the BS not to exceed the coherence capability reported by the UE ; and wherein the coherence capability reported by the UE is one of full, partial, or non-coherence; for a first coherence state of the three coherence states, the subset of the UL codebook includes full, partial, and non-coherent precoders, for a second coherence state of the three coherence states, the subset of the UL codebook includes only the partial and non-coherent precoders, and for a third coherence state of the three coherence states, the subset of the UL codebook includes only the non-coherent precoders.
A method of wireless communication, comprising: receiving , by a user equipment , feedback configuration information that associates a plurality of admissible rank value sets to channel state information, CSI, feedback process sets, each admissible rank value set including at least one rank indicator, RI, and precoding matrix indicator, PMI, pair, RI-PMI pair, each CSI feedback process set including at least one CSI feedback process, and each CSI feedback process being based on an admissible rank value set from the plurality of admissible rank value sets; wherein receiving the feedback configuration information comprises receiving a bitmap specifying an admissible rank value set associated to each CSI feedback process set, and conditioning each CSI feedback process set by the admissible rank value set by determining at least one RI from the admissible rank value set specified in the bitmap; determining a selected admissible rank value set based on the plurality of admissible rank value sets, the selecting being based on signaling from a base station; determining at least one RI-PMI pair corresponding to the selected admissible rank value set; determining at least one channel quality indicator, CQI, each CQI corresponding to one of the at least one RI-PMI pair; and transmitting a CSI report including the at least one RI-PMI pair and the at least one CQI to the base station. receiving , by a user equipment , feedback configuration information that associates a plurality of admissible rank value sets to channel state information, CSI, feedback process sets, each admissible rank value set including at least one rank indicator, RI, and precoding matrix indicator, PMI, pair, RI-PMI pair, each CSI feedback process set including at least one CSI feedback process, and each CSI feedback process being based on an admissible rank value set from the plurality of admissible rank value sets; wherein receiving the feedback configuration information comprises receiving a bitmap specifying an admissible rank value set associated to each CSI feedback process set, and conditioning each CSI feedback process set by the admissible rank value set by determining at least one RI from the admissible rank value set specified in the bitmap; determining a selected admissible rank value set based on the plurality of admissible rank value sets, the selecting being based on signaling from a base station; determining at least one RI-PMI pair corresponding to the selected admissible rank value set; determining at least one channel quality indicator, CQI, each CQI corresponding to one of the at least one RI-PMI pair; and transmitting a CSI report including the at least one RI-PMI pair and the at least one CQI to the base station.
A manufacturing method for a rotary electric machine including a rotor and a stator placed on an outer circumference side of the rotor, wherein the stator includes a stator core and stator coils , the stator core includes an inner ring core composed of a plurality of teeth extending in a radial direction and arranged so as to be spaced from each other in a circumferential direction, and a connection portion connecting inner circumferential portions of the plurality of teeth ; and an outer ring core formed in a cylindrical shape and to be joined to outer circumferential surfaces of the plurality of teeth , slots formed between the adjacent teeth of the stator core each having a circumferential direction width on an inner circumference side of the slots smaller than a circumferential direction width on an outer circumference side of the slots so that a circumferential direction width of the teeth is substantially constant along the radial direction, and the stator coils are composed of a plurality of connected conductive coils obtained by shaping a conductive wire, the conductive coils including a plurality of slot accommodated portions placed in the slots , and a plurality of coil end portions connecting the plurality of slot accommodated portions outside the slots , the manufacturing method comprising: - an insertion placement step of inserting the slot accommodated portions of the conductive coils between the teeth , thereby placing the plurality of conductive coils in the slots of the inner ring core , wherein the insertion placement step comprises forming in advance the plurality of conductive coils in a cylindrical shape, placing the slot accommodated portions on the outer circumferential side in the radial direction outside the slots , and then collectively inserting the slot accommodated portions radially inwards, thereby compressing the conductive coils ; - a core coupling step of joining and attaching the outer ring core to an outer circumferential surface of the inner ring core in which the plurality of conductive coils are inserted and placed; and - a joining step of joining terminal portions of the plurality of conductive coils to form the stator coil . - an insertion placement step of inserting the slot accommodated portions of the conductive coils between the teeth , thereby placing the plurality of conductive coils in the slots of the inner ring core , wherein the insertion placement step comprises forming in advance the plurality of conductive coils in a cylindrical shape, placing the slot accommodated portions on the outer circumferential side in the radial direction outside the slots , and then collectively inserting the slot accommodated portions radially inwards, thereby compressing the conductive coils ; - a core coupling step of joining and attaching the outer ring core to an outer circumferential surface of the inner ring core in which the plurality of conductive coils are inserted and placed; and - a joining step of joining terminal portions of the plurality of conductive coils to form the stator coil .
A polylactic acid resin, comprising: a hard segment comprising a polylactic acid repeating unit of the following Chemical Formula 1; and a soft segment comprising a polyurethane polyol repeating unit in which polyether polyol repeating units of the following Chemical Formula 2 are linearly linked via a urethane bond, wherein the polylactic acid resin has a glass transition temperature (Tg) of 22 to 55°C , and wherein the glass transition temperature is determined as disclosed in the description : wherein A is a linear or branched alkylene of 2 to 5 carbon atoms, m is an integer of 10 to 100, and n is an integer of 700 to 5000. a hard segment comprising a polylactic acid repeating unit of the following Chemical Formula 1; and a soft segment comprising a polyurethane polyol repeating unit in which polyether polyol repeating units of the following Chemical Formula 2 are linearly linked via a urethane bond, wherein the polylactic acid resin has a glass transition temperature (Tg) of 22 to 55°C , and wherein the glass transition temperature is determined as disclosed in the description : wherein A is a linear or branched alkylene of 2 to 5 carbon atoms, m is an integer of 10 to 100, and n is an integer of 700 to 5000.
A piezoelectric device comprising: a first electrode layer ; a second electrode layer ; and a piezoelectric layer provided between the first electrode layer and the second electrode layer , wherein the first electrode layer , the piezoelectric layer , and the second electrode layer are stacked in this order on a substrate , wherein the piezoelectric layer is formed of a ZnO-based material having a wurtzite crystal structure to which a metal that does not cause the piezoelectric layer to exhibit conductivity is added and wherein the metal is Mg, characterised in that a Mg content with respect to a total amount of Zn and Mg is 4 atom% to 30 atom%, and a squared value of an electromechanical coupling coefficient in thickness vibration mode, k t 2 , is 6.5% or more. a first electrode layer ; a second electrode layer ; and a piezoelectric layer provided between the first electrode layer and the second electrode layer , wherein the first electrode layer , the piezoelectric layer , and the second electrode layer are stacked in this order on a substrate , wherein the piezoelectric layer is formed of a ZnO-based material having a wurtzite crystal structure to which a metal that does not cause the piezoelectric layer to exhibit conductivity is added and wherein the metal is Mg, characterised in that a Mg content with respect to a total amount of Zn and Mg is 4 atom% to 30 atom%, and a squared value of an electromechanical coupling coefficient in thickness vibration mode, k t 2 , is 6.5% or more.
A method of monitoring a kinematically redundant robot , wherein the method comprises the steps of: detecting (S10, S20) joint forces ( τ , τ̂ e ), acting in joints of the robot; determining (S30) an external effective force ( f̂ W ) between a reference (TCP) fixed with respect to the robot and an environment on the basis of the detected joint forces; determining (S40), on the basis of the detected joint forces, a further monitoring variable τ̂ NS ) which is at least substantially independent of an external force acting on the reference fixed with respect to the robot; and monitoring (S50, S60) the determined external effective force and the determined further monitoring variable, wherein joint forces are mapped onto the external effective force by means of a linear mapping, in particular a pseudo inverse of a transposed Jacobian matrix of the reference fixed with respect to the robot, and the same joint forces are mapped onto the further monitoring variable by means of a further linear mapping, in particular by means of a null space projection operator of the pseudo inverse of the transposed Jacobian matrix of the reference fixed with respect to the robot. detecting (S10, S20) joint forces ( τ , τ̂ e ), acting in joints of the robot; determining (S30) an external effective force ( f̂ W ) between a reference (TCP) fixed with respect to the robot and an environment on the basis of the detected joint forces; determining (S40), on the basis of the detected joint forces, a further monitoring variable τ̂ NS ) which is at least substantially independent of an external force acting on the reference fixed with respect to the robot; and monitoring (S50, S60) the determined external effective force and the determined further monitoring variable, wherein joint forces are mapped onto the external effective force by means of a linear mapping, in particular a pseudo inverse of a transposed Jacobian matrix of the reference fixed with respect to the robot, and the same joint forces are mapped onto the further monitoring variable by means of a further linear mapping, in particular by means of a null space projection operator of the pseudo inverse of the transposed Jacobian matrix of the reference fixed with respect to the robot.
Securing element for connecting a ligament to a bone part of a human or animal, comprising: a ligament coupling element in wire, thread or ribbon form, which is adapted to be connected to the ligament; and a clamping element which is adapted to be connected to the bone part, and which comprises a first clamping part and a second clamping part being movable to the first clamping part , the first clamping part being provided with a first surface and the second clamping part being provided with a corresponding second surface on a side facing the first clamping part , for clamping at least part of the ligament coupling element between the first surface and the second surface , characterized by : a stressing element adapted to engage the first clamping part and the second clamping part , the stressing element being adapted to provide a force pressing the first surface and the second surface towards one another; and an actuating element adapted to move the first surface and the second surface away from each other against the force provided by the stressing element . a ligament coupling element in wire, thread or ribbon form, which is adapted to be connected to the ligament; and a clamping element which is adapted to be connected to the bone part, and which comprises a first clamping part and a second clamping part being movable to the first clamping part , the first clamping part being provided with a first surface and the second clamping part being provided with a corresponding second surface on a side facing the first clamping part , for clamping at least part of the ligament coupling element between the first surface and the second surface , a stressing element adapted to engage the first clamping part and the second clamping part , the stressing element being adapted to provide a force pressing the first surface and the second surface towards one another; and an actuating element adapted to move the first surface and the second surface away from each other against the force provided by the stressing element .
A pharmaceutical composition for use in the topical treatment of bacterial vaginosis containing, as active ingredients, polysorbate and metronidazole, wherein the weight ratio of polysorbate to metronidazole is from 1.2:1 to 5:1, and wherein said polysorbate is selected from the group consisting of polysorbate 80, polysorbate 60, polysorbate 40 and polysorbate 20.
Protective film removing device having a first removing station (S1) for detaching a protective film from a first lens surface of an optical lens , - with a lens holder , o wherein the lens holder has an imaginary central axis (A) which is aligned transversely to the first lens surface when the optical lens is mounted, - with at least one fluid nozzle with a nozzle outlet channel , and - with a pivot bearing between the lens holder and the fluid nozzle(s) , o wherein the pivot bearing is designed such that a relative movement about the central axis (A) can be executed with the fluid nozzle or nozzles , wherein the nozzle outlet channel of the fluid nozzles is aligned inwards in each case, characterized in that - a lifting device is formed between the lens holder and the fluid nozzle or nozzles in such a way that a movement relative to the lens holder can be carried out with the fluid nozzle or nozzles , which movement is aligned along the central axis (A). - with a lens holder , o wherein the lens holder has an imaginary central axis (A) which is aligned transversely to the first lens surface when the optical lens is mounted, o wherein the lens holder has an imaginary central axis (A) which is aligned transversely to the first lens surface when the optical lens is mounted, - with at least one fluid nozzle with a nozzle outlet channel , and - with a pivot bearing between the lens holder and the fluid nozzle(s) , o wherein the pivot bearing is designed such that a relative movement about the central axis (A) can be executed with the fluid nozzle or nozzles , wherein the nozzle outlet channel of the fluid nozzles is aligned inwards in each case, o wherein the pivot bearing is designed such that a relative movement about the central axis (A) can be executed with the fluid nozzle or nozzles , wherein the nozzle outlet channel of the fluid nozzles is aligned inwards in each case, - a lifting device is formed between the lens holder and the fluid nozzle or nozzles in such a way that a movement relative to the lens holder can be carried out with the fluid nozzle or nozzles , which movement is aligned along the central axis (A).
A three-dimensional fabric item, e.g. useable as a reinforcement for a composite material, comprising at least one, and preferably at least two, complementary fabric(s) (CF; CF1, CF2) and at least one, and preferably at least two, interacting woven fabric(s) (A; A1, A2), wherein the interacting woven fabric comprises interlaced warps (P) and wefts (G), wherein at least some of the warps and/or wefts of the interacting woven fabric penetrate through the complementary fabric (CF; CF1, CF2) in the thickness direction, whereby the complementary fabric (CF; CF1, CF2) and interacting woven fabric (A; A1, A2) are connected to each other at their intersecting junction forming a three-dimensional fabric item a structural architecture of said at least one interacting woven fabric (A; A1; A2) being individual single woven layer(s), characterized in that the complementary fabric (CF; CF1, CF2) is a pre-produced, in itself structurally stable, fabric, and in that said at least one complementary fabric (CF; CF1, CF2) and at least one interacting woven fabric (A; A1, A2) have relatively different structural architectures, the structural architecture of said at least one complementary fabric (CF; CF1, CF") comprising at least one of woven 2.5D fabric, wherein constituent yarns are disposed in two mutually perpendicular planes, woven 3D fabric, wherein constituent yarns are disposed in three mutually perpendicular planes, knitted, braided, any type of non-woven fabric, laced, embroidered, non-crimp fabric, unidirectional, net and pile type fabric.
Method for operating an electric motor for an electric brake device , in particular for an electric parking brake of a vehicle, in particular motor vehicle, wherein the brake device can be moved to a first operating state by operation of the electric motor in a first direction of rotation and to a second operating state by operation of the electric motor in a second direction of rotation which is different from the first direction of rotation, characterized in that the method comprises the following steps: determination , in particular by means of an apparatus , of a first variable which characterizes an internal resistance of the electric motor , comparison , in particular by means of the device , of the first variable with a specifiable first threshold value, actuation of the electric motor , in particular by means of the apparatus , for a specifiable first actuation period in the sense of that direction of rotation which corresponds to a current operating state of the brake device when the comparison shows that the first variable exceeds the first threshold value.