mhurhangee/patent-ind-claim-en huggingface dataset:
A driving power supply device that is configured to supply electric power to a plurality of drive circuits that individually drive a plurality of switching elements included in an inverter that is configured to convert electric power between direct current and alternating current of a plurality of phases, the driving power supply device comprising: a plurality of transformers (L) each including a pair of primary-side coils (Lp) and a pair of secondary-side coils (Ls) coupled to the primary-side coils (Lp) in an electrically isolated state, the pair of secondary-side coils (Ls) being individually connected to the respective corresponding drive circuits ; a plurality of transformer driving units each including a pair of driving switching elements (M) whose switching control is complementarily performed by a pair of inverted transformer drive signals (MG), wherein each driving switching element (M) is connected to a corresponding one of the pair of primary-side coils (Lp) and is configured to control supply of electric power to the corresponding one of the pair of primary-side coils (Lp); and a power supply control device that is configured to provide the transformer drive signals (MG) for driving the transformer driving units , wherein the power supply control device is configured to drive the transformer driving units by the transformer drive signals (MG) having different phases. a plurality of transformers (L) each including a pair of primary-side coils (Lp) and a pair of secondary-side coils (Ls) coupled to the primary-side coils (Lp) in an electrically isolated state, the pair of secondary-side coils (Ls) being individually connected to the respective corresponding drive circuits ; a plurality of transformer driving units each including a pair of driving switching elements (M) whose switching control is complementarily performed by a pair of inverted transformer drive signals (MG), wherein each driving switching element (M) is connected to a corresponding one of the pair of primary-side coils (Lp) and is configured to control supply of electric power to the corresponding one of the pair of primary-side coils (Lp); and a power supply control device that is configured to provide the transformer drive signals (MG) for driving the transformer driving units , wherein the power supply control device is configured to drive the transformer driving units by the transformer drive signals (MG) having different phases.
A network side device, wherein the network side device comprises a processor and a communications interface , wherein the processor is configured to determine N fixed channels based on preconfigured frequencies, wherein N is an integer greater than or equal to 2; the processor is configured to determine a first fixed channel from the N fixed channels, wherein the first fixed channel is M channels in the N fixed channels, M≤N, and M is a positive integer; the processor is configured to control the communications interface to send a discovery reference signal, DRS, on the first fixed channel, wherein the DRS comprises at least one of a synchronization signal, broadcast information, and a system message; and the processor is configured to control the communications interface to perform, through frequency hopping, data transmission with a user terminal on a data channel, wherein the data channel is all or some channels other than the N fixed channels; wherein when the discovery reference signal, DRS, is sent on the first fixed channel, the processor is configured to control the communications interface to send the DRS on the first fixed channel in one sending time window, wherein the sending time window is a time interval for sending the DRS; and wherein before the DRS is sent on the first fixed channel in one sending time window, the processor is further configured to control the communications interface to perform a clear channel assessment, CCA, on the first fixed channel in the sending time window; the processor is further configured to calculate a first remaining time length in the sending time window when an assessment result of the CCA indicates that the first fixed channel is occupied; and the processor is further configured to control, when the first remaining time length is not less than a sum of a time length for performing the CCA for one time and a time length for sending the DRS for one time, the communications interface to re-perform the CCA on the first fixed channel; and when the DRS is sent on the first fixed channel in one sending time window, the processor is specifically configured to control, when an assessment result of the re-performed CCA indicates that the first fixed channel is idle, the communications interface to send the DRS on the first fixed channel.
A motor control device for controlling a motor having a first winding and a second winding whose response to a current command is slower than that of the first winding, the motor control device comprising: a current command calculation unit adapted to calculate current commands (id1 * , iq1 * , id2 * , iq2 * , i f*) for the first winding and the second winding on the basis of a torque command (T*) for the motor and the motor parameter , wherein the current command calculation unit includes a first calculation unit adapted to calculate a first current command (id1 * , iq1 * , id2 * , iq2 *) for the first winding, a second calculation unit adapted to calculate a second current command (if*) for the second winding, characterized by a parameter acquisition unit adapted to regularly acquire motor state data indicating a state of the motor , and acquire a motor parameter corresponding to the motor state data , a response delay reproduction unit adapted to reproduce, in the second current command (if*), response delay of the second winding relative to the second current command (if*), and in that the first calculation unit is adapted to calculate the first current command (id1*,iq1*,id2*,iq2*), using the second current command (if*) in which the response delay is reproduced. a current command calculation unit adapted to calculate current commands (id1 * , iq1 * , id2 * , iq2 * , i f*) for the first winding and the second winding on the basis of a torque command (T*) for the motor and the motor parameter , wherein the current command calculation unit includes a first calculation unit adapted to calculate a first current command (id1 * , iq1 * , id2 * , iq2 *) for the first winding, a second calculation unit adapted to calculate a second current command (if*) for the second winding, characterized by a parameter acquisition unit adapted to regularly acquire motor state data indicating a state of the motor , and acquire a motor parameter corresponding to the motor state data , a response delay reproduction unit adapted to reproduce, in the second current command (if*), response delay of the second winding relative to the second current command (if*), and in that a first calculation unit adapted to calculate a first current command (id1 * , iq1 * , id2 * , iq2 *) for the first winding, a second calculation unit adapted to calculate a second current command (if*) for the second winding, characterized by a parameter acquisition unit adapted to regularly acquire motor state data indicating a state of the motor , and acquire a motor parameter corresponding to the motor state data , a response delay reproduction unit adapted to reproduce, in the second current command (if*), response delay of the second winding relative to the second current command (if*), and in that the first calculation unit is adapted to calculate the first current command (id1*,iq1*,id2*,iq2*), using the second current command (if*) in which the response delay is reproduced.
An apparatus for heart valve repair, comprising a handle , a plurality of tubes coupled to the handle and having flexible distal portions, a tubular annuloplasty structure configured to be implanted at a heart valve annulus and defining a lumen therethrough, the annuloplasty structure comprising a contracting wire disposed within the lumen of the annuloplasty structure and a plurality of anchor mounts , wherein a portion of the contracting wire extends out of the lumen of the annuloplasty structure so that a size of the annuloplasty structure is adjustable, wherein a distal end of each of the plurality of tubes is coupled to a respective anchor mount and each of the plurality of tubes is preloaded with an anchor coupled to an anchor advancement system, the anchor advancement system configured to advance the anchor through the tube and toward the anchor mount coupled to the tube so as to anchor the anchors to heart tissue and thereby anchor the annuloplasty structure to the heart valve annulus. a handle , a plurality of tubes coupled to the handle and having flexible distal portions, a tubular annuloplasty structure configured to be implanted at a heart valve annulus and defining a lumen therethrough, the annuloplasty structure comprising a contracting wire disposed within the lumen of the annuloplasty structure and a plurality of anchor mounts , wherein a portion of the contracting wire extends out of the lumen of the annuloplasty structure so that a size of the annuloplasty structure is adjustable, wherein a distal end of each of the plurality of tubes is coupled to a respective anchor mount and each of the plurality of tubes is preloaded with an anchor coupled to an anchor advancement system, the anchor advancement system configured to advance the anchor through the tube and toward the anchor mount coupled to the tube so as to anchor the anchors to heart tissue and thereby anchor the annuloplasty structure to the heart valve annulus.
Method for measuring a part using an articulated measurement arm comprising a measurement head provided with a pointing member and arm segments connected to articulations respectively provided with at least one rotary coder , comprising the steps of: - focusing on a first measurement point on the part, the measurement arm adopting a first measurement position; - moving the measurement arm to a second measurement position to focus on a second measurement point of the part and to capture a geometric feature of the part on the basis of the measurement points; - determining a degree of precision of the capture of the geometric feature as a function of the first and second measurement positions of the arm, determining the degree of precision of the capture of the geometric feature comprising the following steps: - simulating the first and second measurement positions of the measuring arm using a first simulated model of the measuring arm taking into account bending of the arm segments and/or the plays (Jax6, Jrad6, Jax8, Jrad8, Jax10, Jrad10) on the articulation axes and/or the resolution of the rotary coder , and deducing therefrom a first value of the geometric feature; - simulating the first and second measurement positions of the measuring arm using a perfect second model of the arm taking into account at least the infinitely rigid arm segments and/or the zero plays (Jax6, Jrad6, Jax8, Jrad8, Jax10, Jrad10) on at least one articulation axis and/or a constant resolution of the rotary coder and deducing therefrom a second value of the geometric feature; - calculating a difference between the first and second measurements. - focusing on a first measurement point on the part, the measurement arm adopting a first measurement position; - moving the measurement arm to a second measurement position to focus on a second measurement point of the part and to capture a geometric feature of the part on the basis of the measurement points; - determining a degree of precision of the capture of the geometric feature as a function of the first and second measurement positions of the arm, determining the degree of precision of the capture of the geometric feature comprising the following steps: - simulating the first and second measurement positions of the measuring arm using a first simulated model of the measuring arm taking into account bending of the arm segments and/or the plays (Jax6, Jrad6, Jax8, Jrad8, Jax10, Jrad10) on the articulation axes and/or the resolution of the rotary coder , and deducing therefrom a first value of the geometric feature; - simulating the first and second measurement positions of the measuring arm using a perfect second model of the arm taking into account at least the infinitely rigid arm segments and/or the zero plays (Jax6, Jrad6, Jax8, Jrad8, Jax10, Jrad10) on at least one articulation axis and/or a constant resolution of the rotary coder and deducing therefrom a second value of the geometric feature; - calculating a difference between the first and second measurements.
A device for withdrawing clay or another pasty mass from a barrel having a cylindrical inner contour, comprising a barrel follower plate assembly adapted to seal an opening of a barrel in a negative-pressure-tight way, comprising a pump adapted to pump mass from the bottom side of said barrel follower plate assembly through a line connection into a connecting device that is provided on the outside of said barrel follower plate assembly, wherein said pump is a spindle pump, characterized in that said spindle pump includes at least two conveying spindles that have (at least) one helical conveying groove and are provided parallel to another, and - which have a non-encased lateral surface in a region that is accessible from the bottom side , and/or - which protrude downwards in a non-encased manner from the bottom side of said barrel follower plate assembly, and comprising a driving spindle provided between the two conveying spindles in a plane and having a similarly helical driving tooth that meshes with the conveying groove of each of the two conveying spindles with the same helical pitch. - which have a non-encased lateral surface in a region that is accessible from the bottom side , and/or - which protrude downwards in a non-encased manner from the bottom side of said barrel follower plate assembly, and comprising a driving spindle provided between the two conveying spindles in a plane and having a similarly helical driving tooth that meshes with the conveying groove of each of the two conveying spindles with the same helical pitch.
A pressure detection device comprising a mount whereon a pressure sensor is attached which comprises a membrane which has a surface intended to be subjected to a pressurized fluid and which is so arranged as to elastically deform according to pressure, and means for determining the deformation of the membrane along an axis normal to a mid-plane of the membrane at rest, characterized in that the membrane is supported by a frame connected to the mount by a mechanical decoupling structure in order to isolate the membrane from stress resulting from a differential thermal expansion between the frame and the mount , and in that the decoupling structure comprises a plate integral with the frame and elastically deformable arms extending between the plate and the mount so as to transform any differential thermal expansion between the mount and the plate into a resulting movement parallel to the mid-plane, with the plate , the membrane and the frame are made of a same material and wherein the mechanical decoupling structure comprises an intermediate frame and the arms comprise a first series of substantially mutually parallel arms connecting the plate to the intermediate frame and a second series of arms which are substantially perpendicular to the arms of the first series and which extend between the intermediate frame and the mount .
A method performed by a base station , the method comprising: transmitting to a User Equipment , UE, in a Radio Resource Control, RRC, signaling, a parameter indicating a number of symbol(s) for a first type of Physical Uplink Control Channel, PUCCH; and receiving from the UE , a first sequence for the first type of PUCCH, wherein: the first sequence is defined by e jαn R(n), 0^n^11, R(n) is a base sequence, and α is defined by an equation α=2πk/12, 0≦k≦11, wherein a value of k is based on one of four sets of two bit-pair values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each value of k being different for each one of the four sets at one symbol in time domain, wherein each bit of the HARQ-ACK information bits is: 0 representing a negative acknowledgement, NACK, or 1 representing an acknowledgement, ACK, and wherein the four sets of two bit-pair values are: 00, 01, 10, and 11. transmitting to a User Equipment , UE, in a Radio Resource Control, RRC, signaling, a parameter indicating a number of symbol(s) for a first type of Physical Uplink Control Channel, PUCCH; and receiving from the UE , a first sequence for the first type of PUCCH, wherein: the first sequence is defined by e jαn R(n), 0^n^11, R(n) is a base sequence, and α is defined by an equation α=2πk/12, 0≦k≦11, wherein a value of k is based on one of four sets of two bit-pair values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each value of k being different for each one of the four sets at one symbol in time domain, the first sequence is defined by e jαn R(n), 0^n^11, R(n) is a base sequence, and α is defined by an equation α=2πk/12, 0≦k≦11, wherein a value of k is based on one of four sets of two bit-pair values of Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information bits, each value of k being different for each one of the four sets at one symbol in time domain, wherein each bit of the HARQ-ACK information bits is: 0 representing a negative acknowledgement, NACK, or 1 representing an acknowledgement, ACK, and wherein the four sets of two bit-pair values are: 00, 01, 10, and 11.
A peptide comprising or consisting of the amino acid sequence of: TSFXaa 1 EYWXaa 3 LLXaa 2 wherein Xaa 1 is (R)-2-(7'-octenyl)alanine or (R)-2-(4'-pentenyl)alanine; Xaa 3 is A or (R)-2-(4'-pentenyl)alanine, and Xaa 2 is S or P or (S)-2-(4'-pentenyl)alanine, and wherein the peptide further comprises a sequence comprising the amino acids -ENXaa 5 bound to its C-terminus, resulting in TSFXaa 1 EYW Xaa 3 LLXaa 2 ENXaa 5 wherein Xaa 5 is F or Y, and wherein the peptide is a cross-linked peptide with a cross-linker to connect a first amino acid Xaa 1 to a second amino acid Xaa 2; or wherein the peptide is a cross-linked peptide with a cross-linker to connect a first amino acid Xaa 1 to a second amino acid Xaa 3 . Xaa 1 is (R)-2-(7'-octenyl)alanine or (R)-2-(4'-pentenyl)alanine; Xaa 3 is A or (R)-2-(4'-pentenyl)alanine, and Xaa 2 is S or P or (S)-2-(4'-pentenyl)alanine, and wherein the peptide further comprises a sequence comprising the amino acids -ENXaa 5 bound to its C-terminus, resulting in wherein Xaa 5 is F or Y, and wherein the peptide is a cross-linked peptide with a cross-linker to connect a first amino acid Xaa 1 to a second amino acid Xaa 2; or wherein the peptide is a cross-linked peptide with a cross-linker to connect a first amino acid Xaa 1 to a second amino acid Xaa 3 .
A gas turbine engine comprising a propulsor , an intermediate pressure compressor , a high pressure compressor , a high pressure turbine , a low pressure turbine and a gearbox , the high pressure turbine being arranged to drive the high pressure compressor via a high pressure shaft , the low pressure turbine being arranged to drive the intermediate pressure compressor via a low pressure shaft and an intermediate pressure compressor drive shaft , the low pressure turbine being arranged to drive the propulsor via the low pressure shaft , a gearbox input drive shaft , the gearbox and a gearbox output drive shaft , characterised in that the intermediate pressure compressor drive shaft having a V-shaped cross-section, the V-shaped cross-section intermediate pressure compressor drive shaft having a base , a first limb extending from the base and a second limb extending from the base , a radially outer end of the first limb of the V-shaped cross-section intermediate pressure compressor drive shaft being removably connected to the intermediate pressure compressor , a radially inner end of the second limb of the V-shaped cross-section intermediate pressure compressor drive shaft being removably connected to the gearbox input drive shaft and the base of the V-shaped cross-section intermediate pressure compressor drive shaft being removably connected to an upstream end of the low pressure shaft .
A spinal orthosis , comprising: - a rear panel having first and second sides; - a first belt member having a first end secured to the first side of the rear panel and a second end at an opposite side of the first end; - a second belt member having a first end secured to the second side of the rear panel and a second end at an opposite side of the first end; - first and second front closures which are removably securable to the second ends of the first and second belt members , respectively, and arranged for removably securing to one another to form a continuously circumferential loop with the rear panel and the first and second belt members ; characterized in that the first front closure has: - upper and lower clamping portions separated from one another and located on a same side of the first front closure , the upper and lower clamping portions arranged to secure to a same surface of the first belt member ; - and a central clamping portion spaced apart by folding portions from the upper and lower clamping portions such that the upper and lower clamping portions are arranged to fold about the folding portions and to wrap over an edge of the belt member to face the central clamping portion - a rear panel having first and second sides; - a first belt member having a first end secured to the first side of the rear panel and a second end at an opposite side of the first end; - a second belt member having a first end secured to the second side of the rear panel and a second end at an opposite side of the first end; - first and second front closures which are removably securable to the second ends of the first and second belt members , respectively, and arranged for removably securing to one another to form a continuously circumferential loop with the rear panel and the first and second belt members ; - upper and lower clamping portions separated from one another and located on a same side of the first front closure , the upper and lower clamping portions arranged to secure to a same surface of the first belt member ; - and a central clamping portion spaced apart by folding portions from the upper and lower clamping portions such that the upper and lower clamping portions are arranged to fold about the folding portions and to wrap over an edge of the belt member to face the central clamping portion
Solid electrolyte comprising at least one nitrogen-free layer and that comprises Li x PO y S z , with 0< z ≤ 3, 2.1 ≤ x ≤ 2.4 and 1 ≤ y ≤ 4, which can be determined by XPS (X-ray Photoelectron Spectroscopy) coupled with a GCIB (Gas Cluster Ion Beam) abrasion.