mhurhangee/patent-ind-claim-en huggingface dataset:
A sensing device comprising: a stator including stator teeth; and a rotor including a magnet , wherein the stator teeth include first stator teeth and second stator teeth , the first stator teeth include a plurality of first teeth and a plurality of third teeth , the second stator teeth include a plurality of second teeth , and characterized in that the magnet is disposed between the plurality of first teeth and the plurality of third teeth and disposed between the plurality of first teeth and the plurality of second teeth , a diameter formed by the plurality of third teeth is smaller than a diameter formed by the plurality of first teeth , and a diameter formed by the plurality of second teeth is smaller than the diameter formed by the plurality of first teeth . a stator including stator teeth; and a rotor including a magnet , wherein the stator teeth include first stator teeth and second stator teeth , the first stator teeth include a plurality of first teeth and a plurality of third teeth , the second stator teeth include a plurality of second teeth , and characterized in that the magnet is disposed between the plurality of first teeth and the plurality of third teeth and disposed between the plurality of first teeth and the plurality of second teeth , a diameter formed by the plurality of third teeth is smaller than a diameter formed by the plurality of first teeth , and a diameter formed by the plurality of second teeth is smaller than the diameter formed by the plurality of first teeth .
An apparatus comprising: decoder circuitry to decode a single instruction , the single instruction to include one or more fields to identify a first source operand, one or more fields to identify a second source operand, one or more fields to identify a source/destination operand, and one or more fields for an opcode, wherein the source/destination operand comprises a plurality of 8-bit bias terms, and wherein the opcode is to indicate that execution circuitry is to convert packed half-precision data from the identified first and second sources to packed bfloat8 data using the 8-bit bias terms from the identified source/destination operand and store the packed bfloat8 data into corresponding data element positions of the identified source/destination operand; and execution circuitry to execute the decoded instruction according to the opcode to convert packed half-precision data from the identified first and second sources to packed bfloat8 data using bias terms from the identified source/destination operand and store the packed bfloat8 data into corresponding data element positions of the identified source/destination operand. decoder circuitry to decode a single instruction , the single instruction to include one or more fields to identify a first source operand, one or more fields to identify a second source operand, one or more fields to identify a source/destination operand, and one or more fields for an opcode, wherein the source/destination operand comprises a plurality of 8-bit bias terms, and wherein the opcode is to indicate that execution circuitry is to convert packed half-precision data from the identified first and second sources to packed bfloat8 data using the 8-bit bias terms from the identified source/destination operand and store the packed bfloat8 data into corresponding data element positions of the identified source/destination operand; and execution circuitry to execute the decoded instruction according to the opcode to convert packed half-precision data from the identified first and second sources to packed bfloat8 data using bias terms from the identified source/destination operand and store the packed bfloat8 data into corresponding data element positions of the identified source/destination operand.
A method for controlling a cooking zone of an induction cooking hob, wherein said cooking zone comprises at least one induction coil and is supplied by a generator including a power switch, and wherein the method is performed by: - controlling the power switch by a gate driving signal including a deactivation pulse length (Toff) and an activation pulse length (Ton), - wherein a switching period (T) of the gate driving signal is given by the sum of the activation pulse length (Ton) and deactivation pulse length (Toff), - wherein a driving frequency (f) of the power switch is the reciprocal value of said switching period (T), - wherein the deactivation pulse length (Toff) depends on the resistance and the inductance of the induction coil , and - wherein the activation pulse length (Ton) is varied according to a requested power for the cooking zone , characterised in that a series of constant activation pulse length (Ton) is activated in order to determine the optimal deactivation pulse length (Toff). - controlling the power switch by a gate driving signal including a deactivation pulse length (Toff) and an activation pulse length (Ton), - wherein a switching period (T) of the gate driving signal is given by the sum of the activation pulse length (Ton) and deactivation pulse length (Toff), - wherein a driving frequency (f) of the power switch is the reciprocal value of said switching period (T), - wherein the deactivation pulse length (Toff) depends on the resistance and the inductance of the induction coil , and - wherein the activation pulse length (Ton) is varied according to a requested power for the cooking zone , characterised in that a series of constant activation pulse length (Ton) is activated in order to determine the optimal deactivation pulse length (Toff).
An automated method for controlling an autothrottle of an aircraft that includes a power-control input (PCL) manually movable by a pilot along a travel path to effect a throttle setting that controls engine power of the aircraft , the method comprising: determining, by an autothrottle controller a control-target setting for a throttle of the aircraft ; dynamically adjusting the throttle according to the control-target setting, including moving the PCL to achieve the control-target setting when the autothrottle is in an engaged state for autothrottle control; setting and dynamically adjusting a virtual detent, the virtual detent being located at a position along a travel path of the PCL corresponding to the control-target setting, wherein the virtual detent is operative, at least when the autothrottle is in a disengaged state for autothrottle control, to indicate the control-target setting to the pilot via a haptic effect that applies a detent force opposing motion of the PCL in response to the PCL achieving the position of the virtual detent, characterised in that the method further comprises the following steps: reading input from an autothrottle activation input device; reading input from an autothrottle mode input device; responding to actuation of the autothrottle activation input device by toggling between the engaged and the disengaged states; responding to actuation of the autothrottle mode input device by switching between different ones of a plurality of autothrottle control modes; and displaying information indicative of a selected one of the plurality of autothrottle control modes on a display device. determining, by an autothrottle controller a control-target setting for a throttle of the aircraft ; dynamically adjusting the throttle according to the control-target setting, including moving the PCL to achieve the control-target setting when the autothrottle is in an engaged state for autothrottle control; setting and dynamically adjusting a virtual detent, the virtual detent being located at a position along a travel path of the PCL corresponding to the control-target setting, wherein the virtual detent is operative, at least when the autothrottle is in a disengaged state for autothrottle control, to indicate the control-target setting to the pilot via a haptic effect that applies a detent force opposing motion of the PCL in response to the PCL achieving the position of the virtual detent, characterised in that the method further comprises the following steps: reading input from an autothrottle activation input device; reading input from an autothrottle mode input device; responding to actuation of the autothrottle activation input device by toggling between the engaged and the disengaged states; responding to actuation of the autothrottle mode input device by switching between different ones of a plurality of autothrottle control modes; and displaying information indicative of a selected one of the plurality of autothrottle control modes on a display device.
Method for frequency tuning a set of plates of a watch , the plates being disposed on top of one another with a space defined between the plates, and wherein a mechanical shock to the set of plates is generated, the vibration frequency of each plate being checked, wherein the set of plates forms a dial of the watch , with at least a first dial plate and a second plate on top of and spaced apart from the first plate , and characterised in that a vibration frequency matching operation is carried out for at least one of the plates if different from the other plate so as to obtain an identical vibration frequency for each plate in order to tune the plates at least according to the first vibration eigenmode to avoid any contact between the plates as a result of any mechanical shock.
An axial flow compressor which compresses a working fluid, comprising: a rotor including a rotor vane ; a first pressing member coming into contact with one end surface of the rotor ; a second pressing member coming into contact with the other end surface of the rotor ; a rotor shaft portion penetrating the first pressing member , the rotor and the second pressing member ; and a fixing portion which fixes the first pressing member and the second pressing member on the rotor shaft portion with the first pressing member and the second pressing member holding the rotor between, characterized in that a plurality of disk members are provided in an inner space of the rotor penetrated by the rotor shaft portion , the rotor shaft portion penetrating the disk members , the rotor shaft portion is made of a material having a lower linear expansion coefficient than that of a material making at least a part of the rotor , the disk members support the rotor shaft portion so that the disk members are moveable relative to the rotor shaft portion in the axial direction, and each disk member has a through hole , wherein an inner surface of each through hole supports an outer surface of the rotor shaft portion . a rotor including a rotor vane ; a first pressing member coming into contact with one end surface of the rotor ; a second pressing member coming into contact with the other end surface of the rotor ; a rotor shaft portion penetrating the first pressing member , the rotor and the second pressing member ; and a fixing portion which fixes the first pressing member and the second pressing member on the rotor shaft portion with the first pressing member and the second pressing member holding the rotor between, a plurality of disk members are provided in an inner space of the rotor penetrated by the rotor shaft portion , the rotor shaft portion penetrating the disk members , the rotor shaft portion is made of a material having a lower linear expansion coefficient than that of a material making at least a part of the rotor , the disk members support the rotor shaft portion so that the disk members are moveable relative to the rotor shaft portion in the axial direction, and each disk member has a through hole , wherein an inner surface of each through hole supports an outer surface of the rotor shaft portion .
A spectrophotometric device , wherein the spectrophotometric device comprises a base plate comprising a first surface to accommodate a sample (S) thereon; a rotatable plate comprising a second surface corresponding to and spaced a certain distance apart from the first surface , rotating by a hinge provided at a side of the base plate; a test beam radiator connected to the first surface through a first beam guide to radiate a test beam to the sample (S) accommodated on a beam path (L) between the first and second surfaces ; and a spectrophotometer connected to the second surface through a second beam guide to analyze spectroscopic properties of the sample (S) by analyzing a characteristic beam having passed through the sample (S) accommodated on the beam path (L), the spectrophotometric device comprising a state determiner provided near the beam path (L) to determine whether the sample (S) accommodated between the first and second surfaces is in a state in which analysis of optical properties is enabled, wherein the state determiner comprises a beam transmitter for radiating a transmission beam to the beam path (L) to determine a state of the sample (S) between the first and second surfaces ; and a beam receiver for receiving at least a portion of the transmission beam having passed through the beam path (L), wherein the beam transmitter and the beam receiver face each other in a direction perpendicular to the beam path (L) formed between the first and second surfaces , and are movable in a lengthwise direction of the beam path (L). a base plate comprising a first surface to accommodate a sample (S) thereon; a rotatable plate comprising a second surface corresponding to and spaced a certain distance apart from the first surface , rotating by a hinge provided at a side of the base plate; a test beam radiator connected to the first surface through a first beam guide to radiate a test beam to the sample (S) accommodated on a beam path (L) between the first and second surfaces ; and a spectrophotometer connected to the second surface through a second beam guide to analyze spectroscopic properties of the sample (S) by analyzing a characteristic beam having passed through the sample (S) accommodated on the beam path (L), the spectrophotometric device comprising a state determiner provided near the beam path (L) to determine whether the sample (S) accommodated between the first and second surfaces is in a state in which analysis of optical properties is enabled, wherein the state determiner comprises a beam transmitter for radiating a transmission beam to the beam path (L) to determine a state of the sample (S) between the first and second surfaces ; and a beam receiver for receiving at least a portion of the transmission beam having passed through the beam path (L), wherein the beam transmitter and the beam receiver face each other in a direction perpendicular to the beam path (L) formed between the first and second surfaces , and are movable in a lengthwise direction of the beam path (L).
A collapsible article comprising: a plurality of foldably interconnected foldable sections, at least one of said sections is looped and consists of four curved segments that are polygonal in shape in folded state; foldable edges connecting said sections and said segments. a plurality of foldably interconnected foldable sections, at least one of said sections is looped and consists of four curved segments that are polygonal in shape in folded state; foldable edges connecting said sections and said segments.
A method (8000 of wireless communication performed by a user equipment, UE, the method comprising: receiving signaling identifying a plurality of semi-persistent scheduling, SPS, configurations corresponding to a plurality of SPS occasions for reception of a physical downlink shared channel, PDSCH, in a slot, wherein the signaling does not indicate which SPS occasion is to be used for reception of the PDSCH; buffering in-phase and quadrature, IQ, symbols within a bandwidth part of the slot; and decoding , based at least in part on buffering the IQ symbols, one or more SPS occasions, sequentially, of the plurality of SPS occasions, to attempt to receive the PDSCH in the slot. receiving signaling identifying a plurality of semi-persistent scheduling, SPS, configurations corresponding to a plurality of SPS occasions for reception of a physical downlink shared channel, PDSCH, in a slot, wherein the signaling does not indicate which SPS occasion is to be used for reception of the PDSCH; buffering in-phase and quadrature, IQ, symbols within a bandwidth part of the slot; and decoding , based at least in part on buffering the IQ symbols, one or more SPS occasions, sequentially, of the plurality of SPS occasions, to attempt to receive the PDSCH in the slot.
Compound of formula (I): wherein: X represents hydrogen or N(CH 3 ) 2 , Y represents CH 2 or C=O, R represents hydrogen or a halogen atom, preferably F, wherein, when Y is C=O, then X represents N(CH 3 ) 2 , or its optical isomers, mixtures thereof, and pharmaceutically acceptable salts. X represents hydrogen or N(CH 3 ) 2 , Y represents CH 2 or C=O, R represents hydrogen or a halogen atom, preferably F, wherein, when Y is C=O, then X represents N(CH 3 ) 2 , or its optical isomers, mixtures thereof, and pharmaceutically acceptable salts.
A method to charge a battery cell that is operatively coupled to a power source via a switching circuit, the method comprising: controlling the switching circuit to operate in a first switch position in which the power source is connected to the battery cell to transfer energy from the power source to a plurality of capacitive regions in the battery cell , wherein the connection of the power source to the battery cell results in flow of charging current through the battery cell ; maintaining the first switch position for a first duration of time (t1-t3') until a determination is made that the plurality of capacitive regions in the battery cell are fully charged by computing a first derivative and a second derivative of the charging current as a function of time, wherein the plurality of capacitive regions in the battery cell are fully charged when the first derivative and the second derivative of the charging current are zero; in response to determining that the plurality of capacitive regions in the battery cell are fully charged, controlling the switching circuit to operate in a second switch position, in which the power source is disconnected from the battery cell , for a second duration of time (t3'-t6), resulting in transferring of charge stored in the plurality of capacitive regions of the battery cell by migration and/or diffusion of ionic charge within the battery cell ; and controlling the switching circuit to alternate between the first switch position and the second switch position to charge the battery cell . controlling the switching circuit to operate in a first switch position in which the power source is connected to the battery cell to transfer energy from the power source to a plurality of capacitive regions in the battery cell , wherein the connection of the power source to the battery cell results in flow of charging current through the battery cell ; maintaining the first switch position for a first duration of time (t1-t3') until a determination is made that the plurality of capacitive regions in the battery cell are fully charged by computing a first derivative and a second derivative of the charging current as a function of time, wherein the plurality of capacitive regions in the battery cell are fully charged when the first derivative and the second derivative of the charging current are zero; in response to determining that the plurality of capacitive regions in the battery cell are fully charged, controlling the switching circuit to operate in a second switch position, in which the power source is disconnected from the battery cell , for a second duration of time (t3'-t6), resulting in transferring of charge stored in the plurality of capacitive regions of the battery cell by migration and/or diffusion of ionic charge within the battery cell ; and controlling the switching circuit to alternate between the first switch position and the second switch position to charge the battery cell .
An analytics system configured to communicably couple to a surgical hub , the surgical hub configured to communicably couple to a modular device that is controlled by a control program, the analytics system comprising: a processor; and a memory coupled to the processor, the memory storing instructions that, when executed by the processor, cause the analytics system to: receive perioperative data indicative of a first and second operational behavior of the modular device, wherein the perioperative data comprises data detected by the modular device during a surgical procedure; receive procedural outcome data associated with the surgical procedure; analyze the perioperative data and the procedural outcome data to determine whether the first operational behavior is suboptimal according to whether the second operational behavior is more highly correlated to a positive procedural outcome than the first operational behavior; generate a control program update configured to alter the manner in which the control program operates the modular device during the surgical procedure for the first operational behavior; and transmit the control program update to the modular device. a processor; and a memory coupled to the processor, the memory storing instructions that, when executed by the processor, cause the analytics system to: receive perioperative data indicative of a first and second operational behavior of the modular device, wherein the perioperative data comprises data detected by the modular device during a surgical procedure; receive procedural outcome data associated with the surgical procedure; analyze the perioperative data and the procedural outcome data to determine whether the first operational behavior is suboptimal according to whether the second operational behavior is more highly correlated to a positive procedural outcome than the first operational behavior; generate a control program update configured to alter the manner in which the control program operates the modular device during the surgical procedure for the first operational behavior; and transmit the control program update to the modular device. receive perioperative data indicative of a first and second operational behavior of the modular device, wherein the perioperative data comprises data detected by the modular device during a surgical procedure; receive procedural outcome data associated with the surgical procedure; analyze the perioperative data and the procedural outcome data to determine whether the first operational behavior is suboptimal according to whether the second operational behavior is more highly correlated to a positive procedural outcome than the first operational behavior; generate a control program update configured to alter the manner in which the control program operates the modular device during the surgical procedure for the first operational behavior; and transmit the control program update to the modular device.