mhurhangee/patent-ind-claim-en huggingface dataset:
A motor exciting device for a permanent magnet synchronous motor having multiple-phase windings (111, 112,... 11N) of as many as N axes, N ≥ 2, and positionally relating an encoder and a magnetic pole position of the motor , wherein a storage unit stores an encoder value, the motor exciting device comprising: an exciting current command unit , characterized in that the motor exciting device is configured to select K axes, 2 ≤ K ≤ N of the permanent magnet synchronous motor , and said encoder and the magnetic pole position of the motor are positionally related by independently exciting the windings (111, 112,..., 11N) of each of the selected plurality of axes, said exciting current command unit being configured to generate exciting current commands for the selected K axes, wherein exciting devices (211, 212,..., 21K) for individual axes are configured to receive the exciting current commands and supply DC exciting currents shifted in phase from one another by π/K to the windings of the K axes, wherein the exciting devices (211, 212,..., 21K) for individual axes DC-excite the windings (111, 112,..., 11N) of the K axes based on the exciting current commands such that the magnetomotive forces of the windings (111, 112,..., 11N) of the K axes are shifted in phase from one another by n/K, and wherein an encoder value collected when the motor is stably stopped by the DC excitation is stored in the storage unit as an initial position. an exciting current command unit , characterized in that the motor exciting device is configured to select K axes, 2 ≤ K ≤ N of the permanent magnet synchronous motor , and said encoder and the magnetic pole position of the motor are positionally related by independently exciting the windings (111, 112,..., 11N) of each of the selected plurality of axes, said exciting current command unit being configured to generate exciting current commands for the selected K axes, wherein exciting devices (211, 212,..., 21K) for individual axes are configured to receive the exciting current commands and supply DC exciting currents shifted in phase from one another by π/K to the windings of the K axes, wherein the exciting devices (211, 212,..., 21K) for individual axes DC-excite the windings (111, 112,..., 11N) of the K axes based on the exciting current commands such that the magnetomotive forces of the windings (111, 112,..., 11N) of the K axes are shifted in phase from one another by n/K, and wherein an encoder value collected when the motor is stably stopped by the DC excitation is stored in the storage unit as an initial position.
A method of wireless communication performed by a user equipment (UE), the method comprising: transmitting a sounding reference signal, SRS, that indicates that the UE is configured with a quantity of receive elements that is greater relative to a quantity of transmit elements with which the UE is configured; receiving , based at least in part on transmitting the SRS, a first channel state information, CSI, reference signal, CSI-RS, set and a second CSI-RS set, wherein transmissions of the first CSI-RS set are precoded based at least in part on the SRS, and wherein transmissions of the second CSI-RS set are non-precoded or are precoded using a precoder that is orthogonal to a precoder that is used to precode the transmissions of the first CSI-RS set; and transmitting a CSI report that is based at least in part on the first CSI-RS set and the second CSI-RS set. transmitting a sounding reference signal, SRS, that indicates that the UE is configured with a quantity of receive elements that is greater relative to a quantity of transmit elements with which the UE is configured; receiving , based at least in part on transmitting the SRS, a first channel state information, CSI, reference signal, CSI-RS, set and a second CSI-RS set, wherein transmissions of the first CSI-RS set are precoded based at least in part on the SRS, and wherein transmissions of the second CSI-RS set are non-precoded or are precoded using a precoder that is orthogonal to a precoder that is used to precode the transmissions of the first CSI-RS set; and transmitting a CSI report that is based at least in part on the first CSI-RS set and the second CSI-RS set.
A nip former (27; 27S) for forming a nip (N) between an endless belt (21; 121) and a pressure rotator , the nip former (27; 27S) comprising: a base being made of aluminum and having a nip forming face disposed opposite the nip (N); and an anodic oxidation coating (27b; 27bS) treated with sealing and configured to coat at least the nip forming face , the anodic oxidation coating (27b; 27bS) having a thickness being not smaller than 22 μm and not greater than 45 μm and a variation in thickness being not greater than 20 percent, the base and the anodic oxidation coating (27b; 27bS) defining a nip forming portion (27d; 27dS) disposed opposite the nip (N), the nip forming portion (27d; 27dS) having a thickness being not smaller than 0.40 mm and not greater than 1.20 mm. a base being made of aluminum and having a nip forming face disposed opposite the nip (N); and an anodic oxidation coating (27b; 27bS) treated with sealing and configured to coat at least the nip forming face , the anodic oxidation coating (27b; 27bS) having a thickness being not smaller than 22 μm and not greater than 45 μm and a variation in thickness being not greater than 20 percent, the base and the anodic oxidation coating (27b; 27bS) defining a nip forming portion (27d; 27dS) disposed opposite the nip (N), the nip forming portion (27d; 27dS) having a thickness being not smaller than 0.40 mm and not greater than 1.20 mm.
A combustion system using at least 90 wt% propylene glycol based liquid fuel, the combustion system comprising: a first fuel tank for containing the propylene glycol based liquid fuel, a wick for transmitting the propylene glycol based liquid fuel in the first fuel tank , a sensing unit configured to receive an activating signal and sense the liquid level of the propylene glycol based liquid fuel in the first fuel tank and send a fuel replenishment signal accordingly, a second fuel tank for containing the propylene glycol based liquid fuel, a conduit system connecting the first fuel tank to the second fuel tank , and a drive unit connected with the conduit system and configured to receive the fuel replenishment signal so as to cause the propylene glycol based liquid fuel in the second fuel tank to replenish the first fuel tank through the conduit system as well as to cool the wick , wherein the drive unit is also configured to receive a shutdown signal so as to pump the propylene glycol based liquid fuel in the first fuel tank into the second fuel tank . a first fuel tank for containing the propylene glycol based liquid fuel, a wick for transmitting the propylene glycol based liquid fuel in the first fuel tank , a sensing unit configured to receive an activating signal and sense the liquid level of the propylene glycol based liquid fuel in the first fuel tank and send a fuel replenishment signal accordingly, a second fuel tank for containing the propylene glycol based liquid fuel, a conduit system connecting the first fuel tank to the second fuel tank , and a drive unit connected with the conduit system and configured to receive the fuel replenishment signal so as to cause the propylene glycol based liquid fuel in the second fuel tank to replenish the first fuel tank through the conduit system as well as to cool the wick , wherein the drive unit is also configured to receive a shutdown signal so as to pump the propylene glycol based liquid fuel in the first fuel tank into the second fuel tank .
A train-centric electronic interlocking method for an autonomous train control system based on connection between trains, the train-centric electronic interlocking method comprising: receiving, by an onboard electronic interlocking system of a train at step 1, state information of a point machine list of multiple point machines composing a path based on a path command of a control automatic train supervision from an object controller of a point machine to identify the state information of the point machines of said list; identifying, by the onboard electronic interlocking system at step 2, whether a particular point machine in said list is in an unlock or lock state, and requesting a change of the state of the particular point machine to the lock state, from the object controller connected to the particular point machine when determining the particular point machine is in the unlock state; characterised by receiving, by the onboard electronic interlocking system at step 3, a unique key value required for accessing the particular point machine from the object controller , the unique key value being generated while changing the state of the particular point machine to the lock state; and transmitting, by the onboard electronic interlocking system at step 4, an unlock command to the object controller connected with the particular point machine by using the key value received from the object controller , whereby the particular point machine is unlocked. receiving, by an onboard electronic interlocking system of a train at step 1, state information of a point machine list of multiple point machines composing a path based on a path command of a control automatic train supervision from an object controller of a point machine to identify the state information of the point machines of said list; identifying, by the onboard electronic interlocking system at step 2, whether a particular point machine in said list is in an unlock or lock state, and requesting a change of the state of the particular point machine to the lock state, from the object controller connected to the particular point machine when determining the particular point machine is in the unlock state; characterised by receiving, by the onboard electronic interlocking system at step 3, a unique key value required for accessing the particular point machine from the object controller , the unique key value being generated while changing the state of the particular point machine to the lock state; and transmitting, by the onboard electronic interlocking system at step 4, an unlock command to the object controller connected with the particular point machine by using the key value received from the object controller , whereby the particular point machine is unlocked.
Method for obtaining a nanocomposite material comprising the following steps: a) providing a precursor nanocomposite material comprising a graphitized carbon matrix with FeNi 3 nanoparticles, and b) subjecting said material to a number between 100 and 10,000 galvanostatic charging/discharging cycles at a current density between 30 Ag -1 and 1 Ag -1 either for charge or discharge, while a magnetic field of an intensity between 5 mT and 600 mT (50 G and 6,000 G) is applied. a) providing a precursor nanocomposite material comprising a graphitized carbon matrix with FeNi 3 nanoparticles, and b) subjecting said material to a number between 100 and 10,000 galvanostatic charging/discharging cycles at a current density between 30 Ag -1 and 1 Ag -1 either for charge or discharge, while a magnetic field of an intensity between 5 mT and 600 mT (50 G and 6,000 G) is applied.
A traditional Chinese medicine composition comprising Salvianolic acid T, the composition consisting of following materials by weight percentage: 30%∼80% of phenolic acids, 2%~10% of tanshinones and 15%∼60% of saponines, wherein said phenolic acids are composed of following ingredients by weight parts: Danshensu : protocatechuic acid : protocatechuic aldehyde : caffeic acid : Salvianolic acid U+ Salvianolic acid T : rosmarinic acid : lithospermic acid : Salvianolic acid B : Salvianolic acid A : Salvianolic acid G isomer : Salvianolic acid G : Salvianolic D= (2∼6) : (0.01∼0.05) : (1∼3) : (0.01∼0.06) : (0.5-2) : (0.2-1) : (0.05∼0.3) : (0.5-2) : (0.2-1) : (0.1∼0.5) : (0.1~0.5) : (0.2-1); or wherein said phenolic acid derivatives are composed of following ingredients by weight parts: Danshensu : protocatechuic acid : Salvianolic acid U+ Salvianolic acid T : Salvianolic D : Salvianolic acid G : rosmarinic acid : lithospermic acid : Salvianolic acid B : Salvianolic acid A = (3∼5) : (1∼2) : (0.5-2): (0.3∼0.8) : (0.1∼0.5) : (0.3-1.5): (0.1∼0.3) : (0.5-2) : (0.5∼1.5). Danshensu : protocatechuic acid : protocatechuic aldehyde : caffeic acid : Salvianolic acid U+ Salvianolic acid T : rosmarinic acid : lithospermic acid : Salvianolic acid B : Salvianolic acid A : Salvianolic acid G isomer : Salvianolic acid G : Salvianolic D= (2∼6) : (0.01∼0.05) : (1∼3) : (0.01∼0.06) : (0.5-2) : (0.2-1) : (0.05∼0.3) : (0.5-2) : (0.2-1) : (0.1∼0.5) : (0.1~0.5) : (0.2-1); or wherein said phenolic acid derivatives are composed of following ingredients by weight parts: Danshensu : protocatechuic acid : Salvianolic acid U+ Salvianolic acid T : Salvianolic D : Salvianolic acid G : rosmarinic acid : lithospermic acid : Salvianolic acid B : Salvianolic acid A = (3∼5) : (1∼2) : (0.5-2): (0.3∼0.8) : (0.1∼0.5) : (0.3-1.5): (0.1∼0.3) : (0.5-2) : (0.5∼1.5).
A label dispenser unit comprising: a dispensing reel for supporting a label roll , the label roll having a plurality of labels attached to a backing strip ; a label releasing station for separating the label from the backing strip ; a take-up hub for receiving the backing strip thereon, characterized in that the take up hub being formed of a hub portion and a plurality of radially extending spokes (62a and 62b) extending from the hub portion to receive and support the backing strip after the labels have been removed from the backing strip ; and wherein the backing strip extends from the label roll and around the label releasing station such that an end of the backing strip is secured to the take-up hub , wherein at least one spoke comprises a cantilevered portion extending therefrom toward a second and adjacently positioned spoke member , the end of cantilevered portion 64 spaced apart from the second and adjacently positioned spoke member forming a gap to facilitate access to a chamber formed by the at least one spoke and the second and adjacently positioned spoke member and cantilevered portion extending therebetween, wherein the end of the backing strip is secured to the take-up hub between at least two radially extending spokes by inserting it through the gap into the chamber . a dispensing reel for supporting a label roll , the label roll having a plurality of labels attached to a backing strip ; a label releasing station for separating the label from the backing strip ; a take-up hub for receiving the backing strip thereon, characterized in that the take up hub being formed of a hub portion and a plurality of radially extending spokes (62a and 62b) extending from the hub portion to receive and support the backing strip after the labels have been removed from the backing strip ; and wherein the backing strip extends from the label roll and around the label releasing station such that an end of the backing strip is secured to the take-up hub , wherein at least one spoke comprises a cantilevered portion extending therefrom toward a second and adjacently positioned spoke member , the end of cantilevered portion 64 spaced apart from the second and adjacently positioned spoke member forming a gap to facilitate access to a chamber formed by the at least one spoke and the second and adjacently positioned spoke member and cantilevered portion extending therebetween, wherein the end of the backing strip is secured to the take-up hub between at least two radially extending spokes by inserting it through the gap into the chamber .
Injector for fuel, preferably diesel fuel, whereby a diffusion device with a gas filter that feeds gas to the fuel by means of diffusion is connected to the injector, characterised in that gas is fed to the fuel by means of diffusion via semi-permeable areas of the diffusion device, whereby the diffusion device is connected directly to the injector and the injector and the diffusion device form a structural unit.
A system for controlling gear changes in a vehicle, the system comprising: a steering wheel ; a detent mechanism having an idle location , a first location , and a second location , the detent mechanism coupled to the steering wheel; and a paddle shifter coupled to the steering wheel and the detent mechanism, the paddle shifter having an idle position with no associated function when the paddle shifter is in the idle location, a first operating position with an associated first function when the paddle shifter is in the first location, and a second operating position with an associated second function when the paddle shifter is in the second location, the associated first function being different from the associated second function, wherein the first operating position is located along a path between the idle position and the second position; characterized by an interface for transmitting a user customize operation of the second function. a steering wheel ; a detent mechanism having an idle location , a first location , and a second location , the detent mechanism coupled to the steering wheel; and a paddle shifter coupled to the steering wheel and the detent mechanism, the paddle shifter having an idle position with no associated function when the paddle shifter is in the idle location, a first operating position with an associated first function when the paddle shifter is in the first location, and a second operating position with an associated second function when the paddle shifter is in the second location, the associated first function being different from the associated second function, wherein the first operating position is located along a path between the idle position and the second position; characterized by an interface for transmitting a user customize operation of the second function.
An epoxy resin composition comprising constituents [A], [B], and [C] below, and satisfying conditions (i) and (ii): [A] a tri- or higher functional epoxy resin [B] an aromatic amine [C] an imidazole compound 0.20 ≤ b / a ≤ 0.60 0.002 ≤ c / a ≤ 0.014 (where, a (mol) denotes a number of epoxy groups in 100 g of entire of the epoxy resin composition, b (mol) denotes a number of active hydrogen contained in the constituent [B], and c (mol) denotes a number of imidazole rings contained in the constituent [C]). [A] a tri- or higher functional epoxy resin [B] an aromatic amine [C] an imidazole compound 0.20 ≤ b / a ≤ 0.60 0.002 ≤ c / a ≤ 0.014 (where, a (mol) denotes a number of epoxy groups in 100 g of entire of the epoxy resin composition, b (mol) denotes a number of active hydrogen contained in the constituent [B], and c (mol) denotes a number of imidazole rings contained in the constituent [C]).
A shielding assembly comprising: a board level shield including at least one opening and a heat sink including at least one protrusion , wherein the at least one opening and the one protrusion are complementary in shape such that the at least one protrusion at least partially protrudes through the at least one opening when the board level shield mates with the heat sink to at least partially cover the heat sink , wherein the board level shield comprises a fence and a lid attachable to the fence , the lid comprises a top and a lid sidewall depending from and/or generally perpendicular to the top of the lid , the lid sidewall surrounds the fence when the lid is attached to the fence ; characterized in that : the lid sidewall further comprises a plurality of tabs that bend inward towards a concave portion of the lid and generally perpendicular to the lid sidewall ; the fence comprises a fence sidewall and a rail ; the rail meets the fence sidewall at a bend and proceeds from the fence sidewall towards the heat sink ; and wherein, when the lid is attached to the fence and the board level shield is affixed to a printed circuit board including at least one heat source , the tabs rest on the rail whereby the tabs act as compression stops for the lid thereby regulating a depth of compression of the lid onto the fence and a depth of compression of the heat sink onto the at least one heat source , for preventing over-compression of one or more thermal interface materials between the heat sink and the heat source . a board level shield including at least one opening and a heat sink including at least one protrusion , wherein the at least one opening and the one protrusion are complementary in shape such that the at least one protrusion at least partially protrudes through the at least one opening when the board level shield mates with the heat sink to at least partially cover the heat sink , wherein the board level shield comprises a fence and a lid attachable to the fence , the lid comprises a top and a lid sidewall depending from and/or generally perpendicular to the top of the lid , the lid sidewall surrounds the fence when the lid is attached to the fence ; the lid sidewall further comprises a plurality of tabs that bend inward towards a concave portion of the lid and generally perpendicular to the lid sidewall ; the fence comprises a fence sidewall and a rail ; the rail meets the fence sidewall at a bend and proceeds from the fence sidewall towards the heat sink ; and wherein, when the lid is attached to the fence and the board level shield is affixed to a printed circuit board including at least one heat source , the tabs rest on the rail whereby the tabs act as compression stops for the lid thereby regulating a depth of compression of the lid onto the fence and a depth of compression of the heat sink onto the at least one heat source , for preventing over-compression of one or more thermal interface materials between the heat sink and the heat source .
A member coupling mechanism comprising: a first member including a cylindrical member coupling portion having an opening at a tip end face thereof, the member coupling portion including a stepped portion inclined along a circumferential direction from a tip end side of the member coupling portion toward a base end side thereof; a second member configured to be coupled to the member coupling portion; and a coupling member configured to be engaged with the stepped portion of the member coupling portion while holding an end portion of the second member on a side of the first member, wherein the coupling member is provided with a rotatable cylindrical protrusion protruding toward an outer peripheral surface or an inner peripheral surface of the member coupling portion, the protrusion being configured to be engaged with the stepped portion of the member coupling portion, and wherein when the connecting member is rotated in a circumferential direction of the member coupling portion, the protrusion moves along the stepped portion while rotating to press the first member and the second member in an approaching direction to couple them. a first member including a cylindrical member coupling portion having an opening at a tip end face thereof, the member coupling portion including a stepped portion inclined along a circumferential direction from a tip end side of the member coupling portion toward a base end side thereof; a second member configured to be coupled to the member coupling portion; and a coupling member configured to be engaged with the stepped portion of the member coupling portion while holding an end portion of the second member on a side of the first member, wherein the coupling member is provided with a rotatable cylindrical protrusion protruding toward an outer peripheral surface or an inner peripheral surface of the member coupling portion, the protrusion being configured to be engaged with the stepped portion of the member coupling portion, and wherein when the connecting member is rotated in a circumferential direction of the member coupling portion, the protrusion moves along the stepped portion while rotating to press the first member and the second member in an approaching direction to couple them.