mhurhangee/patent-ind-claim-en huggingface dataset:
A motor comprising: a stator ; a rotor configured to rotate inside the stator in response to an electromagnetic interaction with the stator ; wherein the motor further comprises: a shield member comprising a plurality of shield elements configured to screen a magnetic field between the stator and the rotor ; and a moving member configured to control a position of the shield member in response to an electromagnetic interaction with the stator such that screening of the magnetic field is configured to be selectively performed, characterised in that the moving member comprises: a support element configured to integrally rotate with the shield member , a magnetic element disposed on one side of the support element and rotating the support element in a first direction in response to an electromagnetic interaction with the stator and an elastic element disposed on the other side of the support element and rotating the support element in a second direction opposite to the first direction in response to a compression restoring force. a stator ; a rotor configured to rotate inside the stator in response to an electromagnetic interaction with the stator ; wherein the motor further comprises: a shield member comprising a plurality of shield elements configured to screen a magnetic field between the stator and the rotor ; and a moving member configured to control a position of the shield member in response to an electromagnetic interaction with the stator such that screening of the magnetic field is configured to be selectively performed, a shield member comprising a plurality of shield elements configured to screen a magnetic field between the stator and the rotor ; and a moving member configured to control a position of the shield member in response to an electromagnetic interaction with the stator such that screening of the magnetic field is configured to be selectively performed, characterised in that the moving member comprises: a support element configured to integrally rotate with the shield member , a magnetic element disposed on one side of the support element and rotating the support element in a first direction in response to an electromagnetic interaction with the stator and an elastic element disposed on the other side of the support element and rotating the support element in a second direction opposite to the first direction in response to a compression restoring force. a support element configured to integrally rotate with the shield member , a magnetic element disposed on one side of the support element and rotating the support element in a first direction in response to an electromagnetic interaction with the stator and an elastic element disposed on the other side of the support element and rotating the support element in a second direction opposite to the first direction in response to a compression restoring force.
A method for a first network node in a wireless communication system, comprising: transmitting, by the first network node, a second transmission to a User Equipment, in the following also referred to as UE, in at least a first symbol of a first Transmission Time Interval, in the following also referred to as TTI, ; and transmitting, by the first network node, a first transmission to a second network node in at least a second symbol of a second TTI, characterized in that the first TTI is TTI-level aligned to the second TTI and the first symbol is at least partially overlapped with the second symbol in time domain , wherein the first symbol is set to downlink in the first network node, and the second symbol is set to uplink in the second network node. transmitting, by the first network node, a second transmission to a User Equipment, in the following also referred to as UE, in at least a first symbol of a first Transmission Time Interval, in the following also referred to as TTI, ; and transmitting, by the first network node, a first transmission to a second network node in at least a second symbol of a second TTI, characterized in that the first TTI is TTI-level aligned to the second TTI and the first symbol is at least partially overlapped with the second symbol in time domain , wherein the first symbol is set to downlink in the first network node, and the second symbol is set to uplink in the second network node.
Process for preparing the phosphate of formula (NH 4 ) (VO 2 ) (HPO 4 ) consisting in stirring a mixture formed of V 2 O 5 and of NH 4 H 2 PO 4 in the solid state to which water has been added in an initial proportion of between 0.1% and 200.0%, this proportion being calculated relative to the whole of the two reactants V 2 O 5 and NH 4 H 2 PO 4 .
A potassium salt of 2-( -2-hydroxy-3-(2-(thiophen-2-yl)acetamido)-1,2-oxaborinan-6-yl)acetic acid, wherein the potassium salt is in a crystalline form exhibiting an X-ray powder diffraction pattern comprising at least three characteristic peaks selected from the group consisting of peaks at approximately 7.3°, 13.9°, 16.9°, 19.1°, 20.8°, and 25.2 °2θ.
The use of polymers that can be obtained by the polymerization of N-vinylpyrrolidone with a co-monomer selected from the group comprising N-vinylcaprolactam, N-vinylpiperidone, N-vinylsuccinimide, N-vinylglutarimide, N-vinylacetamide, N-alkyl-N-vinylacetamide, N-vinylformamide, N-alkyl-N-vinylformamide, dialkylacrylamide and mixtures of at least two of said co-monomers - for stabilizing enzymes and/or - for slowing down enzyme degradation and/or - for preventing enzyme degradation in liquid washing or cleaning agents that contain water and surfactants. - for stabilizing enzymes and/or - for slowing down enzyme degradation and/or - for preventing enzyme degradation
An ice protection system configured for an aircraft component of an aircraft or for an aircraft , wherein the ice protection system includes a phase change material that is configured for storing thermal energy by undergoing a phase transition, when the temperature of the phase change material goes above a first temperature (T1), and for releasing previously stored thermal energy by undergoing another phase transition, when the temperature of the phase change material goes below a second temperature (T2) that is lower than the first temperature (T1).
Control device for enabling service availability management in a communication system , the control device comprising a processor configured to receive a service request (SR), wherein the service request (SR) comprises a request for a resource (R) associated with a network function or a network service in the communication system , obtain a descriptor (D) based on the service request (SR), derive a metadata of a service availability level (SAL) from the descriptor (D), obtain a commissioning value (CV), wherein the commissioning value (CV) is associated with requirements for a service, map the commissioning value (CV) with the metadata of the service availability level (SAL), derive the service availability level (SAL) for the resource (R) associated with the network function or the network service based on the mapped commissioning value with the metadata of the service availability level (SAL), wherein the processor is further configured to derive a service availability and reliability requirement (SARR) based on the the derived service availability level (SAL), derive a policy for service availability management (PSAM) based on the derived service availability and reliability requirement (SARR), wherein the derived policy is associated with the resource (R), determine a resource request (RR) based on the derived policy, send the resource request (RR) to a resource manager .
A device for dividing a fibrous structure, the device comprising: a catheter having a proximal end, a distal end, and lumen extending therebetween; an expandable member positioned near the distal end of the catheter and in fluid communication with the lumen of the catheter so that the expandable member can be biased between an inflated state and a deflated state, the expandable member having a cross-sectional shape that expands in a first radial direction more than it expands in a second direction to provide the expandable member with an elongated cross-sectional shape when inflated; and a cutting element situated on an outer surface of the expandable member at a location transverse to the first radial direction, such that, as the expandable member expands in the first radial direction and pulls the fibrous structure in opposing lateral directions, the fibrous structure is pulled taut by the expandable member in lateral directions, such that the fibrous structure is in lateral tension against a discrete portion of the cutting element for weakening or cutting the fibrous structure resulting in its division. a catheter having a proximal end, a distal end, and lumen extending therebetween; an expandable member positioned near the distal end of the catheter and in fluid communication with the lumen of the catheter so that the expandable member can be biased between an inflated state and a deflated state, the expandable member having a cross-sectional shape that expands in a first radial direction more than it expands in a second direction to provide the expandable member with an elongated cross-sectional shape when inflated; and a cutting element situated on an outer surface of the expandable member at a location transverse to the first radial direction, such that, as the expandable member expands in the first radial direction and pulls the fibrous structure in opposing lateral directions, the fibrous structure is pulled taut by the expandable member in lateral directions, such that the fibrous structure is in lateral tension against a discrete portion of the cutting element for weakening or cutting the fibrous structure resulting in its division.
A method performed by a terminal device , comprising: determining a frequency hopping configuration for uplink shared channel transmission to a network node in a two-step contention-free random access procedure; and performing the uplink shared channel transmission to the network node in the two-step contention-free random access procedure, according to the determined frequency hopping configuration, wherein the determination of the frequency hopping configuration is based at least in part on dedicated signaling for the two-step contention-free random access procedure from the network node, and wherein the dedicated signaling includes one or more of: a flag indicating whether to enable frequency hopping; a set of frequency offset values; and an indicator of a frequency offset of frequency hopping configured for the uplink shared channel transmission. determining a frequency hopping configuration for uplink shared channel transmission to a network node in a two-step contention-free random access procedure; and performing the uplink shared channel transmission to the network node in the two-step contention-free random access procedure, according to the determined frequency hopping configuration, wherein the determination of the frequency hopping configuration is based at least in part on dedicated signaling for the two-step contention-free random access procedure from the network node, and wherein the dedicated signaling includes one or more of: a flag indicating whether to enable frequency hopping; a set of frequency offset values; and an indicator of a frequency offset of frequency hopping configured for the uplink shared channel transmission. a flag indicating whether to enable frequency hopping; a set of frequency offset values; and an indicator of a frequency offset of frequency hopping configured for the uplink shared channel transmission.
Device for generating ionized particles from a plasma, the device having a front radiation face on which at least one mouth (30, E1... E14) of a particle emitter is arranged, the at least one mouth communicating with one of the openings (5-13) provided on the radiation face , the particle emitter being formed of a sheath which is brought to a first voltage and located in the extension of said mouth, and of a rod which consists of an electrically conductive material and is inserted into said sheath , said rod having a tip at the mouth, which tip is brought to a voltage of a second polarity, characterized in that it comprises an electrically conductive structure located at the front face and in that said structure is formed of segments (S1... S15) of elongated shape placed in the vicinity of the mouth.
An electroluminescent device based on an Organic Light-Emitting Diode which comprises a substrate and a sandwich that adjoins the substrate , said sandwich consisting of at least a first electrode , an electroluminescent layer , a second electrode and a layer comprising conductive particles , wherein the particle diameter of the conductive particles is at most twice the layer thickness of the adjoining layer and the conductive particles have a particle diameter between 10 and 400 nm such that the total reflection of the emitted light at the interface with the adjoining layer is disrupted and more light is decoupled from the electroluminescent device, wherein the layer is arranged between the first electrode and the second electrode , and wherein the layer adjoins the first electrode or the second electrode .
An impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) for a centrifugal slurry pump (10, 600, or 700), the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) comprising: an inlet through which fluid passes into the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102); pumping vanes (43, 410, or 510) for pumping the fluid from the inlet and expelling the fluid into a pumping chamber of the centrifugal pump (10, 600, or 700) in which the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) operates; and at least one shroud (50 or 51; 420 or 425; 520 or 525; or 720 or 725) extending radially from an axis of rotation for the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) and attached to the pumping vanes (43, 410, or 510), the at least one shroud (50 or 51; 420 or 425; 520 or 525; or 720 or 725) having an outer surface (54 or 52; 710 or 715) facing away from the pumping vanes (43, 410, or 510), wherein the outer surface (54 or 52; 710 or 715) includes a planar portion (59, 430, 530, or 740) located near a centre of the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) and a tapering portion (58, 450, 550, 750, 1045, 1115, or 1160) located towards an outer edge (56 or 57, 435, 535, or 745) of the shroud (50 or 51; 420 or 425; 520 or 525; or 720 or 725), characterised by the tapering portion (58, 450, 550, 750, 1045, 1115, or 1160) being a compound shape with contiguous concave (455 or 555) and convex (460 or 560) regions. an inlet through which fluid passes into the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102); pumping vanes (43, 410, or 510) for pumping the fluid from the inlet and expelling the fluid into a pumping chamber of the centrifugal pump (10, 600, or 700) in which the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) operates; and at least one shroud (50 or 51; 420 or 425; 520 or 525; or 720 or 725) extending radially from an axis of rotation for the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) and attached to the pumping vanes (43, 410, or 510), the at least one shroud (50 or 51; 420 or 425; 520 or 525; or 720 or 725) having an outer surface (54 or 52; 710 or 715) facing away from the pumping vanes (43, 410, or 510), wherein the outer surface (54 or 52; 710 or 715) includes a planar portion (59, 430, 530, or 740) located near a centre of the impeller (40, 400, 500, 700, 1000, 1050, 1100, or 1102) and a tapering portion (58, 450, 550, 750, 1045, 1115, or 1160) located towards an outer edge (56 or 57, 435, 535, or 745) of the shroud (50 or 51; 420 or 425; 520 or 525; or 720 or 725), characterised by the tapering portion (58, 450, 550, 750, 1045, 1115, or 1160) being a compound shape with contiguous concave (455 or 555) and convex (460 or 560) regions.
A method of acquiring chirp data in a frequency modulated continuous wave, FMCW, radar system of a road vehicle , the method comprising: transmitting a frequency modulated continuous wave signal comprising a plurality of ramping regions in which a frequency of the frequency modulated continuous wave signal ramps up to a first frequency or ramps down to a second frequency; receiving a reflected signal corresponding to the reflection of the frequency modulated continuous wave signal from one or more physical objects, wherein the reflected signal includes a plurality of ramping regions corresponding to the ramping regions of the transmitted frequency modulated continuous wave signal; sampling the reflected signal by: taking a plurality of samples in a ramping region in which the frequency of the reflected signal ramps up; and taking a plurality of samples in a ramping region in which the frequency of the reflected signal ramps down; forming a first data stream comprising data sampled from a plurality of said ramping regions in which the frequency of the reflected signal ramps up; and forming a second data stream comprising data sampled from a plurality of said ramping regions in which the frequency of the reflected signal ramps down, wherein the first data stream and the second data stream are separate data streams. transmitting a frequency modulated continuous wave signal comprising a plurality of ramping regions in which a frequency of the frequency modulated continuous wave signal ramps up to a first frequency or ramps down to a second frequency; receiving a reflected signal corresponding to the reflection of the frequency modulated continuous wave signal from one or more physical objects, wherein the reflected signal includes a plurality of ramping regions corresponding to the ramping regions of the transmitted frequency modulated continuous wave signal; sampling the reflected signal by: taking a plurality of samples in a ramping region in which the frequency of the reflected signal ramps up; and taking a plurality of samples in a ramping region in which the frequency of the reflected signal ramps down; taking a plurality of samples in a ramping region in which the frequency of the reflected signal ramps up; and taking a plurality of samples in a ramping region in which the frequency of the reflected signal ramps down; forming a first data stream comprising data sampled from a plurality of said ramping regions in which the frequency of the reflected signal ramps up; and forming a second data stream comprising data sampled from a plurality of said ramping regions in which the frequency of the reflected signal ramps down, wherein the first data stream and the second data stream are separate data streams.
A method by a radio node operating in multiple modes for power detection, the method comprising: while operating the radio node in a first mode, comparing power levels of transmissions on a channel to a first threshold to determine whether the channel is free; while operating the radio node in the first mode, detecting that the power levels of the transmissions on the channel are within a specified range during a first time period; in response to detecting the power levels within the specified range during the first time period, switching the radio node to a second mode, wherein the second mode comprises a duty-cycle mode; while operating the radio node in the second mode comprising the duty-cycle mode, comparing the power levels of the transmissions on the channel to a second threshold during a first portion of a duty cycle and to a third threshold during a second portion of the duty cycle to determine whether the channel is free, the third threshold being different from the second threshold; in response to determining that the channel is free, initiating transmission on the channel; while operating in the second mode, failing to detect power levels with the specified range during the second portion of the duty cycle; and in response to not detecting the power levels within the specified range during the second portion, switching to the first mode. while operating the radio node in a first mode, comparing power levels of transmissions on a channel to a first threshold to determine whether the channel is free; while operating the radio node in the first mode, detecting that the power levels of the transmissions on the channel are within a specified range during a first time period; in response to detecting the power levels within the specified range during the first time period, switching the radio node to a second mode, wherein the second mode comprises a duty-cycle mode; while operating the radio node in the second mode comprising the duty-cycle mode, comparing the power levels of the transmissions on the channel to a second threshold during a first portion of a duty cycle and to a third threshold during a second portion of the duty cycle to determine whether the channel is free, the third threshold being different from the second threshold; in response to determining that the channel is free, initiating transmission on the channel; while operating in the second mode, failing to detect power levels with the specified range during the second portion of the duty cycle; and in response to not detecting the power levels within the specified range during the second portion, switching to the first mode.
A method of a user equipment , UE, for application selection in a virtual reality mode, the method comprising: detecting a selection of an application; identifying an operation mode of the UE ; and if the UE is in a virtual reality mode, determining whether the selected application is included in a grouping of applications, wherein the grouping includes one or more applications related to the selected application; responsive to the selected application being included in the grouping of applications, while the UE is in the virtual reality mode, executing the one or more applications and the selected application; and displaying the one or more applications and the selected application in the virtual reality mode on a display of the UE ; and if the UE is in a normal mode, executing the selected application without executing the one or more applications. detecting a selection of an application; identifying an operation mode of the UE ; and if the UE is in a virtual reality mode, determining whether the selected application is included in a grouping of applications, wherein the grouping includes one or more applications related to the selected application; responsive to the selected application being included in the grouping of applications, while the UE is in the virtual reality mode, executing the one or more applications and the selected application; and displaying the one or more applications and the selected application in the virtual reality mode on a display of the UE ; and if the UE is in a normal mode, executing the selected application without executing the one or more applications.
An aircraft undercarriage comprising a leg carrying at least one wheel and for mounting to move on an aircraft structure between a deployed position and a retracted position, the undercarriage including a brace member arranged between the structure of the aircraft and the leg in order to stabilize the leg in the deployed position, and a drive actuator for moving the leg from the deployed position to the retracted position, the undercarriage being characterized in that the brace member comprises a strut arm having a proximal end that is designed to be hinged on the structure of the aircraft, the arm presenting a longitudinal slot extending until it reaches a distal end in order to terminate in a bend and having slidably engaged therein a finger that is secured to the leg, the drive actuator being coupled to said strut arm.