mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication by a user equipment, UE , comprising: determining whether to use a first timing configuration or a second timing configuration for communication in an unlicensed radio frequency spectrum band, the first timing configuration having a first time difference between a downlink communication and a responsive uplink communication, and the second timing configuration having a second time difference between the downlink communication and the responsive uplink communication, the second time difference being less than the first time difference; receiving a control message from a base station during a transmission opportunity, TxOp, of the unlicensed radio frequency spectrum band; and transmitting an uplink message during the TxOp in response to the control message based at least in part on the first timing configuration or the second timing configuration, wherein the uplink message comprises a channel state information, CSI, report that is based at least in part on the first timing configuration or the second timing configuration. determining whether to use a first timing configuration or a second timing configuration for communication in an unlicensed radio frequency spectrum band, the first timing configuration having a first time difference between a downlink communication and a responsive uplink communication, and the second timing configuration having a second time difference between the downlink communication and the responsive uplink communication, the second time difference being less than the first time difference; receiving a control message from a base station during a transmission opportunity, TxOp, of the unlicensed radio frequency spectrum band; and transmitting an uplink message during the TxOp in response to the control message based at least in part on the first timing configuration or the second timing configuration, wherein the uplink message comprises a channel state information, CSI, report that is based at least in part on the first timing configuration or the second timing configuration.
Assembly for transporting uranium hexafluoride, characterised in that it comprises: - a sealed inner container , defining a first containment shell intended to be loaded with uranium hexafluoride, the sealed inner container having a general cylindrical shape of circular cross-section, the first containment shell being delimited by a lateral wall extending about a longitudinal central axis of the inner container, as well as by two opposite axial end walls crossed by the longitudinal central axis , at least one of the two opposite axial end walls of the sealed inner container being equipped with a uranium hexafluoride filling valve as well as with a protective annular axial extension of the uranium hexafluoride filling valve , the extension extending axially beyond the filling valve ; - a sealed outer container delimiting a second containment shell wherein the sealed inner container is housed in an extractable manner; and - two shock absorber caps removably fastened on respectively two opposite axial ends of the sealed outer container . - a sealed inner container , defining a first containment shell intended to be loaded with uranium hexafluoride, the sealed inner container having a general cylindrical shape of circular cross-section, the first containment shell being delimited by a lateral wall extending about a longitudinal central axis of the inner container, as well as by two opposite axial end walls crossed by the longitudinal central axis , at least one of the two opposite axial end walls of the sealed inner container being equipped with a uranium hexafluoride filling valve as well as with a protective annular axial extension of the uranium hexafluoride filling valve , the extension extending axially beyond the filling valve ; - a sealed outer container delimiting a second containment shell wherein the sealed inner container is housed in an extractable manner; and - two shock absorber caps removably fastened on respectively two opposite axial ends of the sealed outer container .
A sigma-delta analog to digital converter, ADC, comprising: a digital-to-analog converter, DAC, ; a loop filter coupled to receive an output from the DAC ; and a multi-bit variable resolution quantizer coupled to receive an output form the loop filter ; wherein the multi-bit variable resolution quantizer is controlled by a random sequence generator ; wherein the random sequence generator is configured to introduce dithering by controlling the resolution of the variable resolution multi-bit quantizer , wherein the multi-bit variable resolution quantizer is configured to switch only between an N-level quantizer function and an N-1 level quantizer function, wherein the DAC is configurable to provide either N-1 levels or N levels for its output signal and wherein N is an integer greater than 2 and thresholds and possible output values of the multi-bit variable resolution quantizer each are multiplied by (N-1)/(N-2) if the N levels quantization function is selected, wherein the DAC is configured to receive the multiplied output values of the multi-bit variable resolution quantizer, wherein the thresholds for the N-level quantizer function align in the middle of the thresholds for the N-1 level quantizer function, thereby providing on average a uniform quantization function, wherein the random sequence generator is further configured to control the variable resolution multi-bit quantizer such that an occurrence of the N- level quantizer function is equally probable to an occurrence of the N-1 level quantizer function. a digital-to-analog converter, DAC, ; a loop filter coupled to receive an output from the DAC ; and a multi-bit variable resolution quantizer coupled to receive an output form the loop filter ; wherein the multi-bit variable resolution quantizer is controlled by a random sequence generator ; wherein the random sequence generator is configured to introduce dithering by controlling the resolution of the variable resolution multi-bit quantizer , wherein the multi-bit variable resolution quantizer is configured to switch only between an N-level quantizer function and an N-1 level quantizer function, wherein the DAC is configurable to provide either N-1 levels or N levels for its output signal and wherein N is an integer greater than 2 and thresholds and possible output values of the multi-bit variable resolution quantizer each are multiplied by (N-1)/(N-2) if the N levels quantization function is selected, wherein the DAC is configured to receive the multiplied output values of the multi-bit variable resolution quantizer, wherein the thresholds for the N-level quantizer function align in the middle of the thresholds for the N-1 level quantizer function, thereby providing on average a uniform quantization function, wherein the random sequence generator is further configured to control the variable resolution multi-bit quantizer such that an occurrence of the N- level quantizer function is equally probable to an occurrence of the N-1 level quantizer function.
A damper device comprising: an input element to which a torque from an engine (EG) is transmitted; an output element ; an elastic body (SP1, SP2, SP) that transmits a torque between the input element and the output element ; and a rotary inertia mass damper having a mass body that rotates in accordance with a relative rotation of the input element and the output element , wherein the output element is configured to be coupled to a rotor (R) of an electric motor generator (MG), the rotor (R) of the electric motor generator (MG) is coupled to an input shaft (IS) of a transmission (TM), the rotary inertia mass damper includes a planetary gear mechanism (PG, PG') having a sun gear , a ring gear , a plurality of pinion gears , and a carrier that supports the plurality of pinion gears , and the carrier is a part of the input element , one of the sun gear and the ring gear is a part of the output element , and the other of the sun gear and the ring gear functions as the mass body, characterized in that a moment of inertia larger than a total value of a moment of inertia of the plurality of pinion gears and the mass body is applied to the input element , and a moment of inertia of the output element is a negative value. an input element to which a torque from an engine (EG) is transmitted; an output element ; an elastic body (SP1, SP2, SP) that transmits a torque between the input element and the output element ; and a rotary inertia mass damper having a mass body that rotates in accordance with a relative rotation of the input element and the output element , wherein the output element is configured to be coupled to a rotor (R) of an electric motor generator (MG), the rotor (R) of the electric motor generator (MG) is coupled to an input shaft (IS) of a transmission (TM), the rotary inertia mass damper includes a planetary gear mechanism (PG, PG') having a sun gear , a ring gear , a plurality of pinion gears , and a carrier that supports the plurality of pinion gears , and the carrier is a part of the input element , one of the sun gear and the ring gear is a part of the output element , and the other of the sun gear and the ring gear functions as the mass body, characterized in that a moment of inertia larger than a total value of a moment of inertia of the plurality of pinion gears and the mass body is applied to the input element , and a moment of inertia of the output element is a negative value.
A light generating system comprising a lighting unit , a luminescent element , an optical element , and a reflective element , wherein: - the lighting unit is configured to generate a beam of unit light ; - the luminescent element comprises a luminescent material configured to convert at least part of the unit light into luminescent material light ; wherein the luminescent element comprises a first luminescent element face and a second luminescent element face , wherein at least part of the luminescent material is configured between the first luminescent element face and the second luminescent element face ; - the optical element comprises an external surface , wherein the optical element is configured between the luminescent element and the reflective element , wherein a first part of the external surface is directed to the second luminescent face , wherein a second part of the external surface is directed to the reflective element , and wherein a third part of the external surface is configured in a light receiving relationship with the lighting unit ; wherein a first area A1 of the first part of the external surface of the optical element is smaller than a second area A2 of the second part of the external surface of the optical element , wherein the optical element is transmissive for the unit light ; - the reflective element is configured to reflect unit light ; and - the lighting unit is configured such that in an operational mode the lighting unit is configured to irradiate the first luminescent element face via transmission through the optical element and reflection at the reflective element . - the lighting unit is configured to generate a beam of unit light ; - the luminescent element comprises a luminescent material configured to convert at least part of the unit light into luminescent material light ; wherein the luminescent element comprises a first luminescent element face and a second luminescent element face , wherein at least part of the luminescent material is configured between the first luminescent element face and the second luminescent element face ; - the optical element comprises an external surface , wherein the optical element is configured between the luminescent element and the reflective element , wherein a first part of the external surface is directed to the second luminescent face , wherein a second part of the external surface is directed to the reflective element , and wherein a third part of the external surface is configured in a light receiving relationship with the lighting unit ; wherein a first area A1 of the first part of the external surface of the optical element is smaller than a second area A2 of the second part of the external surface of the optical element , wherein the optical element is transmissive for the unit light ; - the reflective element is configured to reflect unit light ; and - the lighting unit is configured such that in an operational mode the lighting unit is configured to irradiate the first luminescent element face via transmission through the optical element and reflection at the reflective element .
A surgical clip configured to ligate tissue, the surgical clip comprising: a first leg member and a second leg member , the first leg member having an inner surface with a concave curvature along its length, and the second leg member having an inner surface with a convex curvature along its length, wherein the first and second leg members are configured to move between an open configuration wherein the inner surfaces are spaced apart and a closed configuration wherein the inner surfaces are approximated; a first locking member positioned on a distal end portion of the first leg member, and a second locking member positioned on a distal end portion of the second leg member, the first and second locking members being configured to interact to secure the first and second leg members in the closed configuration; and a third locking member positioned between a proximal end portion and the distal end portion of the first leg member , and a fourth locking member positioned between a proximal end portion and the distal end portion of the second leg member , the third and fourth locking members being configured to interact to secure the first and second leg members in the closed configuration, wherein the third locking member includes an elongate member that extends from the first leg member in an arcuate configuration and which includes a protrusion configured to engage the fourth locking member characterised in that the protrusion is spaced from the fourth locking member in the closed configuration and in the absence of tissue. a first leg member and a second leg member , the first leg member having an inner surface with a concave curvature along its length, and the second leg member having an inner surface with a convex curvature along its length, wherein the first and second leg members are configured to move between an open configuration wherein the inner surfaces are spaced apart and a closed configuration wherein the inner surfaces are approximated; a first locking member positioned on a distal end portion of the first leg member, and a second locking member positioned on a distal end portion of the second leg member, the first and second locking members being configured to interact to secure the first and second leg members in the closed configuration; and a third locking member positioned between a proximal end portion and the distal end portion of the first leg member , and a fourth locking member positioned between a proximal end portion and the distal end portion of the second leg member , the third and fourth locking members being configured to interact to secure the first and second leg members in the closed configuration, wherein the third locking member includes an elongate member that extends from the first leg member in an arcuate configuration and which includes a protrusion configured to engage the fourth locking member characterised in that the protrusion is spaced from the fourth locking member in the closed configuration and in the absence of tissue.
A mixing valve for a sanitary fitting, comprising: - a valve housing having a cold water feed for cold water, a hot water feed for hot water, a mixing chamber and a mixed water discharge , - a mixed water valve for mixing the cold water and the hot water to form mixed water, - at least one pressure sensor by means of which a difference between a cold water pressure in the cold water feed and a hot water pressure in the hot water feed can be determined, - at least one pressure equalization valve in the cold water feed and the hot water feed , wherein the at least one pressure equalization valve has a first slide valve by means of which the cold water feed and the hot water feed can be at least partially closed, wherein the first slide valve has a first wedge-shaped portion in the region of the cold water feed and a second wedge-shaped portion in the region of the hot water feed , - at least one first drive by means of which the at least one pressure equalization valve can be actuated in such a manner that the cold water pressure and the hot water pressure downstream of the at least one pressure equalization valve can be at least partially adjusted, characterized in that the first wedge-shaped portion has a first nose and the second wedge-shaped section has a second nose , wherein the first nose projects at least partially into the cold water feed and the second nose projects at least partially into the hot water feed . - a valve housing having a cold water feed for cold water, a hot water feed for hot water, a mixing chamber and a mixed water discharge , - a mixed water valve for mixing the cold water and the hot water to form mixed water, - at least one pressure sensor by means of which a difference between a cold water pressure in the cold water feed and a hot water pressure in the hot water feed can be determined, - at least one pressure equalization valve in the cold water feed and the hot water feed , wherein the at least one pressure equalization valve has a first slide valve by means of which the cold water feed and the hot water feed can be at least partially closed, wherein the first slide valve has a first wedge-shaped portion in the region of the cold water feed and a second wedge-shaped portion in the region of the hot water feed , - at least one first drive by means of which the at least one pressure equalization valve can be actuated in such a manner that the cold water pressure and the hot water pressure downstream of the at least one pressure equalization valve can be at least partially adjusted, characterized in that the first wedge-shaped portion has a first nose and the second wedge-shaped section has a second nose , wherein the first nose projects at least partially into the cold water feed and the second nose projects at least partially into the hot water feed .
A vehicle sensor system comprising an exterior surface; and a repellent surface layer disposed on the exterior surface, wherein the repellent surface layer comprises a cured organic matrix comprising low surface energy moieties, the low surface energy moieties being fluorinated moieties, and non-ionic surfactant having a hydrophilic-lipophilic balance (HLB) greater than 5 and comprising an alkyl or alkenyl group having at least 12 carbon atoms and ethoxylated repeat units; and wherein the exterior surface exhibits an increase in haze of less than 5, 4, 3, or 2% as determined in accordance with the Dirty Water Spray Test as described in the Example section of the description. an exterior surface; and a repellent surface layer disposed on the exterior surface, wherein the repellent surface layer comprises a cured organic matrix comprising low surface energy moieties, the low surface energy moieties being fluorinated moieties, and non-ionic surfactant having a hydrophilic-lipophilic balance (HLB) greater than 5 and comprising an alkyl or alkenyl group having at least 12 carbon atoms and ethoxylated repeat units; and wherein the exterior surface exhibits an increase in haze of less than 5, 4, 3, or 2% as determined in accordance with the Dirty Water Spray Test as described in the Example section of the description.
A latch system comprising: an actuation module having first and second actuation mechanisms , the first actuation mechanism including a first handle coupled to a locking rod , the locking rod having an end slot and an oppositely disposed rod insert , the second actuation mechanism including at least one second handle , a conversion block and an outer rod coupled together, the outer rod having an open end and a slot ; at least one latch module having a retractable latch; at least one control cable connecting the conversion block and the at least one latch module such that rotation of the conversion block in a first direction retracts the latch; and a lock operably engagable with the end slot to selectively allow and prevent rotation of the locking rod ; wherein the rod insert is at least partially disposed within the outer rod through the open end ; wherein the locking rod is coupled to the outer rod with a screw that extends through the slot ; wherein rotation of the locking rod in the first direction rotates the conversion block ; and wherein rotation of the outer rod in the first direction rotates the conversion block without rotating the locking rod such that the second actuation mechanism operates independently of the first actuation mechanism . an actuation module having first and second actuation mechanisms , the first actuation mechanism including a first handle coupled to a locking rod , the locking rod having an end slot and an oppositely disposed rod insert , the second actuation mechanism including at least one second handle , a conversion block and an outer rod coupled together, the outer rod having an open end and a slot ; at least one latch module having a retractable latch; at least one control cable connecting the conversion block and the at least one latch module such that rotation of the conversion block in a first direction retracts the latch; and a lock operably engagable with the end slot to selectively allow and prevent rotation of the locking rod ; wherein the rod insert is at least partially disposed within the outer rod through the open end ; wherein the locking rod is coupled to the outer rod with a screw that extends through the slot ; wherein rotation of the locking rod in the first direction rotates the conversion block ; and wherein rotation of the outer rod in the first direction rotates the conversion block without rotating the locking rod such that the second actuation mechanism operates independently of the first actuation mechanism .
Method for producing coated active materials, which are negative electrode materials, characterized in that the surfaces of the active materials are aqueously coated according to the layer-by-layer method, the layer-by-layer method comprising the alternating application of cationic and anionic polyelectrolyte layers and at least one washing step between the alternating application, with polyelectrolyte multilayers being produced and the active materials coated with the polyelectrolyte multilayers subsequently being carbonized; and the coated active materials being carbon particles, carbon-silicon multilayer particles, carbon-tin multilayer particles, carbon-tin dioxide multilayer particles, carbon-copper multilayer particles, multilayer particles made of carbon and metal alloys, nanoparticles of silicon, tin, tin dioxide, titanium dioxide, or lithium titanates.