mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reducing co-channel interference in a wireless network, the method comprising, by a radio resource management , RRM, component: receiving inter-radio measurement data reported by a plurality of wireless access points (AP1-AP5), wherein the inter-radio measurement data relates to observations of radio frequency, RF, signals transmitted between radios of the plurality of access points; wherein two or more (AP1, AP2) of the plurality of wireless access points comprise a first radio operative to transmit wireless signals in a first frequency band and a second radio configurable to transmit wireless signals in either the first frequency band or a second frequency band; the method is characterized by determining from the inter-radio measurement data whether a second radio of a first wireless access point (AP1) of the wireless access points is redundant in relation to the first frequency band; and if the second radio of the wireless access point is determined to be redundant, selecting for the second radio of the first wireless access point an operation mode from a plurality of operation modes, wherein the operation mode is a working mode to transmit signals in the second frequency band or at least not in the first frequency band or a monitor mode; and transmitting a configuration message to the first wireless access point to configure the second radio of the first wireless access point to operate in the selected operation mode. receiving inter-radio measurement data reported by a plurality of wireless access points (AP1-AP5), wherein the inter-radio measurement data relates to observations of radio frequency, RF, signals transmitted between radios of the plurality of access points; wherein two or more (AP1, AP2) of the plurality of wireless access points comprise a first radio operative to transmit wireless signals in a first frequency band and a second radio configurable to transmit wireless signals in either the first frequency band or a second frequency band; the method is characterized by determining from the inter-radio measurement data whether a second radio of a first wireless access point (AP1) of the wireless access points is redundant in relation to the first frequency band; and if the second radio of the wireless access point is determined to be redundant, selecting for the second radio of the first wireless access point an operation mode from a plurality of operation modes, wherein the operation mode is a working mode to transmit signals in the second frequency band or at least not in the first frequency band or a monitor mode; and transmitting a configuration message to the first wireless access point to configure the second radio of the first wireless access point to operate in the selected operation mode.
A rotary additive manufacturing system for producing 3D parts in a layer-wise manner comprising: a silo support ; a tool support overlaying a first side the silo support and configured to rotate about a central axis relative to the silo support ; a plurality of silos attached to the silo support ; and a part developer supported by the tool support and configured to build a 3D part within each of the silos in a layer-by-layer manner during rotation of the tool support relative to the silo support , characterized in that each of the silos extends along the central axis from a second side of the silo support that is opposite the first side. a silo support ; a tool support overlaying a first side the silo support and configured to rotate about a central axis relative to the silo support ; a plurality of silos attached to the silo support ; and a part developer supported by the tool support and configured to build a 3D part within each of the silos in a layer-by-layer manner during rotation of the tool support relative to the silo support , characterized in that each of the silos extends along the central axis from a second side of the silo support that is opposite the first side.
A package structure for a chemical system, comprising: a first substrate ; a second substrate , opposing to the first substrate ; an inner glue frame , disposed between the first substrate and the second substrate for forming an accommodating space, and a chemical system accommodated in the accommodating space; and a first outer glue frame , disposed between the first substrate and the second substrate , and located on an outer side of the inner glue frame ; wherein the inner glue frame is selected from a thermosetting plastic and the first outer glue frame is selected from a thermoplastic characterized in that the package structure further comprises a second outer glue frame , disposed between the first substrate and the second substrate , located on an outer side of the first outer glue frame , and selected from the thermosetting plastic. a first substrate ; a second substrate , opposing to the first substrate ; an inner glue frame , disposed between the first substrate and the second substrate for forming an accommodating space, and a chemical system accommodated in the accommodating space; and a first outer glue frame , disposed between the first substrate and the second substrate , and located on an outer side of the inner glue frame ; wherein the inner glue frame is selected from a thermosetting plastic and the first outer glue frame is selected from a thermoplastic characterized in that the package structure further comprises a second outer glue frame , disposed between the first substrate and the second substrate , located on an outer side of the first outer glue frame , and selected from the thermosetting plastic.
A control valve driven by a solenoid controlled by pulse width modulation (PWM), the control valve comprising: a body having a first port through which a working fluid is introduced, a second port through which the working fluid is delivered, and a valve seat provided in a passage connecting the first port and the second port ; a valve element configured to touch and leave the valve seat to close and open a valve section; an actuating member driven in a direction of an axis line to transmit a driving force of the solenoid to the valve element ; and a vibration absorbing member having viscoelasticity, the vibration absorbing member being set between the body and the actuating member or between a fixed member fixed to the body and the actuating member , wherein a material and a structure of the vibration absorbing member are set such that, during stationary control of a valve opening degree, the vibration absorbing member , having the viscoelasticity, dynamically deforms following vibration of the actuating member accompanying the PWM control, and such that a vibration amplitude of the actuating member is included in a range in which the vibration absorbing member and the actuating member are not caused to slide relative to each other, characterized in that the vibration absorbing member is a viscoelastic solid, and wherein during the stationary control, an inner peripheral portion of the vibration absorbing member dynamically deforms following vibration of the actuating member so that the vibration absorbing member does not receive a dynamic friction resistance from the actuating member . a body having a first port through which a working fluid is introduced, a second port through which the working fluid is delivered, and a valve seat provided in a passage connecting the first port and the second port ; a valve element configured to touch and leave the valve seat to close and open a valve section; an actuating member driven in a direction of an axis line to transmit a driving force of the solenoid to the valve element ; and a vibration absorbing member having viscoelasticity, the vibration absorbing member being set between the body and the actuating member or between a fixed member fixed to the body and the actuating member , wherein a material and a structure of the vibration absorbing member are set such that, during stationary control of a valve opening degree, the vibration absorbing member , having the viscoelasticity, dynamically deforms following vibration of the actuating member accompanying the PWM control, and such that a vibration amplitude of the actuating member is included in a range in which the vibration absorbing member and the actuating member are not caused to slide relative to each other, characterized in that the vibration absorbing member is a viscoelastic solid, and wherein during the stationary control, an inner peripheral portion of the vibration absorbing member dynamically deforms following vibration of the actuating member so that the vibration absorbing member does not receive a dynamic friction resistance from the actuating member .
A compressor suitable to be used as a cabin air compressor (CAC) of an aircraft environmental control system, the compressor comprising: a compressor case defining a forward end , an aft end axially spaced apart from the forward end, wherein the forward end defines a compressor inlet ; and a cooling jacket , wherein the cooling jacket is configured to direct a cooling medium through it; characterised in that the cooling jacket is a supplemental cooling jacket positioned around at least a portion of the compressor case and at least partially conforming the compressor case, and in that the supplemental cooling jacket is formed from a synthetic fabric. a compressor case defining a forward end , an aft end axially spaced apart from the forward end, wherein the forward end defines a compressor inlet ; and a cooling jacket , wherein the cooling jacket is configured to direct a cooling medium through it; characterised in that the cooling jacket is a supplemental cooling jacket positioned around at least a portion of the compressor case and at least partially conforming the compressor case, and in that the supplemental cooling jacket is formed from a synthetic fabric.
A cooler apparatus for cooling, by using cooling air, a high-temperature granular conveyed material that is deposited to form a layer while conveying the granular conveyed material in a conveying direction, the cooler apparatus comprising: a plurality of cooling grate lines that are arranged adjacently to each other in a width direction orthogonal to the conveying direction, the plurality of cooling grate lines supporting the granular conveyed material via a dead layer formed by a granular buried material having a lower temperature than a temperature of the granular conveyed material, and to move in a reciprocating manner in the conveying direction and a reverse direction thereto to convey the granular conveyed material; and a damming member disposed above at least one of the plurality of cooling grate lines and buried in the layer of the granular conveyed material , characterized in that the damming member is configured to move in the conveying direction and the reverse direction relative to the at least one cooling grate line when the at least one cooling grate line moves in the reciprocating manner, and the damming member is configured such that the granular conveyed material moves onto and beyond the damming member more easily when the at least one cooling grate line moves in the conveying direction relative to the damming member than when the at least one cooling grate line moves in the reverse direction relative to the damming member . a plurality of cooling grate lines that are arranged adjacently to each other in a width direction orthogonal to the conveying direction, the plurality of cooling grate lines supporting the granular conveyed material via a dead layer formed by a granular buried material having a lower temperature than a temperature of the granular conveyed material, and to move in a reciprocating manner in the conveying direction and a reverse direction thereto to convey the granular conveyed material; and a damming member disposed above at least one of the plurality of cooling grate lines and buried in the layer of the granular conveyed material , characterized in that the damming member is configured to move in the conveying direction and the reverse direction relative to the at least one cooling grate line when the at least one cooling grate line moves in the reciprocating manner, and the damming member is configured such that the granular conveyed material moves onto and beyond the damming member more easily when the at least one cooling grate line moves in the conveying direction relative to the damming member than when the at least one cooling grate line moves in the reverse direction relative to the damming member .
A combination boiler for providing heated water to a boiler loop and domestic hot water, referred to hereinafter as DHW, to a domestic water loop, the combination boiler comprising: a primary heat exchanger configured to be connected to the boiler loop; a burner configured to provide heat to the primary heat exchanger ; a secondary heat exchanger configured to transfer heat energy from the boiler loop to the domestic water loop; and a controller , characterized in that the controller is configured to: monitor a primary heat exchanger inlet temperature and a DHW output temperature; obtain a pre-heat initialization temperature threshold and a pre-heat cancellation temperature threshold; detect a low temperature condition when at least one of the primary heat exchanger inlet temperature and the DHW output temperature falls below the pre-heat initialization temperature threshold; initiate a pre-heat operation of the combination boiler responsive to the low temperature condition by circulating heated water from the primary heat exchanger to the secondary heat exchanger ; and end the pre-heat operation without firing the burner when both of the primary heat exchanger inlet temperature and the DHW output temperature exceed the pre-heat cancellation temperature threshold. a primary heat exchanger configured to be connected to the boiler loop; a burner configured to provide heat to the primary heat exchanger ; a secondary heat exchanger configured to transfer heat energy from the boiler loop to the domestic water loop; and a controller , monitor a primary heat exchanger inlet temperature and a DHW output temperature; obtain a pre-heat initialization temperature threshold and a pre-heat cancellation temperature threshold; detect a low temperature condition when at least one of the primary heat exchanger inlet temperature and the DHW output temperature falls below the pre-heat initialization temperature threshold; initiate a pre-heat operation of the combination boiler responsive to the low temperature condition by circulating heated water from the primary heat exchanger to the secondary heat exchanger ; and end the pre-heat operation without firing the burner when both of the primary heat exchanger inlet temperature and the DHW output temperature exceed the pre-heat cancellation temperature threshold.
A light board structure, comprising: a board body , a wireless transceiver module and a light-emitting member , wherein the wireless transceiver module and the light-emitting member are installed on the board body , and the wireless transceiver module has a feeder wire and a ground wire ; wherein the board body is provided with a collision avoidance area running through the board body and being disposed to avoid collision with the wireless transceiver module and the light-emitting member , the feeder wire and the ground wire are positioned on a side of the collision avoidance area , and the collision avoidance area is configured to emit a radio wave; characterised in that a lower surface of the board body is covered with a first aluminum coating layer, the board body is provided with a first port , the first port is positioned at an end of the collision avoidance area and runs through the board body , and the feeder wire passes through the first port to be connected to the first aluminum coating layer. a board body , a wireless transceiver module and a light-emitting member , wherein the wireless transceiver module and the light-emitting member are installed on the board body , and the wireless transceiver module has a feeder wire and a ground wire ; wherein the board body is provided with a collision avoidance area running through the board body and being disposed to avoid collision with the wireless transceiver module and the light-emitting member , the feeder wire and the ground wire are positioned on a side of the collision avoidance area , and the collision avoidance area is configured to emit a radio wave; characterised in that a lower surface of the board body is covered with a first aluminum coating layer, the board body is provided with a first port , the first port is positioned at an end of the collision avoidance area and runs through the board body , and the feeder wire passes through the first port to be connected to the first aluminum coating layer.
An acoustic signal transmission system comprising: a first transducer mounted to a surface of a member ; a second transducer having a material disposed thereon, the second transducer with the material being movable into contact with a second surface of the member . a first transducer mounted to a surface of a member ; a second transducer having a material disposed thereon, the second transducer with the material being movable into contact with a second surface of the member .
A method performed by a wireless device, comprising: receiving, by the wireless device , a radio resource control message comprising an aperiodic sounding reference signal, SRS, subframe parameter; receiving a downlink control information: indicating uplink resources in a plurality of scheduled consecutive subframes for transmission of transport blocks by the wireless device; and triggering an SRS transmission in a subframe of the plurality of scheduled consecutive subframes; and transmitting the SRS in the subframe, wherein a position of the subframe in the plurality of scheduled consecutive subframes is determined based on the aperiodic SRS subframe parameter. receiving, by the wireless device , a radio resource control message comprising an aperiodic sounding reference signal, SRS, subframe parameter; receiving a downlink control information: indicating uplink resources in a plurality of scheduled consecutive subframes for transmission of transport blocks by the wireless device; and triggering an SRS transmission in a subframe of the plurality of scheduled consecutive subframes; and indicating uplink resources in a plurality of scheduled consecutive subframes for transmission of transport blocks by the wireless device; and triggering an SRS transmission in a subframe of the plurality of scheduled consecutive subframes; and transmitting the SRS in the subframe, wherein a position of the subframe in the plurality of scheduled consecutive subframes is determined based on the aperiodic SRS subframe parameter.
An aerosol-forming substrate for use in an aerosol-generating system, the aerosol-forming substrate comprising: one or more aerosol formers, wherein the aerosol-forming substrate has an aerosol former content of greater than 30 percent by weight; hydroxypropylmethyl cellulose; and one or more cellulose based strengthening agents, wherein the one or more cellulose based strengthening agents comprises cellulose powder, and wherein the aerosol-forming substrate has a cellulose powder content of between about 0.5 percent by weight and about 50 percent by weight. one or more aerosol formers, wherein the aerosol-forming substrate has an aerosol former content of greater than 30 percent by weight; hydroxypropylmethyl cellulose; and one or more cellulose based strengthening agents, wherein the one or more cellulose based strengthening agents comprises cellulose powder, and wherein the aerosol-forming substrate has a cellulose powder content of between about 0.5 percent by weight and about 50 percent by weight.
Biosensor BS comprising at least one polymer P wherein said polymer P is a copolymer of styrene and at least one ester E of (meth)acrylic acid and polyethylene oxide, wherein polymer P has a surface adsorption SA of at least 200ng/cm 2 on the respective surface where polymer P is deposited, said SA being determined by quartz crystal microbalance, wherein polymer P comprises styrene and at least one ester E in a molar ratio of 0.05:1 to 50:1, and wherein said polymer P has been deposited on the surface O of at least one biorecognition element B or on the surface of a tube, pipe or of the housing that are part of said biosensor B.
A process for producing permeable water-absorbing polymer particles by polymerizing droplets of a monomer solution comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a), e) optionally one or more water-soluble polymers, and f) water, in a surrounding gas phase, the resulting polymer particles being coated with at least one permeability improver and optionally pretreated thermally and/or with steam, and that the permeability improver is an inorganic particulate substance, an inorganic colloidally dissolved substance and/or a polyvalent cation. a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a), e) optionally one or more water-soluble polymers, and f) water,
A communication device comprising: a communication unit configured to perform communication by a first link and a second link; and a control unit configured to control a communication operation by the communication unit , wherein the control unit is configured to set an occupancy period of the second link on a basis of transmission suppression information of the first link; wherein the control unit is further configured to set the occupancy period longer than a remaining time of a transmission suppression period of the first link. a communication unit configured to perform communication by a first link and a second link; and a control unit configured to control a communication operation by the communication unit , wherein the control unit is configured to set an occupancy period of the second link on a basis of transmission suppression information of the first link; wherein the control unit is further configured to set the occupancy period longer than a remaining time of a transmission suppression period of the first link.
A milling tool for machining workpieces , in particular made of wood, wood materials, plastics or non-ferrous metals as well as lightweight construction and composite materials made of these materials, at least comprising a disc-shaped base body with a shaft side with a coupling to a machine tool and an end face opposite the shaft side , wherein said base body features, radially outwards, at least one profile cutting edge that is trapezoidal in cross-section, cutting both in both axial directions (A) and in a radial direction (R) in order to produce an arched T-slot , and said base body can be driven about a rotational axis (D) that lies in the centre (Z), characterised in that the end face is designed to cut in the axial direction (A) from the centre (Z) to the outer circumference and comprises a plurality of cutting edges (4, 4'; 5, 5'), which are divided into at least two regions (I, II), wherein the first region (I) is arranged close to the centre and the second region (II) close to the circumference, and the at least one cutting edge in the region close to the centre extends at an angle (a) and the at least one cutting edge in the region close to the circumference extends plane-parallel to a radial plane (E R ) of the base body .