mhurhangee/patent-ind-claim-en huggingface dataset:
A system for manipulating magnetic particles in a sample vial comprising: a sample vial receiving member for holding the sample vial containing magnetic particles; and, a magnet array comprising, a first magnet comprising an upper horizontal surface and a vertical surface, wherein a south pole face of said first magnet is positioned to face said sample vial , a spacer comprising an upper horizontal surface, wherein said spacer is positioned on said upper horizontal surface of said first magnet , a second magnet comprising an upper horizontal surface, said second magnet positioned on said upper horizontal surface of said spacer , wherein a south pole face of said second magnet is positioned to face said sample vial , and a third magnet positioned on said upper horizontal surface of said second magnet , wherein a north pole face of said third magnet is positioned to face said sample vial , and wherein said magnet array is arranged to generate a magnetic field for manipulating said magnetic particles in said sample vial . a sample vial receiving member for holding the sample vial containing magnetic particles; and, a magnet array comprising, a first magnet comprising an upper horizontal surface and a vertical surface, wherein a south pole face of said first magnet is positioned to face said sample vial , a spacer comprising an upper horizontal surface, wherein said spacer is positioned on said upper horizontal surface of said first magnet , a second magnet comprising an upper horizontal surface, said second magnet positioned on said upper horizontal surface of said spacer , wherein a south pole face of said second magnet is positioned to face said sample vial , and a third magnet positioned on said upper horizontal surface of said second magnet , wherein a north pole face of said third magnet is positioned to face said sample vial , and wherein said magnet array is arranged to generate a magnetic field for manipulating said magnetic particles in said sample vial . a first magnet comprising an upper horizontal surface and a vertical surface, wherein a south pole face of said first magnet is positioned to face said sample vial , a spacer comprising an upper horizontal surface, wherein said spacer is positioned on said upper horizontal surface of said first magnet , a second magnet comprising an upper horizontal surface, said second magnet positioned on said upper horizontal surface of said spacer , wherein a south pole face of said second magnet is positioned to face said sample vial , and a third magnet positioned on said upper horizontal surface of said second magnet , wherein a north pole face of said third magnet is positioned to face said sample vial , and wherein said magnet array is arranged to generate a magnetic field for manipulating said magnetic particles in said sample vial .
An exoskeleton comprising: a first compression member configured to be coupled to a wearer of the exoskeleton; a second compression member configured to be coupled to the wearer; a tensegrity joint connecting the first compression member to the second compression member, the joint including a tensile member having a first end and a second end, wherein the first end is coupled to the first compression member on a first side of the joint, and the second end is coupled to the first compression member on a second side of the joint opposite the first side, such that the joint can tilt along any axis and/or rotate. a first compression member configured to be coupled to a wearer of the exoskeleton; a second compression member configured to be coupled to the wearer; a tensegrity joint connecting the first compression member to the second compression member, the joint including a tensile member having a first end and a second end, wherein the first end is coupled to the first compression member on a first side of the joint, and the second end is coupled to the first compression member on a second side of the joint opposite the first side, such that the joint can tilt along any axis and/or rotate.
A method comprising: displaying a spatio-temporal graph that visually indicates the positions of a sound object at each time in a range of times and, in addition, simultaneously spatio-temporally indicates a state of the sound object over the range of times, wherein the state of the sound object is an audio property of the sound object; enabling user adaptation of the spatio-temporal graph to change a position of the sound object during at least a portion of the range of times and/or to change the state of the sound object over at least a portion of the range of times; and enabling rendering of spatial audio output using the position and state of the sound object indicated by the adapted spatio-temporal graph. displaying a spatio-temporal graph that visually indicates the positions of a sound object at each time in a range of times and, in addition, simultaneously spatio-temporally indicates a state of the sound object over the range of times, wherein the state of the sound object is an audio property of the sound object; enabling user adaptation of the spatio-temporal graph to change a position of the sound object during at least a portion of the range of times and/or to change the state of the sound object over at least a portion of the range of times; and enabling rendering of spatial audio output using the position and state of the sound object indicated by the adapted spatio-temporal graph.
An inorganic composition article being a crystallized glass article having a compressive stress layer formed thereon, wherein the crystallized glass contains at least one kind selected from α-cristobalite and α-cristobalite solid solution as a main crystal phase, wherein by mass% in terms of oxide, a content of a SiO 2 component is 50.0% to 75.0%, a content of a Li 2 O component is 3.0% to 10.0%, a content of an Al 2 O 3 component is 5.0% or more and less than 15.0%, a total content of the Al 2 O 3 component and a ZrO 2 component is 10.0% or more, a content of a ZrO 2 component is more than 0% and 10.0% or less, a content of a K 2 O component is 0% to 10.0%, a content of a P 2 O 5 component is 0% to 10.0%, wherein the compressive stress layer has a surface compressive stress value of 600 MPa or more, wherein the surface compressive stress value is measured using a glass surface stress meter or a scattered light photoelastic stress meter according to the description. by mass% in terms of oxide, a content of a SiO 2 component is 50.0% to 75.0%, a content of a Li 2 O component is 3.0% to 10.0%, a content of an Al 2 O 3 component is 5.0% or more and less than 15.0%, a total content of the Al 2 O 3 component and a ZrO 2 component is 10.0% or more, a content of a ZrO 2 component is more than 0% and 10.0% or less, a content of a K 2 O component is 0% to 10.0%, a content of a P 2 O 5 component is 0% to 10.0%, wherein the compressive stress layer has a surface compressive stress value of 600 MPa or more, wherein the surface compressive stress value is measured using a glass surface stress meter or a scattered light photoelastic stress meter according to the description.
A probe for atomic force microscopy comprising a tip for atomic force microscopy (PT1) borne by a planar substrate (SU) having a main surface, said tip being oriented in a so-called longitudinal direction (y), parallel to said main surface, wherein: - the tip is borne by or monolithic with a shuttle (PCE) comprised in a sensitive part of the probe (SMS), which is movable or deformable and linked to a support structure (SMM2), which is anchored to the main surface of the substrate; - the sensitive part and the support structure are planar elements, extending mainly in planes that are parallel to the main surface of the substrate; - the shuttle is linked to the support structure via at least one element (ET1 - ET4) allowing said shuttle to move or to extend with respect to the support structure in said longitudinal direction; - the tip, the sensitive part and the support structure protrude from an edge (B) of the substrate in said longitudinal direction; - the sensitive part of the probe is at least partly formed by a portion of a layer of a first material, referred to as the first layer, separated from the main surface of the substrate, and the support structure is formed by a portion of a layer of a second material, referred to as the second layer, that is thicker than the first layer and arranged either above the first layer with respect to the substrate or between the first layer and the substrate. - the tip is borne by or monolithic with a shuttle (PCE) comprised in a sensitive part of the probe (SMS), which is movable or deformable and linked to a support structure (SMM2), which is anchored to the main surface of the substrate; - the sensitive part and the support structure are planar elements, extending mainly in planes that are parallel to the main surface of the substrate; - the shuttle is linked to the support structure via at least one element (ET1 - ET4) allowing said shuttle to move or to extend with respect to the support structure in said longitudinal direction; - the tip, the sensitive part and the support structure protrude from an edge (B) of the substrate in said longitudinal direction; - the sensitive part of the probe is at least partly formed by a portion of a layer of a first material, referred to as the first layer, separated from the main surface of the substrate, and the support structure is formed by a portion of a layer of a second material, referred to as the second layer, that is thicker than the first layer and arranged either above the first layer with respect to the substrate or between the first layer and the substrate.
A tire vulcanizing apparatus comprising: a vulcanizing bladder inflatable in an inner space of an unvulcanized tire (T) to press the unvulcanized tire (T) against a vulcanizing mold ; a center device for holding the vulcanizing bladder ; a supplier for supplying fluid (G) to the vulcanizing bladder ; a discharger for discharging the fluid (G) in the vulcanizing bladder ; the vulcanizing bladder comprising a first bladder configured to contact with an inner circumferential surface of the unvulcanized tire (T) and a second bladder arranged inside the first bladder , and the fluid (G) including a first fluid (G1) to be supplied between the first bladder and the second bladder and a second fluid (G2) to be supplied to an inside of the second bladder , characterized in that at least one of an inner circumferential surface of the first bladder and an outer circumferential surface of the second bladder being provided with a guide groove extending in a tire axial direction through which the first fluid (G1) can pass continuously between the supplier and the discharger . a vulcanizing bladder inflatable in an inner space of an unvulcanized tire (T) to press the unvulcanized tire (T) against a vulcanizing mold ; a center device for holding the vulcanizing bladder ; a supplier for supplying fluid (G) to the vulcanizing bladder ; a discharger for discharging the fluid (G) in the vulcanizing bladder ; the vulcanizing bladder comprising a first bladder configured to contact with an inner circumferential surface of the unvulcanized tire (T) and a second bladder arranged inside the first bladder , and the fluid (G) including a first fluid (G1) to be supplied between the first bladder and the second bladder and a second fluid (G2) to be supplied to an inside of the second bladder , characterized in that at least one of an inner circumferential surface of the first bladder and an outer circumferential surface of the second bladder being provided with a guide groove extending in a tire axial direction through which the first fluid (G1) can pass continuously between the supplier and the discharger .
A motion detection method comprising: obtaining a first set of channel responses representing wireless signals transmitted through a space during a first time period, each of the channel responses comprising a set of frequency components for a discrete number of subcarrier frequencies; by operation of one or more processors, determining , from the first set of channel responses, a set of mutually orthogonal axes in a frequency vector domain, each of the first set of channel responses corresponding to a vector in the frequency vector domain; obtaining a second channel response representing a wireless signal transmitted through the space during a second time period; by operation of one or more processors, determining a channel vector representing the second channel response in the frequency vector domain; and detecting motion of an object in the space based on a projection of the channel vector onto one of the set of mutually orthogonal axes. obtaining a first set of channel responses representing wireless signals transmitted through a space during a first time period, each of the channel responses comprising a set of frequency components for a discrete number of subcarrier frequencies; by operation of one or more processors, determining , from the first set of channel responses, a set of mutually orthogonal axes in a frequency vector domain, each of the first set of channel responses corresponding to a vector in the frequency vector domain; obtaining a second channel response representing a wireless signal transmitted through the space during a second time period; by operation of one or more processors, determining a channel vector representing the second channel response in the frequency vector domain; and detecting motion of an object in the space based on a projection of the channel vector onto one of the set of mutually orthogonal axes.
A chiller system comprising a plurality of heat pump chillers (100 to 100(n)) being connected to each other and a control mechanism to control the operation of each chiller , wherein the control mechanism is an aggregate of the respective control devices (140(i)) of the chillers , and wherein the chiller system is configured to perform a process wherein the plurality of heat pump chillers regulates a temperature of a circulating liquid as a heat medium for temperature regulation by condensation heat or evaporation heat of a refrigerant, wherein, when there is at least one active chiller out of the plurality of chillers, an operation command is transmitted by the control device (140(i)) of a master chiller (100(i)) to one of the remaining chillers being stopped so that the operation of the stopped chiller is started under a condition that the following relation is satisfied: Qt , total required operation capacity / N , number of currently active chillers + 1 ≥ Qp , partial load capacity , where the [total required operation capacity] represents a total operation capacity required of the at least one active chiller, the [number of currently active chillers] represents a number of the at least one active chiller, and the [partial load capacity] represents a load capacity of a predetermined partial load that is obtained by multiplying a rated output of the chiller by a predetermined partial load capacity, and wherein, when one or more chillers are operated out of the plurality of chillers (100 to 100(n) including the master chiller (100(i)), the control device (140(i) transmits a stop command to one of the active chillers , if a relation Qt / N ≤ Qp is satisfied.
Thermosetting material for use in additive manufacturing, the material comprising at least one thermosetting resin and at least two curing compounds selected from crosslinking compounds, catalysts, initiators, accelerators and mixtures thereof, which curing compounds are different from said thermosetting resin and able to cure this/these thermosetting resin(s), wherein at least one curing compound is provided for curing during the additive manufacturing process and at least one curing compound is provided for curing during a post-curing step, wherein the thermosetting material uses a purely thermal curing system, and wherein at least one curing compound has an activation temperature of between 70 and 130 °C, and at least one curing compound has an activation temperature of greater than 130 °C, with the activation temperature being determined by means of DSC analysis according to the method given in the description.
A nonwoven composite article, comprising: a first layer comprising a first nonwoven web comprising a first plurality of fibers having a first diameter; a second layer comprising a second nonwoven web comprising a second plurality of fibers having a second diameter; and a first interface comprising at least a portion of the first nonwoven web and at least a portion of the second nonwoven web , wherein the portion of the first nonwoven web and the portion of the second nonwoven web are fused, and wherein the second diameter is smaller than the first diameter, and the first plurality of fibers, the second plurality of fibers, or both comprise a water-soluble polyvinyl alcohol fiber forming material, wherein the porosity of the first nonwoven web and the porosity of the second nonwoven web may be different, and where the portion of the first nonwoven web and the portion of the second nonwoven web that form the first interface is solvent fused, and the solvent is one or more selected from the group of water, ethanol, methanol, DMSO, and glycerin. a first layer comprising a first nonwoven web comprising a first plurality of fibers having a first diameter; a second layer comprising a second nonwoven web comprising a second plurality of fibers having a second diameter; and a first interface comprising at least a portion of the first nonwoven web and at least a portion of the second nonwoven web , wherein the portion of the first nonwoven web and the portion of the second nonwoven web are fused, and wherein the second diameter is smaller than the first diameter, and the first plurality of fibers, the second plurality of fibers, or both comprise a water-soluble polyvinyl alcohol fiber forming material, wherein the porosity of the first nonwoven web and the porosity of the second nonwoven web may be different, and where the portion of the first nonwoven web and the portion of the second nonwoven web that form the first interface is solvent fused, and the solvent is one or more selected from the group of water, ethanol, methanol, DMSO, and glycerin.
An anti-interference module , comprising: a circuit board ; an interfering source , disposed on the circuit board , wherein the interfering source may generate a changing interference magnetic field; a device disposing space , disposed on a side of the circuit board and used to dispose an electronic device with a first coil ; and an anti-interference component , configured to generate a compensation magnetic field that overlaps the interference magnetic field, or to consume electric energy generated by coupling between the interference magnetic field and the anti-interference component to reduce magnetic induction intensity of the device disposing space , wherein the anti-interference component comprises: a second coil , disposed on a side of the device disposing space ; and a magnetic field shielding element , wherein at least a part of the magnetic field shielding element is located between the second coil and the device disposing space . a circuit board ; an interfering source , disposed on the circuit board , wherein the interfering source may generate a changing interference magnetic field; a device disposing space , disposed on a side of the circuit board and used to dispose an electronic device with a first coil ; and an anti-interference component , configured to generate a compensation magnetic field that overlaps the interference magnetic field, or to consume electric energy generated by coupling between the interference magnetic field and the anti-interference component to reduce magnetic induction intensity of the device disposing space , wherein the anti-interference component comprises: a second coil , disposed on a side of the device disposing space ; and a magnetic field shielding element , wherein at least a part of the magnetic field shielding element is located between the second coil and the device disposing space . a second coil , disposed on a side of the device disposing space ; and a magnetic field shielding element , wherein at least a part of the magnetic field shielding element is located between the second coil and the device disposing space .
A reciprocating pump comprising a fluid end housing having a number of plunger sections, each plunger section including a plunger bore within which a plunger is slidably received, a suction bore within which a suction valve is positioned and a discharge bore within which a discharge valve is positioned, wherein a cross bore chamber is located between said bores and each of said bores intersects the cross-bore chamber to thereby define a respective cross curve which is spatially separated from each adjacent cross curve, characterized in that the cross-bore chamber is configured as a surface of revolution and the cross-bore chamber defines a single, smooth contiguous surface which extends around and between all of said cross curves.
A method implemented by a base station of a cellular network, comprising: broadcasting essential system information without optional system information and broadcasting a resource configuration of a demand channel, wherein the demand channel is a channel reserved for user equipments to send a request for transmission of the optional system information on demand to save resource and energy, and wherein the demand channel is a common channel shared by user equipments (120-1, 120-2, 120-3) in a cell of the base station, the essential system information being broadcasted periodically and being required to access the cell , wherein broadcasting the essential system information and the resource configuration of the demand channel comprises broadcasting the resource configuration of the demand channel and at least a part of the essential system information in an access information table, AIT ; monitoring , on the demand channel, a request for at least a part of optional system information other than the essential system information; and in response to receiving the request from a user equipment, broadcasting the part of the optional system information. broadcasting essential system information without optional system information and broadcasting a resource configuration of a demand channel, wherein the demand channel is a channel reserved for user equipments to send a request for transmission of the optional system information on demand to save resource and energy, and wherein the demand channel is a common channel shared by user equipments (120-1, 120-2, 120-3) in a cell of the base station, the essential system information being broadcasted periodically and being required to access the cell , wherein broadcasting the essential system information and the resource configuration of the demand channel comprises broadcasting the resource configuration of the demand channel and at least a part of the essential system information in an access information table, AIT ; monitoring , on the demand channel, a request for at least a part of optional system information other than the essential system information; and in response to receiving the request from a user equipment, broadcasting the part of the optional system information.