mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining optimized magnetic resonance imaging parameters for medical imaging of a patient for medical procedures, comprising: learning a model of a relationship between known magnetic resonance imaging parameters and a quality measure, the known magnetic resonance imaging parameters and the quality measure being determined from training data, the training data including training images annotated with the known imaging parameters and corresponding values for the quality measure; determining optimized magnetic resonance imaging parameters by optimizing the quality measure using the learned model, wherein the magnetic resonance imaging parameters include repetition time, echo time, echo train length, flip angle, slice thickness, pixel spacing and bandwidth; and acquiring images of the patient using the optimized magnetic resonance imaging parameters, wherein the quality measure comprises a signal-to-noise ratio (SNR) determined as a ratio between an average intensity value of pixels in a first region of interest in a target structure in a training image and an average intensity value of pixels in a second region of interest outside of the target structure in the training image, the second region being in the background. learning a model of a relationship between known magnetic resonance imaging parameters and a quality measure, the known magnetic resonance imaging parameters and the quality measure being determined from training data, the training data including training images annotated with the known imaging parameters and corresponding values for the quality measure; determining optimized magnetic resonance imaging parameters by optimizing the quality measure using the learned model, wherein the magnetic resonance imaging parameters include repetition time, echo time, echo train length, flip angle, slice thickness, pixel spacing and bandwidth; and acquiring images of the patient using the optimized magnetic resonance imaging parameters, wherein the quality measure comprises a signal-to-noise ratio (SNR) determined as a ratio between an average intensity value of pixels in a first region of interest in a target structure in a training image and an average intensity value of pixels in a second region of interest outside of the target structure in the training image, the second region being in the background.
Composite binder containing at least one calcium sulfoaluminate cement, comprising 20 - 80 % by weight C 4 A 3-x F x $, with x ranging from 0 to 2, 0 - 70 % by weight C 2 S, 3 - 30 % by weight aluminates selected from CA, C 12 A 7 , CA 2 , C 3 A, 0 - 30 % by weight ferrites selected from C 2 A y F 1-y with y ranging from 0.2 to 0.8, C 2 F, CF, CF 2 , 0 - 30 % by weight ternesite, 0 - 30 % by weight calcium sulfate and up to 20 % minor phases, and at least one supplementary cementitious material, wherein a weight ratio of calcium sulfate to the sum of ye'elimite, aluminates and ferrites in the composite binder ranges from 0.5 to 0.85. 0 - 70 % by weight C 2 S, 3 - 30 % by weight aluminates selected from CA, C 12 A 7 , CA 2 , C 3 A, 0 - 30 % by weight ferrites selected from C 2 A y F 1-y with y ranging from 0.2 to 0.8, C 2 F, CF, CF 2 , 0 - 30 % by weight ternesite, 0 - 30 % by weight calcium sulfate and up to 20 % minor phases, and at least one supplementary cementitious material, wherein a weight ratio of calcium sulfate to the sum of ye'elimite, aluminates and ferrites in the composite binder ranges from 0.5 to 0.85.
An apparatus comprising: a plurality of layers configured to provide a user interface device , wherein the plurality of layers comprises a first subset of layers configured to provide a display; and a flexible layer overlaying the plurality of layers; wherein the flexible layer is continuous across a bend region and the first subset of layers comprises a plurality of gaps across the bend region. a plurality of layers configured to provide a user interface device , wherein the plurality of layers comprises a first subset of layers configured to provide a display; and a flexible layer overlaying the plurality of layers; wherein the flexible layer is continuous across a bend region and the first subset of layers comprises a plurality of gaps across the bend region.
A method of wireless communication performed by an access node functionality, ANF, entity, comprising: configuring a first time offset of backhaul physical random access channel, PRACH, resources; configuring a scaling factor associated with a periodicity of the backhaul PRACH resources, wherein the periodicity of the backhaul PRACH resources is to be determined based at least in part on multiplying the scaling factor and a periodicity of PRACH resources associated with a PRACH configuration index; and transmitting information that identifies the first time offset and the scaling factor, wherein the first time offset is different from a second time offset that is identified based at least in part on the PRACH configuration index. configuring a first time offset of backhaul physical random access channel, PRACH, resources; configuring a scaling factor associated with a periodicity of the backhaul PRACH resources, wherein the periodicity of the backhaul PRACH resources is to be determined based at least in part on multiplying the scaling factor and a periodicity of PRACH resources associated with a PRACH configuration index; and transmitting information that identifies the first time offset and the scaling factor, wherein the first time offset is different from a second time offset that is identified based at least in part on the PRACH configuration index.
A self-piercing rivet element having a central longitudinal axis , a body part with a thread cylinder and a hollow rivet section for being pressed into a non-pre-pierced metallic component or sheet metal part , wherein the rivet section is formed to be dilated at least regionally by means of a die button and tapers in the direction of the central longitudinal axis and away from the body part , wherein the hollow rivet section has a diameter (D1) in the region of the transition into the body part which is larger than the outer diameter of the thread cylinder (D2) and has a closed peripheral wall and also has an opening at its free end , characterized in that the rivet element is a nut element having an internal thread which extends at least substantially coaxially to the central longitudinal axis , and in that a diameter (D4) of the opening is fractionally smaller than a core diameter (D3) of the thread cylinder . the rivet element is a nut element having an internal thread which extends at least substantially coaxially to the central longitudinal axis , and in that a diameter (D4) of the opening is fractionally smaller than a core diameter (D3) of the thread cylinder .
A composition comprising 8 purified bacterial strains of species Flavonifractor plautii, Anaerotruncus colihominis, Drancourtella massiliensis, Clostridium symbiosum, Clostridium bolteae, Dorea longicatena, Blautia producta, and Clostridium innocuum.
An electrical connector assembly comprising: a receptacle housing , and a plug housing configured to be mated and locked with the receptacle housing ; the plug housing comprising a lever movable from a first position, wherein the plug housing and the receptacle housing are unlocked, to a second position wherein the plug housing is locked with the receptacle housing ; wherein the lever is rotatably mounted about a shaft arranged in and passing through the plug housing ; and the receptacle housing comprises a retaining means with a coupling hook portion , characterised in that the coupling hook portion is configured to engage with the shaft of the plug housing ; the shaft being movably received through an opening on both sides of the plug housing , wherein a cross-section of the openings transversal to a longitudinal axis of the shaft has a complementary shape of the coupling hook portion of the retaining means , such that in the second position, the shaft is in abutment in the coupling hook portion of the retaining means thereby maintaining the plug housing and the receptacle housing together by positive locking. a receptacle housing , and a plug housing configured to be mated and locked with the receptacle housing ; the plug housing comprising a lever movable from a first position, wherein the plug housing and the receptacle housing are unlocked, to a second position wherein the plug housing is locked with the receptacle housing ; wherein the lever is rotatably mounted about a shaft arranged in and passing through the plug housing ; and the receptacle housing comprises a retaining means with a coupling hook portion , characterised in that the coupling hook portion is configured to engage with the shaft of the plug housing ; the shaft being movably received through an opening on both sides of the plug housing , wherein a cross-section of the openings transversal to a longitudinal axis of the shaft has a complementary shape of the coupling hook portion of the retaining means , such that in the second position, the shaft is in abutment in the coupling hook portion of the retaining means thereby maintaining the plug housing and the receptacle housing together by positive locking.
A printhead circuit comprising: a substrate including a slot having a first , a second , and a third dimension in the substrate ; circuitry on a first side and a second side of the slot, the circuitry comprising at least fluid ejection elements ; and a number of conductor traces in a thinfilm bridge formed on a first surface of the substrate and routed across the slot along substantially a same geometrical plane as the circuitry on the first side ) and the second side of the slot , whereby the thinfilm bridge connects the circuitry on the first side and the second side of the slot . a substrate including a slot having a first , a second , and a third dimension in the substrate ; circuitry on a first side and a second side of the slot, the circuitry comprising at least fluid ejection elements ; and a number of conductor traces in a thinfilm bridge formed on a first surface of the substrate and routed across the slot along substantially a same geometrical plane as the circuitry on the first side ) and the second side of the slot , whereby the thinfilm bridge connects the circuitry on the first side and the second side of the slot .
A shielded cable comprising: one or more conductor sets , each conductor set extending along a length (L) of the cable and comprising one or more insulated conductors , each insulated conductor comprising a central conductor surrounded by a dielectric material; edge insulation structures including one more dielectric unitary blocks , each dielectric unitary block extending along the length (L) of the cable , each dielectric unitary block disposed at a longitudinal edge of the cable and spaced apart from the insulated conductors of the one or more conductor sets ; first and second conductive shielding films disposed on opposite first and second sides of the conductor sets and the dielectric unitary blocks, the first and second conductive shielding films including cover portions and pinched portions arranged such that, in cross-section, the cover portions of the first and second shielding films in combination substantially surround each conductor set and each dielectric unitary block, and the pinched portions of the first and second shielding films in combination form pinched portions of the cable on each side of the conductor set and on at least one side of the dielectric unitary blocks; and an adhesive layer bonding the first shielding film to the second shielding film in the pinched portions of the cable . one or more conductor sets , each conductor set extending along a length (L) of the cable and comprising one or more insulated conductors , each insulated conductor comprising a central conductor surrounded by a dielectric material; edge insulation structures including one more dielectric unitary blocks , each dielectric unitary block extending along the length (L) of the cable , each dielectric unitary block disposed at a longitudinal edge of the cable and spaced apart from the insulated conductors of the one or more conductor sets ; first and second conductive shielding films disposed on opposite first and second sides of the conductor sets and the dielectric unitary blocks, the first and second conductive shielding films including cover portions and pinched portions arranged such that, in cross-section, the cover portions of the first and second shielding films in combination substantially surround each conductor set and each dielectric unitary block, and the pinched portions of the first and second shielding films in combination form pinched portions of the cable on each side of the conductor set and on at least one side of the dielectric unitary blocks; and an adhesive layer bonding the first shielding film to the second shielding film in the pinched portions of the cable .
A moisture-wicking or absorbent exercise mat comprising: at least one top layer , the at least one top layer comprising polyurethane having an open cell structure; at least one bottom layer adjacent to the at least one top layer; and the at least one bottom layer comprising: at least one thermoplastic elastomer; or at least one synthetic rubber and at least one natural rubber; at least one middle layer disposed between the at least one top layer and the at least one bottom layer , wherein the at least one middle layer comprises a cotton material, a polyester material or a combination thereof. at least one top layer , the at least one top layer comprising polyurethane having an open cell structure; at least one bottom layer adjacent to the at least one top layer; and the at least one bottom layer comprising: at least one thermoplastic elastomer; or at least one synthetic rubber and at least one natural rubber; at least one thermoplastic elastomer; or at least one synthetic rubber and at least one natural rubber; at least one middle layer disposed between the at least one top layer and the at least one bottom layer , wherein the at least one middle layer comprises a cotton material, a polyester material or a combination thereof.
Robustness test method (1; 20) for a motor vehicle, comprising: transmitting test data for a motor vehicle component to be tested such that at least one bit of a specified bit sequence of the component to be tested is corrupted; and specifying the bit sequence (A k , A k-1 , A k-2 , A k-3 ) based on a pseudorandom polynomial sequence, characterized in that the pseudorandom polynomial sequence has a complete series of subsequences which define a search space for the specified bit sequence. transmitting test data for a motor vehicle component to be tested such that at least one bit of a specified bit sequence of the component to be tested is corrupted; and specifying the bit sequence (A k , A k-1 , A k-2 , A k-3 ) based on a pseudorandom polynomial sequence, characterized in that the pseudorandom polynomial sequence has a complete series of subsequences which define a search space for the specified bit sequence.
A mold die comprising: a die body including a mold surface having a shape corresponding to sculpturing of a mold product; and a plating layer provided on a surface of the mold surface , wherein the mold surface has a leather-grain transfer surface for forming, at a surface of the mold product, a grain pattern formed of a plurality of uneven shapes, the leather-grain transfer surface includes at least a first uneven-shape part and a second uneven-shape part formed at a surface of the first uneven-shape part and smaller in an uneven-shape width than the first uneven-shape part , the uneven-shape width in the first uneven-shape part and the uneven-shape width in the second uneven-shape part each falling within a range of 10 μm or more and less than 500 μm, the plating layer is an electroless-plating layer, and a thickness of at least part of the plating layer falls within a range of 0.1 μm or more and less than 10 μm, the first uneven-shape part has a first uneven-shape width d1 falling within a range of 30 μm or more and less than 500 μm, and the second uneven-shape part has a second uneven-shape width d2 falling within a range of 10 μm or more and less than 30 μm. a die body including a mold surface having a shape corresponding to sculpturing of a mold product; and a plating layer provided on a surface of the mold surface , wherein the mold surface has a leather-grain transfer surface for forming, at a surface of the mold product, a grain pattern formed of a plurality of uneven shapes, the leather-grain transfer surface includes at least a first uneven-shape part and a second uneven-shape part formed at a surface of the first uneven-shape part and smaller in an uneven-shape width than the first uneven-shape part , the uneven-shape width in the first uneven-shape part and the uneven-shape width in the second uneven-shape part each falling within a range of 10 μm or more and less than 500 μm, the plating layer is an electroless-plating layer, and a thickness of at least part of the plating layer falls within a range of 0.1 μm or more and less than 10 μm, the first uneven-shape part has a first uneven-shape width d1 falling within a range of 30 μm or more and less than 500 μm, and the second uneven-shape part has a second uneven-shape width d2 falling within a range of 10 μm or more and less than 30 μm.
A method by a central node for reference signal allocation in a wireless communication system, said method comprising: receiving Sounding Reference Signals, SRSs, from a remote node, wherein said remote node comprises at least one transmit antenna for an uplink transmission; determining a number of reference signals N based on said received SRSs, wherein the number of reference signals N are to be used by said remote node for an uplink transmission ; wherein each of said reference signals corresponds to an antenna port which is coupled to said at least one transmit antenna; and indicating said number of reference signals N on a Physical Downlink Control Channel, PDCCH, or a Radio Resource Control, RRC, to said remote node; receiving said uplink transmission with said number of reference signal N. receiving Sounding Reference Signals, SRSs, from a remote node, wherein said remote node comprises at least one transmit antenna for an uplink transmission; determining a number of reference signals N based on said received SRSs, wherein the number of reference signals N are to be used by said remote node for an uplink transmission ; wherein each of said reference signals corresponds to an antenna port which is coupled to said at least one transmit antenna; and indicating said number of reference signals N on a Physical Downlink Control Channel, PDCCH, or a Radio Resource Control, RRC, to said remote node; receiving said uplink transmission with said number of reference signal N.
A method for manufacturing coagulated particles from a latex prepared by emulsion polymerization, comprising step of discharging the latex prepared by emulsion polymerization containing a thickener into a solution containing a coagulating agent, to coagulate the latex prepared by emulsion polymerization, wherein the thickener is contained in an amount of from 0.01 to 3.0 parts by weight, per 100 parts by weight of a polymer solid content of the latex prepared by emulsion polymerization, the thickener is a nonionic water-soluble polymer, and the latex prepared by emulsion polymerization is discharged from a nozzle such that the linear velocity of the latex prepared by emulsion polymerization at the nozzle outlet is 0.3 to 2 m/s.
A method for modifying an average electromagnetic field distribution of a node in a telecommunication network, the method comprising: determining the presence of an entity within a region of interest ; and regulating transmission power to the region of interest from the node by varying a spatio-temporal transmission profile of the node , characterised in that varying a spatio-temporal transmission profile of the node is conducted in response to determining the presence of the entity in the region of interest for a period of time longer than a predetermined threshold value. determining the presence of an entity within a region of interest ; and regulating transmission power to the region of interest from the node by varying a spatio-temporal transmission profile of the node , characterised in that varying a spatio-temporal transmission profile of the node is conducted in response to determining the presence of the entity in the region of interest for a period of time longer than a predetermined threshold value.
A manufacturing method of a honeycomb structure, comprising: a step of mixing a coarse particle zeolite having a large average particle diameter, a fine particle zeolite having an average particle diameter smaller than that of the coarse particle zeolite, and a raw material of an inorganic bonding material to prepare a zeolite raw material; a step of forming the prepared zeolite raw material into a honeycomb shape to prepare a honeycomb formed body; and a step of firing the prepared honeycomb formed body to prepare the honeycomb structure, wherein in the step of preparing the zeolite raw material, as the coarse particle zeolite, a chabazite type zeolite is used in which an average particle diameter is 2 μm or more and 6 μm or less, wherein the average particle diameter is measured by a method according to the description; the fine particle zeolite is used in which an average particle diameter is 0.02 μm or more and smaller than 2 μm, wherein the average particle diameter is measured by a method according to the description, and wherein as the fine particle zeolite, at least one selected from the group consisting of a β-type zeolite, a Y-type zeolite, a ZSM-5 type zeolite and the chabazite type zeolite is used; the raw material of the inorganic bonding material which includes at least basic aluminum lactate is used, and 10 to 35 parts by mass of the basic aluminum lactate as the raw material of the inorganic bonding material is added to 100 parts by mass of a total mass of the coarse particle zeolite and the fine particle zeolite, to prepare the zeolite raw material. a step of mixing a coarse particle zeolite having a large average particle diameter, a fine particle zeolite having an average particle diameter smaller than that of the coarse particle zeolite, and a raw material of an inorganic bonding material to prepare a zeolite raw material; a step of forming the prepared zeolite raw material into a honeycomb shape to prepare a honeycomb formed body; and a step of firing the prepared honeycomb formed body to prepare the honeycomb structure, wherein in the step of preparing the zeolite raw material, as the coarse particle zeolite, a chabazite type zeolite is used in which an average particle diameter is 2 μm or more and 6 μm or less, wherein the average particle diameter is measured by a method according to the description; the fine particle zeolite is used in which an average particle diameter is 0.02 μm or more and smaller than 2 μm, wherein the average particle diameter is measured by a method according to the description, and wherein as the fine particle zeolite, at least one selected from the group consisting of a β-type zeolite, a Y-type zeolite, a ZSM-5 type zeolite and the chabazite type zeolite is used; the raw material of the inorganic bonding material which includes at least basic aluminum lactate is used, and 10 to 35 parts by mass of the basic aluminum lactate as the raw material of the inorganic bonding material is added to 100 parts by mass of a total mass of the coarse particle zeolite and the fine particle zeolite, to prepare the zeolite raw material.