mhurhangee/patent-ind-claim-en huggingface dataset:
A composite material for drainage and filling at a landfill site, comprising: a) a thermoplastic material at a concentration from 65% to 83%; b) a multilayer laminated plastic material at a concentration from 2% to 20%; c) sand at a concentration from 16% to 26% by weight based on the total weight of the composite material. a) a thermoplastic material at a concentration from 65% to 83%; b) a multilayer laminated plastic material at a concentration from 2% to 20%; c) sand at a concentration from 16% to 26% by weight based on the total weight of the composite material.
A method for detecting a void in a concrete composite member covered with a steel plate, comprising: a first step of setting, as a reference temperature difference, a temperature difference between a void and a non-void in the concrete composite member covered with the steel plate in accordance with an on-site temperature and a concrete pouring temperature; a second step of measuring the on-site temperature and the concrete pouring temperature before construction of the concrete composite member covered with the steel plate, and extracting, from the reference temperature difference set in the first step, a reference temperature difference corresponding to the measured on-site temperature and the concrete pouring temperature; and a third step of measuring a steel plate surface temperature of an area in which concrete is poured using a thermal image during the construction of the concrete composite member covered with the steel plate, and determining, as a void, a section in which a temperature difference between the measured steel plate surface temperature and a temperature of a surrounding part thereof is equal to or greater than the reference temperature difference extracted in the second step, wherein the on-site temperature in the first and second steps is set by a mean temperature of the steel plate surface temperature measured using the thermal image before pouring the concrete at a site or an outside air temperature at the site. a first step of setting, as a reference temperature difference, a temperature difference between a void and a non-void in the concrete composite member covered with the steel plate in accordance with an on-site temperature and a concrete pouring temperature; a second step of measuring the on-site temperature and the concrete pouring temperature before construction of the concrete composite member covered with the steel plate, and extracting, from the reference temperature difference set in the first step, a reference temperature difference corresponding to the measured on-site temperature and the concrete pouring temperature; and a third step of measuring a steel plate surface temperature of an area in which concrete is poured using a thermal image during the construction of the concrete composite member covered with the steel plate, and determining, as a void, a section in which a temperature difference between the measured steel plate surface temperature and a temperature of a surrounding part thereof is equal to or greater than the reference temperature difference extracted in the second step, wherein the on-site temperature in the first and second steps is set by a mean temperature of the steel plate surface temperature measured using the thermal image before pouring the concrete at a site or an outside air temperature at the site.
A method for caching data on a solid-state storage device , the method comprising: maintaining, by a storage controller configured to manage a solid-state storage device , a logical address space by use of an index configured to: map logical addresses of data stored on the solid-state storage device to storage units of the solid-state storage device , and map logical addresses to corresponding access pattern metadata, wherein the logical address space is larger than a physical address space of the solid-state storage device ; and accessing metadata pertaining to storage operations performed on the solid-state storage device and maintained by the storage controller to manage the data of a backing store cached on the solid-state storage device , wherein the metadata comprises discardability indicators identifying storage units of the solid-state storage device that have been stored on the backing store , the method further comprising: using the discardability indicators to select a storage division of the solid-state storage device for recovery; and using the access pattern metadata of the index to determine whether to retain data stored on the selected storage division on the solid-state storage device during a storage division recovery operation. maintaining, by a storage controller configured to manage a solid-state storage device , a logical address space by use of an index configured to: map logical addresses of data stored on the solid-state storage device to storage units of the solid-state storage device , and map logical addresses to corresponding access pattern metadata, wherein the logical address space is larger than a physical address space of the solid-state storage device ; and map logical addresses of data stored on the solid-state storage device to storage units of the solid-state storage device , and map logical addresses to corresponding access pattern metadata, wherein the logical address space is larger than a physical address space of the solid-state storage device ; and accessing metadata pertaining to storage operations performed on the solid-state storage device and maintained by the storage controller to manage the data of a backing store cached on the solid-state storage device , wherein the metadata comprises discardability indicators identifying storage units of the solid-state storage device that have been stored on the backing store , the method further comprising: using the discardability indicators to select a storage division of the solid-state storage device for recovery; and using the access pattern metadata of the index to determine whether to retain data stored on the selected storage division on the solid-state storage device during a storage division recovery operation.
A method for analyzing crosstalk between qubits, performed by a terminal, comprising: determining a first qubit and a second qubit that are to be analyzed (S102); sequentially performing spectral quantum process tomography on a quantum state corresponding to the first qubit and a quantum state corresponding to the second qubit, to obtain a first eigenspectrum of a signal function corresponding to the first qubit and a second eigenspectrum of a signal function corresponding to the second qubit (S104); synchronously performing spectral quantum process tomography on the quantum state corresponding to the first qubit and the quantum state corresponding to the second qubit, to obtain a third eigenspectrum of a common signal function of the first qubit and the second qubit (S106); and determining a crosstalk intensity between the first qubit and the second qubit based on the first eigenspectrum, the second eigenspectrum, and the third eigenspectrum (S108); wherein the first qubit and the second qubit are included a quantum chip or wherein the determined crosstalk intensity is for providing guidance for manufacturing and optimization of quantum products. determining a first qubit and a second qubit that are to be analyzed (S102); sequentially performing spectral quantum process tomography on a quantum state corresponding to the first qubit and a quantum state corresponding to the second qubit, to obtain a first eigenspectrum of a signal function corresponding to the first qubit and a second eigenspectrum of a signal function corresponding to the second qubit (S104); synchronously performing spectral quantum process tomography on the quantum state corresponding to the first qubit and the quantum state corresponding to the second qubit, to obtain a third eigenspectrum of a common signal function of the first qubit and the second qubit (S106); and determining a crosstalk intensity between the first qubit and the second qubit based on the first eigenspectrum, the second eigenspectrum, and the third eigenspectrum (S108);
Cycle system for heating and/or cooling comprising a main circuit (A) for circulating a refrigerant having a compressor , a condenser , a first expansion valve (LEV-A) and an evaporator , which are sequentially connected in a flow direction of the refrigerant, and a bypass passage (B) for bypassing a first refrigerant part around the condenser , wherein the bypass passage (B) is connected to the main circuit (A) in a first and a second connection point (P1, P2), wherein the first connection point (P1) is arranged between a compressor outlet and a condenser inlet and the second connection point (P2) is arranged between a condenser outlet and an evaporator inlet , the main circuit (A) further comprises a liquid receiver , which is arranged in the second connection point (P2) and connected to the bypass passage or between the second connection point (P2) and the evaporator inlet , characterized in that the bypass passage (B) includes an internal heat exchanger for exchanging heat between the first refrigerant part and a second refrigerant part, wherein the second refrigerant part is branched off from and fed back into the main circuit (A) between the evaporator outlet and the compressor inlet , and a second expansion valve (LEV-C) sequentially connected in the flow direction of the refrigerant.
A method for preparing a ruthenium catalyst comprising a step of reducing a ruthenium catalyst precursor under the following conditions: holding the ruthenium catalyst precursor in an aqueous solution containing a metal salt at a temperature within a range of more than 180 °C and 220 °C or less and at a hydrogen partial pressure within a range of 1 MPa or more and 4 MPa or less; wherein the ruthenium catalyst precursor reduced under the aforementioned conditions is obtained through a previous reduction step of a ruthenium compound before performing the reducing treatment of the ruthenium catalyst precursor under the aforementioned conditions, wherein said previous reduction step is a step of catalytic reduction by hydrogen in a liquid phase at a reduction temperature of 100 to 400 °C. holding the ruthenium catalyst precursor in an aqueous solution containing a metal salt at a temperature within a range of more than 180 °C and 220 °C or less and at a hydrogen partial pressure within a range of 1 MPa or more and 4 MPa or less; wherein the ruthenium catalyst precursor reduced under the aforementioned conditions is obtained through a previous reduction step of a ruthenium compound before performing the reducing treatment of the ruthenium catalyst precursor under the aforementioned conditions, wherein said previous reduction step is a step of catalytic reduction by hydrogen in a liquid phase at a reduction temperature of 100 to 400 °C.
A method of determining pancreatic cancer in a human subject, said method comprising in cell-free DNA from a blood sample from said human subject determining the methylation status of the gene loci BMP3, RASSF1A, BNC1, MESTv2, TFPI2, APC, SFRP1 and SFRP2.
An information processing apparatus comprising: providing means configured to provide an interface via which a policy version of a security policy for restricting an operation of an application can be inquired about, wherein the security policy comprises one or more policy setting items and is set in the information processing apparatus; and installing means configured to install an application that has declarative information in which a policy version is described, characterized in that , the installing means is further configured to perform an inquiry about the policy version of the security policy set in the information processing apparatus via the interface provided by the providing means, to compare the policy version of the security policy that is obtained in response to the inquiry, with the policy version described in the declarative information of the application, and to restrict an operation of the installed application if the policy version described in the declarative information of the application is lower than the policy version that is obtained in response to the inquiry, and in that , when a new policy setting item is added to the security policy set in the information processing apparatus, the policy version of the security policy set in the information processing apparatus is incremented. providing means configured to provide an interface via which a policy version of a security policy for restricting an operation of an application can be inquired about, wherein the security policy comprises one or more policy setting items and is set in the information processing apparatus; and installing means configured to install an application that has declarative information in which a policy version is described, characterized in that , the installing means is further configured to perform an inquiry about the policy version of the security policy set in the information processing apparatus via the interface provided by the providing means, to compare the policy version of the security policy that is obtained in response to the inquiry, with the policy version described in the declarative information of the application, and to restrict an operation of the installed application if the policy version described in the declarative information of the application is lower than the policy version that is obtained in response to the inquiry, and in that , when a new policy setting item is added to the security policy set in the information processing apparatus, the policy version of the security policy set in the information processing apparatus is incremented.
An in vitro method for diagnosing lung cancer in a subject, wherein the method comprises detecting Rho GDP dissociation inhibitor beta (ARHGDIB) and at least one biomarker selected from the group consisting of alpha-tubulin 4A (TUBA4A), glutathione S-transferase omega 1 (GSTO1), filamin A (FLNA), peroxiredoxin 6 (PRDX6) and cadherin 13 (CDH13) in a biological sample from the subject.
An apparatus, comprising: an electromagnetic sensor configured in a shape approximating a cylinder without top and bottom and comprising a plurality of circumferentially extended sectors , with a separation gap between each two adjacent sectors, a line of such separation extending parallel to the axis of the cylinder, wherein each sector comprises a magnetic core formed of a material having a high initial magnetic permeability, the material comprising at least one of a nano-magnetic material, a nano-magnetic ribbon material, a nano-crystalline material, an amorphous ribbon, or a non-ferrite material; wherein at least one of the plurality of sectors further comprises two coils wound, in respective directions orthogonal to one another, around portions of the magnetic core thereof and wherein a shield is disposed between the two coils.
A coating composition, the coating composition comprising: (a) a first polyester material; (b) a second polyester material different from the first polyester material, wherein the second polyester material comprises the reaction product of a reaction mixture comprising: (i) a polyacid; (ii) a polyol; and (iii) a phosphorous acid; and (c) an acid-functional acrylic material, wherein the coating composition comprises at least 5 wt% of the acid-functional acrylic material based on the total solid weight of the coating composition. (a) a first polyester material; (b) a second polyester material different from the first polyester material, wherein the second polyester material comprises the reaction product of a reaction mixture comprising: (i) a polyacid; (ii) a polyol; and (iii) a phosphorous acid; and (i) a polyacid; (ii) a polyol; and (iii) a phosphorous acid; and (c) an acid-functional acrylic material,
A gas-turbine engine , comprising: a turbine comprising an aft blade platform configured to rotate around an axis (A-A'); a static structure aft of the turbine and proximate a cavity defined by the aft blade platform ; and a vane of the static structure comprising a vane platform having a shaped tip (126; 200; 202; 204) extending into the cavity ; characterised in that a proximal surface of the shaped tip (126; 200; 202; 204) is disposed at an angle (β) relative to a proximate surface of the vane platform , wherein the angle (β) relative to the proximate surface of the vane platform is between 8 and 12 degrees; and in that a distal surface of the shaped tip (126; 200; 202; 204) is oriented at an angle (α) relative to a distal surface of the vane platform , characterised in that the angle (α) relative to the distal surface of the vane platform is between 13 and 17 degrees. a turbine comprising an aft blade platform configured to rotate around an axis (A-A'); a static structure aft of the turbine and proximate a cavity defined by the aft blade platform ; and a vane of the static structure comprising a vane platform having a shaped tip (126; 200; 202; 204) extending into the cavity ; characterised in that a proximal surface of the shaped tip (126; 200; 202; 204) is disposed at an angle (β) relative to a proximate surface of the vane platform , wherein the angle (β) relative to the proximate surface of the vane platform is between 8 and 12 degrees; and in that a distal surface of the shaped tip (126; 200; 202; 204) is oriented at an angle (α) relative to a distal surface of the vane platform , characterised in that the angle (α) relative to the distal surface of the vane platform is between 13 and 17 degrees.
An RFID system for product identification, the system comprising: a compartment having a first wall and a second wall that extend toward each other and that together define at least part of a cavity and a channel , the cavity extending laterally along a first direction and being configured to contain a suspended package and having a first width extending along a second direction, the channel extending laterally along the first direction and having a second width extending along the second direction, the channel being in fluid communication with the cavity, the channel being configured to limit movement along the second direction of a support that extends downward through the channel and into the cavity to support the suspended package, the second width of the channel being narrower than the first width of the cavity; at least one RFID antenna configured to transmit a signal to be received by the at least one RFID transponder of the suspended package; and an RFID reader configured to interpret an output from the at least one RFID transponder disposed in the cavity, wherein the width of the channel is less than 0.1524 meters. a compartment having a first wall and a second wall that extend toward each other and that together define at least part of a cavity and a channel , the cavity extending laterally along a first direction and being configured to contain a suspended package and having a first width extending along a second direction, the channel extending laterally along the first direction and having a second width extending along the second direction, the channel being in fluid communication with the cavity, the channel being configured to limit movement along the second direction of a support that extends downward through the channel and into the cavity to support the suspended package, the second width of the channel being narrower than the first width of the cavity; at least one RFID antenna configured to transmit a signal to be received by the at least one RFID transponder of the suspended package; and an RFID reader configured to interpret an output from the at least one RFID transponder disposed in the cavity, wherein the width of the channel is less than 0.1524 meters.
A bearing support assembly comprising: a squirrel cage defining a longitudinal axis (A) and including a cylindrical portion defining a bearing seat , wherein the squirrel cage is configured to provide a first level of radial support stiffness between a housing and a bearing seated in the bearing seat; a damper sleeve operatively coupled to the cylindrical portion of the squirrel cage through a fluid film to dampen relative radial motion between the damper sleeve and the squirrel cage; and a radial spring component operatively connected to a side of the damper sleeve radially opposite the cylindrical portion of the squirrel cage to provide a second level of radial support stiffness. a squirrel cage defining a longitudinal axis (A) and including a cylindrical portion defining a bearing seat , wherein the squirrel cage is configured to provide a first level of radial support stiffness between a housing and a bearing seated in the bearing seat; a damper sleeve operatively coupled to the cylindrical portion of the squirrel cage through a fluid film to dampen relative radial motion between the damper sleeve and the squirrel cage; and a radial spring component operatively connected to a side of the damper sleeve radially opposite the cylindrical portion of the squirrel cage to provide a second level of radial support stiffness.
A process for improving the stability of yttrium stabilised zirconia for dental restorations comprising yttrium stabilised zirconia, the dental restorations are veneered with a dental ceramic veneering material comprising the steps: - providing a dental restoration comprising yttrium stabilised zirconia and to be veneered; - applying the dental ceramic veneering material to the dental restoration by spraying-on an aerosol which contains the dental ceramic veneering material and water-free propellant; - firing the resulting arrangement to a resulting veneered dental restoration, wherein wherein the propellant is selected from the group consisting of aerosols based on heptafluoro propane or propane, Butane or mixtures thereof and wherein the dental ceramic veneering material is applied in a thickness from 0.01 mm to 0.5 mm. - providing a dental restoration comprising yttrium stabilised zirconia and to be veneered; - applying the dental ceramic veneering material to the dental restoration by spraying-on an aerosol which contains the dental ceramic veneering material and water-free propellant; - firing the resulting arrangement to a resulting veneered dental restoration, wherein wherein the propellant is selected from the group consisting of aerosols based on heptafluoro propane or propane, Butane or mixtures thereof and wherein the dental ceramic veneering material is applied in a thickness from 0.01 mm to 0.5 mm. wherein the propellant is selected from the group consisting of aerosols based on heptafluoro propane or propane, Butane or mixtures thereof and wherein the dental ceramic veneering material is applied in a thickness from 0.01 mm to 0.5 mm.