mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a guard service for a secure service at a secure processing region of a processing system, the method being performed by a compiler and comprising: detecting a call from a system processing region of the processing system to a secure service included in a secure memory of the secure processing region ; obtaining a secure interface associated with the secure service ; obtaining a security policy associated with the secure service , the security policy including an access restriction associated with the secure memory of the secure processing region ; validating the secure interface associated with the secure service based on the access restriction; generating a guard interface based at least partially on the secure interface; generating a guard service based at least partially on the guard interface; locating the guard service at the secure memory of the secure processing region ; locating the guard interface at a secure address at the secure memory of the secure processing region ; and generating an access point at the secure address at the secure memory of the secure processing region by associating the secure address with an access condition allowing one or more of a system memory and a system processor included in the system processing region to directly address the secure memory at the secure address, the access point overriding a default condition restricting or preventing access to the secure memory from the system memory and the system processor included in the system processing region . detecting a call from a system processing region of the processing system to a secure service included in a secure memory of the secure processing region ; obtaining a secure interface associated with the secure service ; obtaining a security policy associated with the secure service , the security policy including an access restriction associated with the secure memory of the secure processing region ; validating the secure interface associated with the secure service based on the access restriction; generating a guard interface based at least partially on the secure interface; generating a guard service based at least partially on the guard interface; locating the guard service at the secure memory of the secure processing region ; locating the guard interface at a secure address at the secure memory of the secure processing region ; and generating an access point at the secure address at the secure memory of the secure processing region by associating the secure address with an access condition allowing one or more of a system memory and a system processor included in the system processing region to directly address the secure memory at the secure address, the access point overriding a default condition restricting or preventing access to the secure memory from the system memory and the system processor included in the system processing region .
A computer-implemented method of normalizing genotyping data, the method comprising: receiving a set of emission data from a plurality of substrates, wherein the emission data includes intensity of a first dye and intensity of a second dye, wherein the first dye indicates presence of a first target allele and the second dye indicates presence of a second target allele; generating a plot of the set of emission data by plotting the intensity of the first dye versus the intensity of the second dye; and normalizing the emission data in the plot based on an angular transformation, wherein the normalizing the emission data in the plot based on the angular transformation includes: determining positions in the plot of highest density of points; determining a set of data within a determined position with a minimum standard deviation as a reference; and determining an angle that produces a minimum theta standard deviation between the reference and remaining data to select the angular transformation. receiving a set of emission data from a plurality of substrates, wherein the emission data includes intensity of a first dye and intensity of a second dye, wherein the first dye indicates presence of a first target allele and the second dye indicates presence of a second target allele; generating a plot of the set of emission data by plotting the intensity of the first dye versus the intensity of the second dye; and normalizing the emission data in the plot based on an angular transformation, wherein the normalizing the emission data in the plot based on the angular transformation includes: determining positions in the plot of highest density of points; determining a set of data within a determined position with a minimum standard deviation as a reference; and determining an angle that produces a minimum theta standard deviation between the reference and remaining data to select the angular transformation. determining positions in the plot of highest density of points; determining a set of data within a determined position with a minimum standard deviation as a reference; and determining an angle that produces a minimum theta standard deviation between the reference and remaining data to select the angular transformation.
A method of estimating an estimation target value associated with a specimen, wherein the estimation target is a physical quantity of the specimen, the method comprising: performing machine learning for a relationship between a value of a specific estimation target and an output of a chemical sensor corresponding thereto based on output of the chemical sensor for a plurality of specimens the values of the specific estimation target of which are known, and estimating the value of the specific estimation target using a result of the machine learning based on an output of the chemical sensor in response to a given unknown specimen, wherein an amount of each of the specimen given to the chemical sensor is periodically varied by periodically switching between a reference specimen and the specimen to provide to the chemical sensor, wherein the output to be learnt is values at a plurality of selected time points in each of the periodic variation of the output, and wherein the estimation target value associated with the given unknown specimen is estimated without using a saturated value of the output, the output being a time-varying output value and wherein the given unknown specimen contains an unknown chemical component. performing machine learning for a relationship between a value of a specific estimation target and an output of a chemical sensor corresponding thereto based on output of the chemical sensor for a plurality of specimens the values of the specific estimation target of which are known, and estimating the value of the specific estimation target using a result of the machine learning based on an output of the chemical sensor in response to a given unknown specimen, wherein an amount of each of the specimen given to the chemical sensor is periodically varied by periodically switching between a reference specimen and the specimen to provide to the chemical sensor, wherein the output to be learnt is values at a plurality of selected time points in each of the periodic variation of the output, and wherein the estimation target value associated with the given unknown specimen is estimated without using a saturated value of the output, the output being a time-varying output value and wherein the given unknown specimen contains an unknown chemical component.
A method for dissipating and entrapping absorbent particles within air permeable structures, for use in the construction of absorbent articles, said method comprising the steps of: (i) constructing an air-permeable, non-woven structure comprising at least first, second and third layers of non-woven fabric, each said numbered layer (n) being bonded, manufactured onto or otherwise joined to each subsequently numbered layer (n+1), and wherein fibres in each said layer are arranged so as to define void spaces therebetween of pre-determined size, corresponding to a given absorbent particle size distribution range; and wherein the void spaces in each said numbered layer (n), are of smaller size than the void spaces in each subsequently numbered layer (n+1); (ii) dispersing, by controllable mechanical means, absorbent particles onto an external surface of the highest numbered layer of said air-permeable, non-woven structure formed in step (i), said absorbent particles having a pre-determined particle size distribution range; (iii) dissipating said dispersed absorbent particles within the air-permeable, non-woven structure by applying an external energy source acting upon the absorbent particles in a direction substantially normal to the plane of the external surface of the air-permeable, non-woven structure, wherein the external energy source is an ultra-sonic vibration source. (i) constructing an air-permeable, non-woven structure comprising at least first, second and third layers of non-woven fabric, each said numbered layer (n) being bonded, manufactured onto or otherwise joined to each subsequently numbered layer (n+1), and wherein fibres in each said layer are arranged so as to define void spaces therebetween of pre-determined size, corresponding to a given absorbent particle size distribution range; and wherein the void spaces in each said numbered layer (n), are of smaller size than the void spaces in each subsequently numbered layer (n+1); (ii) dispersing, by controllable mechanical means, absorbent particles onto an external surface of the highest numbered layer of said air-permeable, non-woven structure formed in step (i), said absorbent particles having a pre-determined particle size distribution range; (iii) dissipating said dispersed absorbent particles within the air-permeable, non-woven structure by applying an external energy source acting upon the absorbent particles in a direction substantially normal to the plane of the external surface of the air-permeable, non-woven structure,
Formulation for use in the treatment of hypertension, where the treatment involves: obtaining a composition comprising one or more flavonoids selected from the group consisting of isovitexin-2"-O-rhamnoside, isovitexin-2"-O-glucoside, isovitexin-2"-O-xyloside, isovitexin-O-xyloside, and isoorientin-2"-O-xyloside; and administering an effective amount of the composition to a mammalian patient; wherein administration of an effective amount of the composition causes dilation of a blood vessel. obtaining a composition comprising one or more flavonoids selected from the group consisting of isovitexin-2"-O-rhamnoside, isovitexin-2"-O-glucoside, isovitexin-2"-O-xyloside, isovitexin-O-xyloside, and isoorientin-2"-O-xyloside; and administering an effective amount of the composition to a mammalian patient; wherein administration of an effective amount of the composition causes dilation of a blood vessel.
Method for safeguarding values of attributes of a data set (DS) which can be stored in a first relation (T1) of a database against unauthorized access, wherein a value of a primary key attribute (PK) of the data set refers to a key (PK) of the first relation (T1) and a value of a foreign key attribute (FK) of the data set refers to a key (PK, K) of a second relation (T2, T3), and wherein - the value of a foreign key attribute (FK) and the value of a primary key attribute (PK) of the data set (DS) are stored in a mapping relation (TM), wherein the value of the foreign key attribute (FK) and the value of the primary key attribute (PK) of the data set (DS) form a mapping data set (MDS) in the mapping relation (TM), - the values of a number of attributes (F) of the data set that are not foreign key attributes are stored in the first relation (T1), wherein the first relation (T1) is stored in a non-volatile data memory (PM), and - the mapping relation (TM) is stored exclusively in a volatile data memory (CUA) such that the mapping relation (TM) is completely deleted following an interruption to the power supply. - the value of a foreign key attribute (FK) and the value of a primary key attribute (PK) of the data set (DS) are stored in a mapping relation (TM), wherein the value of the foreign key attribute (FK) and the value of the primary key attribute (PK) of the data set (DS) form a mapping data set (MDS) in the mapping relation (TM), - the values of a number of attributes (F) of the data set that are not foreign key attributes are stored in the first relation (T1), wherein the first relation (T1) is stored in a non-volatile data memory (PM), and - the mapping relation (TM) is stored exclusively in a volatile data memory (CUA) such that the mapping relation (TM) is completely deleted following an interruption to the power supply.
Aerosol-generating device comprising: a cavity for receiving an aerosol-generating article comprising aerosol-forming substrate; and an induction heating arrangement, wherein the induction heating arrangement comprises an induction coil and a susceptor assembly, wherein the susceptor assembly comprises a central susceptor arrangement arranged centrally within the cavity, wherein the central susceptor arrangement is hollow, wherein the hollow configuration of the central susceptor arrangement enables airflow into the hollow central susceptor arrangement, and wherein the susceptor assembly comprises a peripheral susceptor arrangement arranged distanced from and around the central susceptor arrangement. a cavity for receiving an aerosol-generating article comprising aerosol-forming substrate; and an induction heating arrangement, wherein the induction heating arrangement comprises an induction coil and a susceptor assembly, wherein the susceptor assembly comprises a central susceptor arrangement arranged centrally within the cavity, wherein the central susceptor arrangement is hollow, wherein the hollow configuration of the central susceptor arrangement enables airflow into the hollow central susceptor arrangement, and wherein the susceptor assembly comprises a peripheral susceptor arrangement arranged distanced from and around the central susceptor arrangement.
A composition comprising: a plurality of micronized electrospun fiber fragments comprising a polymer, wherein the plurality of electrospun fiber fragments have an average length of 0.9 μm to 1100 μm; and an average diameter of 0.09 μm to 11 μm; a plurality of electrospun fiber fragment clusters consisting of the polymer, wherein the plurality of electrospun fiber fragment clusters have independently, an average length of 0.9 μm to 1100 μm, an average width of 0.9 μm to 1100 μm, and an average height of 0.9 μm to 1100 μm; and a carrier medium. a plurality of micronized electrospun fiber fragments comprising a polymer, wherein the plurality of electrospun fiber fragments have an average length of 0.9 μm to 1100 μm; and an average diameter of 0.09 μm to 11 μm; a plurality of electrospun fiber fragment clusters consisting of the polymer, wherein the plurality of electrospun fiber fragment clusters have independently, an average length of 0.9 μm to 1100 μm, an average width of 0.9 μm to 1100 μm, and an average height of 0.9 μm to 1100 μm; and a carrier medium.
A turbine engine , comprising: a turbo-compressor including a compressor section and a turbine section , wherein the turbo-compressor includes a rotor with a plurality of compressor blades (80-82) and a plurality of turbine blades (84-86) radially outboard of and respectively connected to the compressor blades (80-82); a fan section upstream of the turbo-compressor ; a combustor section fluidly coupled between the compressor section and the turbine section ; a second compressor section fluidly coupled between the compressor section and the combustor section , wherein the second compressor section comprises a compressor rotor ; characterized a second turbine section fluidly coupled between the combustor section and the turbine section , wherein the second turbine section comprises a turbine rotor and the compressor rotor is connected to and driven by the turbine rotor through a shaft ; and a nacelle housing the turbo-compressor and the combustor section , wherein the nacelle includes a thrust reverser ; a turbo-compressor including a compressor section and a turbine section , wherein the turbo-compressor includes a rotor with a plurality of compressor blades (80-82) and a plurality of turbine blades (84-86) radially outboard of and respectively connected to the compressor blades (80-82); a fan section upstream of the turbo-compressor ; a combustor section fluidly coupled between the compressor section and the turbine section ; a second compressor section fluidly coupled between the compressor section and the combustor section , wherein the second compressor section comprises a compressor rotor ; characterized a second turbine section fluidly coupled between the combustor section and the turbine section , wherein the second turbine section comprises a turbine rotor and the compressor rotor is connected to and driven by the turbine rotor through a shaft ; and
A method of communicating data over a three phase power system between downhole equipment and a surface, the method comprising: transmitting bits of data between the downhole equipment and the surface, wherein the transmission of a bit of data includes transmitting multiple frequencies (f1, f2, f3, f4) simultaneously on a transmission line, and wherein a unique combination of frequencies transmitted simultaneously is representative of the bit's value.
A gripper for the automated wiring of electrical components of an electrical switchgear, the gripper having at least two gripper fingers , characterized in that the gripper fingers delimit a cable guide corridor between them, the passage cross-section of which is delimited at a distal end (D) of the gripper fingers by opposing gripper jaws of the gripper fingers and, with respect to the distal end (D), further proximally by opposing cable drives of the gripper fingers , wherein in order to vary the passage cross-section the two gripper fingers being adjustable relative to one another via a linear adjusting unit in an adjustment direction (y) which corresponds to a cross-sectional direction of the passage cross-section.
Vehicular disc brake , having a caliper body and a disc rotor , wherein: - the caliper body comprises: - a pair of action parts arranged facing each other with the disc rotor interposed therebetween, each of which includes a cylinder part having a cylinder hole into which a piston is to be inserted; and - a bridge part extending over an outer peripheral side of the disc rotor and configured to connect the pair of action parts , - each of the action parts has a plurality of cylinder holes arranged in a disc circumferential direction, and a working fluid communication hole that provides communication between bottom sections of adjacent cylinder holes , - the bridge part includes a disc turn-out side bridge part formed on a disc turn-out side when a vehicle is moving forward, a disc turn-in side bridge part formed on a disc turn-in side when the vehicle is moving forward, an intermediate bridge part formed in an intermediate part between the disc turn-in side bridge part and the disc turn-out side bridge part , and ceiling openings separately provided between the intermediate bridge part and the disc turn-in side bridge part and between the intermediate bridge part and the disc turn-out side bridge part , and - the working fluid communication hole is formed such that a disc radial center section (C1) of the working fluid communication hole is offset closer to a disc radial outer side than a center axis (CL1) of each of the cylinder holes . - the caliper body comprises: - a pair of action parts arranged facing each other with the disc rotor interposed therebetween, each of which includes a cylinder part having a cylinder hole into which a piston is to be inserted; and - a bridge part extending over an outer peripheral side of the disc rotor and configured to connect the pair of action parts , - a pair of action parts arranged facing each other with the disc rotor interposed therebetween, each of which includes a cylinder part having a cylinder hole into which a piston is to be inserted; and - a bridge part extending over an outer peripheral side of the disc rotor and configured to connect the pair of action parts , - each of the action parts has a plurality of cylinder holes arranged in a disc circumferential direction, and a working fluid communication hole that provides communication between bottom sections of adjacent cylinder holes , - the bridge part includes a disc turn-out side bridge part formed on a disc turn-out side when a vehicle is moving forward, a disc turn-in side bridge part formed on a disc turn-in side when the vehicle is moving forward, an intermediate bridge part formed in an intermediate part between the disc turn-in side bridge part and the disc turn-out side bridge part , and ceiling openings separately provided between the intermediate bridge part and the disc turn-in side bridge part and between the intermediate bridge part and the disc turn-out side bridge part , and - the working fluid communication hole is formed such that a disc radial center section (C1) of the working fluid communication hole is offset closer to a disc radial outer side than a center axis (CL1) of each of the cylinder holes .
An electric motor comprising: a rotor adapted to rotate about a rotation axis (A); a stator axially aligned to the rotor and centered to the rotation axis, wherein the rotor is a dual rotor including an inner rotor segment and an outer rotor segment disposed radially outward from the inner rotor segment, and the inner rotor segment radially defines an inner cavity axially aligned to the rotor and the stator; a stationary shaft disposed in the inner cavity, extending along the rotation axis, and spaced radially inward from the inner rotor segment; a plate axially defining the inner cavity; and a motor drive including electronic elements disposed at least in-part in the inner cavity; characterised in that the plate is a mounting plate attached to the stationary shaft and adapted to support the stator; and the motor drive is directly supported by the stationary shaft . a rotor adapted to rotate about a rotation axis (A); a stator axially aligned to the rotor and centered to the rotation axis, wherein the rotor is a dual rotor including an inner rotor segment and an outer rotor segment disposed radially outward from the inner rotor segment, and the inner rotor segment radially defines an inner cavity axially aligned to the rotor and the stator; a stationary shaft disposed in the inner cavity, extending along the rotation axis, and spaced radially inward from the inner rotor segment; a plate axially defining the inner cavity; and a motor drive including electronic elements disposed at least in-part in the inner cavity; characterised in that the plate is a mounting plate attached to the stationary shaft and adapted to support the stator; and the motor drive is directly supported by the stationary shaft .
Reinforcement structure for components, comprising a multilayered fabric with at least one first fabric layer, which is formed as first annular element , at least one second fabric layer, which is formed as second annular element , and at least one third fabric layer which is arranged between the at least one first fabric layer and the at least one second fabric layer and is partially interwoven with the at least one first fabric layer and with the at least one second fabric layer, and is at least in some sections in the form of webs via which the first annular element and the second annular element are connected to one another, wherein the webs have no joint.