mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for wirelessly measuring the strength of electric and magnetic fields around a conductor , characterized in that the apparatus comprises: one or more acoustic wave sensor or sensor-tag devices; and at least one voltage-controlled variable impedance device; and at least one differential electric field probe operable to interact with the electric field being measured and produce a voltage; wherein said differential electric field probe comprises one first cylindrical conductive section with a first interior radius; at least one second cylindrical conductive section with a second interior radius that is not equal to said first interior radius; wherein said cylindrical conductive sections are positioned around a common longitudinal axis; wherein said differential field probe is configured such that said common longitudinal axis of said cylindrical conductive sections is parallel to the length of the conductor; and wherein said differential field probe is configured such that said conductor can pass through the interior of the smaller of said first and said second cylindrical conductive sections; and wherein at least the outer of said first and said at least one second cylindrical conductive sections is electrically isolated from said conductor; wherein a differential voltage that provides a measure of the electrical field strength is produced between each pair of said cylindrical conductive sections; and at least one second field probe operable to interact with the magnetic field being measured and produce a voltage; and one or more antennas. one or more acoustic wave sensor or sensor-tag devices; and at least one voltage-controlled variable impedance device; and at least one differential electric field probe operable to interact with the electric field being measured and produce a voltage; wherein said differential electric field probe comprises one first cylindrical conductive section with a first interior radius; at least one second cylindrical conductive section with a second interior radius that is not equal to said first interior radius; wherein said cylindrical conductive sections are positioned around a common longitudinal axis; wherein said differential field probe is configured such that said common longitudinal axis of said cylindrical conductive sections is parallel to the length of the conductor; and wherein said differential field probe is configured such that said conductor can pass through the interior of the smaller of said first and said second cylindrical conductive sections; and wherein at least the outer of said first and said at least one second cylindrical conductive sections is electrically isolated from said conductor; wherein a differential voltage that provides a measure of the electrical field strength is produced between each pair of said cylindrical conductive sections; and at least one second field probe operable to interact with the magnetic field being measured and produce a voltage; and one or more antennas.
A bone graft containment device , comprising: a body formed via one or more helical structures extending about a longitudinal axis of the body from a first end to a second end to define a channel extending longitudinally therethrough, the channel configured to receive a bone graft material therein, the one or more helical structures formed of a material permitting the body to be one of expanded, compressed and curved to fill a target space of a target bone, wherein the bone graft containment device further comprises fixation element receiving structures connecting at least two adjacent turns of the one or more helical structures , characterized in that the fixation element receiving structures are buttons , each button connecting adjacent turns of the one or more helical structures . a body formed via one or more helical structures extending about a longitudinal axis of the body from a first end to a second end to define a channel extending longitudinally therethrough, the channel configured to receive a bone graft material therein, the one or more helical structures formed of a material permitting the body to be one of expanded, compressed and curved to fill a target space of a target bone, wherein the bone graft containment device further comprises fixation element receiving structures connecting at least two adjacent turns of the one or more helical structures , characterized in that the fixation element receiving structures are buttons , each button connecting adjacent turns of the one or more helical structures .
A method of manufacturing an SOI wafer, including reducing a thickness of an SOI layer formed on an insulator layer of an SOI wafer to a predetermined thickness such that the thickness of the SOI layer becomes a target value, the method comprising at least the steps of: (a) forming a thermal oxide film on the SOI layer by a heat treatment under an oxidizing gas atmosphere; (b) measuring the thickness of the SOI layer after forming the thermal oxide film; (c) performing batch cleaning which includes immersing the SOI layer in a cleaning solution having an etching property with respect to the SOI layer, wherein an etching amount of the SOI layer is adjusted depending on the thickness of the SOI layer measured in the step (b) such that the thickness of the SOI layer is adjusted to be thicker than the target value after etching by the batch cleaning; (d) measuring the thickness of the SOI layer after the batch cleaning; and (e) performing single-wafer cleaning which includes immersing the SOI layer in a cleaning solution having an etching property with respect to the SOI layer, wherein an etching amount of the SOI layer is adjusted depending on the thickness of the SOI layer measured in the step (d) such that the thickness of the SOI layer is adjusted to be the target value after etching by the single-wafer cleaning, the method further comprising removing the thermal oxide film formed in the step (a) after the step (a) and before the step (b), or after the step (b) and before the step (c). (a) forming a thermal oxide film on the SOI layer by a heat treatment under an oxidizing gas atmosphere; (b) measuring the thickness of the SOI layer after forming the thermal oxide film; (c) performing batch cleaning which includes immersing the SOI layer in a cleaning solution having an etching property with respect to the SOI layer, wherein an etching amount of the SOI layer is adjusted depending on the thickness of the SOI layer measured in the step (b) such that the thickness of the SOI layer is adjusted to be thicker than the target value after etching by the batch cleaning; (d) measuring the thickness of the SOI layer after the batch cleaning; and (e) performing single-wafer cleaning which includes immersing the SOI layer in a cleaning solution having an etching property with respect to the SOI layer, wherein an etching amount of the SOI layer is adjusted depending on the thickness of the SOI layer measured in the step (d) such that the thickness of the SOI layer is adjusted to be the target value after etching by the single-wafer cleaning, the method further comprising
A separation membrane for blood processing comprising a polysulfone polymer, a hydrophilic polymer and a polymer having a hydroxy group in a side chain obtained by polymerizing or copolymerizing at least one acrylate monomer having a hydroxy group in a side chain and/or methacrylate monomer having a hydroxy group in a side chain and the polymer having a hydroxy group in a side chain having a solubility of 0.5 g or less in 100 g of water at 20 °C, wherein the hydrophilic polymer is polyvinylpyrrolidone; the content of the polymer having a hydroxy group in a side chain in the separation membrane is 0.01 to 0.6 mass%; the average concentration of the polymer having a hydroxy group in a side chain in the functional separation surface of the separation membrane is 20 mass% or more as determined by X-ray photoelectron spectroscopy, and the maximum value and the minimum value of the concentration of the polymer having a hydroxy group in a side chain in the functional separation surface fall within the range of ±15 %, based on the average concentration of the polymer in the functional separation surface; and the average concentration of the polymer having a hydroxy group in a side chain in the functional separation surface relative to the content of the polymer in the separation membrane is 100 times or more, wherein the separation membrane is characterized by an air-bleeding during priming in that air bubbles disappear within one minute, when forcipes of the inlet port of the blood part and the outlet port of the dialyzed-fluid part are removed to allow the physiological saline to flow from the inlet port of the blood part through the filter membrane at a rate of 100 mL/minute and at this time, air bubbles in the physiological saline flowing toward the outlet port of the dialyzed-fluid part through the membrane are visually observed, wherein the air-bleeding during priming is evaluated as described in the description.
A jet noise suppressor , comprising: a nozzle comprising a front end , a back end , an interior surface , and an exterior surface ; a plurality of struts , each strut comprising a base and a distal end , with the base of each strut coupled to the interior surface of the nozzle ; a plurality of vents , each vent corresponding to a respective strut and formed within the interior surface of the nozzle between the front end of the nozzle and the base of the respective strut , each vent extending through the respective strut from the base of the respective strut to the distal end of the respective strut ; and wherein: each vent comprises an inlet and an outlet ; the inlet of each vent is formed within the interior surface of the nozzle between the front end of the nozzle and the base of the respective strut ; and the outlet of each vent is formed within the distal end of the respective strut . a nozzle comprising a front end , a back end , an interior surface , and an exterior surface ; a plurality of struts , each strut comprising a base and a distal end , with the base of each strut coupled to the interior surface of the nozzle ; a plurality of vents , each vent corresponding to a respective strut and formed within the interior surface of the nozzle between the front end of the nozzle and the base of the respective strut , each vent extending through the respective strut from the base of the respective strut to the distal end of the respective strut ; and wherein: each vent comprises an inlet and an outlet ; the inlet of each vent is formed within the interior surface of the nozzle between the front end of the nozzle and the base of the respective strut ; and the outlet of each vent is formed within the distal end of the respective strut . each vent comprises an inlet and an outlet ; the inlet of each vent is formed within the interior surface of the nozzle between the front end of the nozzle and the base of the respective strut ; and the outlet of each vent is formed within the distal end of the respective strut .
A water-in-oil emulsion-type deodorant composition stick comprising (A) 30 to 70% by weight of volatile component having a boiling point of up to 250°C, component (A) containing water and ethanol, and the total of water and ethanol in component (A) being 90 to 100% by weight, (B) either one of (B-1) antiperspirant and (B-2) bactericide, or a combination of (B-1) and (B-2), (C) crosslinked silicone surfactant, (D) non-crosslinked silicone surfactant, and (E) oily component which is solid at 25°C. (A) 30 to 70% by weight of volatile component having a boiling point of up to 250°C, component (A) containing water and ethanol, and the total of water and ethanol in component (A) being 90 to 100% by weight, (B) either one of (B-1) antiperspirant and (B-2) bactericide, or a combination of (B-1) and (B-2), (C) crosslinked silicone surfactant, (D) non-crosslinked silicone surfactant, and (E) oily component which is solid at 25°C.
A non-transitory computer readable medium having instructions stored thereon that, when executed by a processor, cause the processor to provide cloud-based identity and access management, the providing comprising: providing a user interface (UI) to a tenant of an identity-management service; enabling diagnostics functionality for the tenant based on a user input received via the UI, wherein the diagnostics functionality allows for a user in the tenant to configure and receive diagnostics reports related to the identity-management service; receiving a request for the identity-management service; accessing a microservice based on the request; performing the identity-management service by the microservice; collecting and recording diagnostics information during the performing of the identity-management service, wherein the diagnostics information comprises one or more entries and each entry in the diagnostics information includes a timestamp and an execution-context identifier ECID, and a relationship identifier RID; and displaying the diagnostics information to the user via the UI; wherein the request forms the root of a tree of sub-tasks that need to be completed for the request, wherein the RID comprises an ordered set of numbers that describes a location of a task in the tree of sub-tasks, wherein the diagnostics information relates to the sub-tasks. providing a user interface (UI) to a tenant of an identity-management service; enabling diagnostics functionality for the tenant based on a user input received via the UI, wherein the diagnostics functionality allows for a user in the tenant to configure and receive diagnostics reports related to the identity-management service; receiving a request for the identity-management service; accessing a microservice based on the request; performing the identity-management service by the microservice; collecting and recording diagnostics information during the performing of the identity-management service, wherein the diagnostics information comprises one or more entries and each entry in the diagnostics information includes a timestamp and an execution-context identifier ECID, and a relationship identifier RID; and displaying the diagnostics information to the user via the UI; wherein the request forms the root of a tree of sub-tasks that need to be completed for the request, wherein the RID comprises an ordered set of numbers that describes a location of a task in the tree of sub-tasks, wherein the diagnostics information relates to the sub-tasks.
A method for protecting an electronic device , executing an application via a virtual machine (M), against fault injection attacks, the execution of the application implementing a volatile memory pool (P) in which variables (var1, var2, var3) used by the application are read and/or stored, the electronic device comprising a non-volatile memory in which a plurality of applications is stored, the method comprising the following steps: - determining at least one application called generic application among the stored applications, comprising the reading of a header value of a package of the non-volatile memory containing said generic application, the header value making it possible to discriminate said generic application relative to at least one secure application among the stored applications; - applying a secure execution mode on said generic application, comprising a securing of the variables read/stored in the volatile memory pool (P). - determining at least one application called generic application among the stored applications, comprising the reading of a header value of a package of the non-volatile memory containing said generic application, the header value making it possible to discriminate said generic application relative to at least one secure application among the stored applications; - applying a secure execution mode on said generic application, comprising a securing of the variables read/stored in the volatile memory pool (P).
A method for operating a communications controller, the method characterised in that the method comprises: grouping , by the communications controller, a plurality of user equipments (UEs) in accordance with received channel condition reports, UE interference cancellation (IC) capability reports, and mobility estimates, thereby producing information about the grouping; selecting , by the communications controller, a first UE out of the plurality of UEs and a second UE out of the plurality of UEs, wherein the selecting is in accordance with the information about grouping, wherein a wide width beam is allocated to the first UE and a narrow width beam is allocated to the second UE, and wherein the wide width beam and the narrow width beam spatially overlap; and co-scheduling, by the communications controller, resources of a first transmit block to the first UE and the second UE; determining , by the communications controller, first transmission parameters for the first UE and second transmission parameters for the second UE in accordance with the co-scheduled resources; and communicating , by the communications controller, with the first UE and the second UE in accordance with the first transmission parameters for the first UE and the second transmission parameters for the second UE. grouping , by the communications controller, a plurality of user equipments (UEs) in accordance with received channel condition reports, UE interference cancellation (IC) capability reports, and mobility estimates, thereby producing information about the grouping; selecting , by the communications controller, a first UE out of the plurality of UEs and a second UE out of the plurality of UEs, wherein the selecting is in accordance with the information about grouping, wherein a wide width beam is allocated to the first UE and a narrow width beam is allocated to the second UE, and wherein the wide width beam and the narrow width beam spatially overlap; and co-scheduling, by the communications controller, resources of a first transmit block to the first UE and the second UE; determining , by the communications controller, first transmission parameters for the first UE and second transmission parameters for the second UE in accordance with the co-scheduled resources; and communicating , by the communications controller, with the first UE and the second UE in accordance with the first transmission parameters for the first UE and the second transmission parameters for the second UE.
Stationary gas engine having a ventilation system for ventilating a crankcase , comprising at least one cylinder and a crankcase , having an intake assembly , through which intake air reaches the at least one cylinder of the stationary gas engine , wherein an air filter and a gas mixer mixing the intake air with a fuel gas are arranged one after another in the intake assembly in the flow direction of the intake air, and wherein the ventilation system has a ventilation line opening in the crankcase and, during operation, leading scavenging air into the crankcase , and has a feedback line extending from the crankcase to a feedback point on the intake assembly and, during operation, feeding a gas flow taken from the crankcase back to the feedback point , wherein the ventilation line is arranged extending from a removal point on the intake assembly to the crankcase and, during operation, leading scavenging air taken from the intake assembly at the removal point into the crankcase , wherein the removal point is arranged between the air filter and the gas mixer , and wherein the feedback point is arranged downstream of the gas mixer in the flow direction of the intake air, wherein the ventilation line and the feedback line are unregulated.
A system for detecting a ground fault or degraded isolation between a bus terminal and ground or a chassis reference on a vehicle, the system comprising: a first bus terminal isolated from ground and the chassis reference during normal operation of the vehicle; a second bus terminal isolated from ground and the chassis reference during normal operation of the vehicle; a first amplifier for receiving a first signal from the first bus terminal ; a second amplifier for receiving a second signal from the second bus terminal ; an inverter input of an inverter coupled to an output of the first amplifier , the inverter adapted to invert the polarity of its input signal; a first analog-to-digital converter input of an analog-to-digital converter coupled to an inverter output of the inverter and a second analog-to-digital converter input of the analog-to-digital converter coupled to an output of the second amplifier ; and a data processor capable of receiving outputted digital data of the analog-to-digital converter , the data processor configured to apply a frequency domain transform to the digital data of the first bus terminal and the second bus terminal ; the data processor configured to identify at least one of a circuit location of the ground fault or degraded isolation and a type of ground fault or degraded isolation based on the application of the frequency domain transform to the digital data. a first bus terminal isolated from ground and the chassis reference during normal operation of the vehicle; a second bus terminal isolated from ground and the chassis reference during normal operation of the vehicle; a first amplifier for receiving a first signal from the first bus terminal ; a second amplifier for receiving a second signal from the second bus terminal ; an inverter input of an inverter coupled to an output of the first amplifier , the inverter adapted to invert the polarity of its input signal; a first analog-to-digital converter input of an analog-to-digital converter coupled to an inverter output of the inverter and a second analog-to-digital converter input of the analog-to-digital converter coupled to an output of the second amplifier ; and a data processor capable of receiving outputted digital data of the analog-to-digital converter , the data processor configured to apply a frequency domain transform to the digital data of the first bus terminal and the second bus terminal ; the data processor configured to identify at least one of a circuit location of the ground fault or degraded isolation and a type of ground fault or degraded isolation based on the application of the frequency domain transform to the digital data.
A man-made vitreous fibre (MMVF) plant growth substrate comprising a coherent slab having the following properties: (a) a total volume in the range 3 to 11 litres, (b) a first layer of MMVF having a density in the range 40 to 90 kg/m 3 , (c) in interfacial contact with the first layer, a second layer of MMVF having a density in the range 35 to 85 kg/m 3 that is lower than the density of MMVF of first layer; wherein said first layer has a thickness in the range of 25mm to 50mm, said second layer has a thickness in the range of 50mm to 100mm, and the total thickness of the slab is in the range 75mm to 150mm, wherein the ratio of first layer thickness to second layer thickness is in the range 1:(1.2-1.8). (a) a total volume in the range 3 to 11 litres, (b) a first layer of MMVF having a density in the range 40 to 90 kg/m 3 , (c) in interfacial contact with the first layer, a second layer of MMVF having a density in the range 35 to 85 kg/m 3 that is lower than the density of MMVF of first layer; wherein