mhurhangee/patent-ind-claim-en huggingface dataset:
A non-hydraulic foamed cementitious composition, comprising: magnesium oxide; a salt selected from the group consisting of magnesium chloride, magnesium sulfate, ammonium hydrogen phosphate, and hydrates thereof; a nitrogen gas-generating compound, wherein the nitrogen gas-generating compound is azodicarbonamide; an amine activator, wherein the amine activator is carbohydrazide; an oxidizer; and a foam surfactant, wherein the weight ratio of azodicarbonamide to carbohydrazide is 5:1 to 1:5. magnesium oxide; a salt selected from the group consisting of magnesium chloride, magnesium sulfate, ammonium hydrogen phosphate, and hydrates thereof; a nitrogen gas-generating compound, wherein the nitrogen gas-generating compound is azodicarbonamide; an amine activator, wherein the amine activator is carbohydrazide; an oxidizer; and a foam surfactant, wherein the weight ratio of azodicarbonamide to carbohydrazide is 5:1 to 1:5.
A process for isolating 1,1,1,2,3-pentachloropropane from a crude product stream containing the 1,1,1,2,3-pentachloropropane, the process comprising: a) providing a crude product stream containing 1,1,1,2,3-pentachloropropane, where the crude product stream further includes ferric chloride; b) adding a Lewis base as an inhibitor to the crude product stream to deactivate the ferric chloride, wherein the Lewis base as the inhibitor is tributylphosphate, and wherein the amount of tributylphosphate added to the crude product stream is from 0.7 moles to 5 moles of tributylphosphate per mole of ferric chloride within the crude product stream. a) providing a crude product stream containing 1,1,1,2,3-pentachloropropane, where the crude product stream further includes ferric chloride; b) adding a Lewis base as an inhibitor to the crude product stream to deactivate the ferric chloride, wherein the Lewis base as the inhibitor is tributylphosphate, and wherein the amount of tributylphosphate added to the crude product stream is from 0.7 moles to 5 moles of tributylphosphate per mole of ferric chloride within the crude product stream.
A receiving element of a friction connecting means which comprises the receiving element and an engagement element , wherein the receiving element is arranged to secure the position of the engagement element to the receiving element by means of friction, wherein the receiving element comprises at least one pressure pocket comprising an elastic bag, and has at least one pressurizing space which is arranged to contain a pressure medium; characterised in that the receiving element further comprises: at least one first carbon fiber composite material layer at least partly arranged on one side of the pressure pocket and arranged to at least partly surround the pressure pocket ; at least one second carbon fiber composite material layer at least partly arranged on the opposite side of the pressure pocket with respect to the first carbon fiber composite material layer , wherein said first layer and said second layer are connected in an integral body; and wherein said first layer and/or said second layer is/are configured to expand in a direction away from the pressure pocket under a predetermined pressure from the pressure pocket , creating a friction engagement between the receiving element and the engagement element . at least one pressure pocket comprising an elastic bag, and has at least one pressurizing space which is arranged to contain a pressure medium; characterised in that the receiving element further comprises: at least one first carbon fiber composite material layer at least partly arranged on one side of the pressure pocket and arranged to at least partly surround the pressure pocket ; at least one second carbon fiber composite material layer at least partly arranged on the opposite side of the pressure pocket with respect to the first carbon fiber composite material layer , wherein said first layer and said second layer are connected in an integral body; and wherein said first layer and/or said second layer is/are configured to expand in a direction away from the pressure pocket under a predetermined pressure from the pressure pocket , creating a friction engagement between the receiving element and the engagement element . at least one first carbon fiber composite material layer at least partly arranged on one side of the pressure pocket and arranged to at least partly surround the pressure pocket ; at least one second carbon fiber composite material layer at least partly arranged on the opposite side of the pressure pocket with respect to the first carbon fiber composite material layer , wherein said first layer and said second layer are connected in an integral body; and wherein said first layer and/or said second layer is/are configured to expand in a direction away from the pressure pocket under a predetermined pressure from the pressure pocket , creating a friction engagement between the receiving element and the engagement element .
A fraud estimation system (S), comprising: relevance information obtaining means for obtaining relevance information about relevance between one service (C) and another service (A), the relevance information being set based on an aggregated count of the number of matches between user information of fraudulent users in a data storage of the one service and user information of fraudulent users in a data storage of the another service, such that a numerical value indicated by the relevance information is larger when the aggregated count is higher; comparison result obtaining means for obtaining a comparison result of a comparison between user information of a target user in the one service and user information of a fraudulent user or an authentic user in the another service; estimation means for estimating fraudulence of the target user based on the relevance information and the comparison result; and a control unit configured to restrict target user registration when the fraudulence is equal to or higher than a pre-stored threshold value and to permit target user registration when the fraudulence is lower than the threshold value. relevance information obtaining means for obtaining relevance information about relevance between one service (C) and another service (A), the relevance information being set based on an aggregated count of the number of matches between user information of fraudulent users in a data storage of the one service and user information of fraudulent users in a data storage of the another service, such that a numerical value indicated by the relevance information is larger when the aggregated count is higher; comparison result obtaining means for obtaining a comparison result of a comparison between user information of a target user in the one service and user information of a fraudulent user or an authentic user in the another service; estimation means for estimating fraudulence of the target user based on the relevance information and the comparison result; and a control unit configured to restrict target user registration when the fraudulence is equal to or higher than a pre-stored threshold value and to permit target user registration when the fraudulence is lower than the threshold value.
A permanent magnet brushless direct current (DC) electric motor having a stator assembly and a rotor pivotably arranged inside the stator assembly , the stator assembly comprising: a lamination stack defining a plurality poles extending radially towards a center of the lamination stack , a plurality of pole teeth extending laterally with respect to ends of the poles, and a plurality of stator slots formed between adjacent poles; a plurality of field windings wound around the poles; and a plurality of electrically non-conductive tooth inserts longitudinally arranged inside the stator slots between adjacent field windings , each tooth insert including a radial inner end arranged at an open end of the slot and engaging lateral edges of two opposing teeth within the slot ; wherein the radial inner end comprises two radial notches arranged to engage inner surfaces of the two opposing teeth of the slot ; characterised in that the plurality of electrically non-conductive tooth inserts are electrically non-conductive tooth damper inserts ; wherein each tooth damper insert includes a radial outer end in contact with an outer wall of the slot ; wherein the radial outer end of the tooth damper insert is arcuate-shaped to follow a profile of the outer wall of the slot ; wherein the radial outer ends of the tooth damper inserts provide support against radial movement and vibration of lamination of the lamination stack , and the radial inner ends of the tooth damper inserts provide support for the poles and the pole teeth against rotational or radial movement and vibration. a lamination stack defining a plurality poles extending radially towards a center of the lamination stack , a plurality of pole teeth extending laterally with respect to ends of the poles, and a plurality of stator slots formed between adjacent poles; a plurality of field windings wound around the poles; and a plurality of electrically non-conductive tooth inserts longitudinally arranged inside the stator slots between adjacent field windings , each tooth insert including a radial inner end arranged at an open end of the slot and engaging lateral edges of two opposing teeth within the slot ; wherein the radial inner end comprises two radial notches arranged to engage inner surfaces of the two opposing teeth of the slot ; characterised in that the plurality of electrically non-conductive tooth inserts are electrically non-conductive tooth damper inserts ; wherein each tooth damper insert includes a radial outer end in contact with an outer wall of the slot ; wherein the radial outer end of the tooth damper insert is arcuate-shaped to follow a profile of the outer wall of the slot ; wherein the radial outer ends of the tooth damper inserts provide support against radial movement and vibration of lamination of the lamination stack , and the radial inner ends of the tooth damper inserts provide support for the poles and the pole teeth against rotational or radial movement and vibration.
Electric heater for an automobile vehicle, with an electronic controller and a heat transmitting net , whereby the heat transmitting net contains a multitude of PTC-heating elements , a multitude of contact sheets and heat dissipating fins , whereby the PTC-heating elements are respectively arranged between two adjacent contact sheets and form a heating element with the contact sheets , whereby some of the contact sheets are connected to connectors , which are arranged at the electronic controller and are connectable to either a positive pole of a power supply or a negative pole of a power supply wherein the connectors connected to a contact sheet and connectable to the positive pole and the connectors connected to a contact sheet and connectable to the negative pole are arranged in an alternating order, whereby the quantity of connectors that are connectable to the positive pole of a power supply and the quantity of connectors that are connectable to the negative pole of a power supply differs by one and wherein the heat transmitting net is divided into a first heat transmitting area and a second heat transmitting area , whereby the PTC-heating elements are arranged only within the second area , and wherein the first area features a multitude of distance elements , which are arranged between adjacent contact sheets in a way that they create a distance between these adjacent contact sheets , characterized in that the first area is arranged at the end of the heat transmitting net , which faces the electronic controller , whereas the second area is arranged at the end of the heat transmitting net , which is facing away from the electronic controller .
A trusted startup method of a blockchain integrated station, comprising: initiating , by the blockchain integrated station, a signature verification request for a disk image deployed in the blockchain integrated station to a cryptographic acceleration card assembled on the blockchain integrated station in response to receiving a startup instruction, wherein a provider public key of a provider of the disk image is pre-stored in the cryptographic acceleration card; receiving , by the blockchain integrated station, a signature verification result returned by the cryptographic acceleration card, wherein the signature verification result is obtained by the cryptographic acceleration card verifying a current signature of the disk image using the provider public key; executing , by the blockchain integrated station, the disk image deployed in the blockchain integrated station to form a blockchain node in a case that the signature verification result indicates the current signature passes verification; and in a case that the signature verification result indicates the current signature does not pass verification, reading, by the blockchain integrated station, a backup disk image from a trusted execution environment locally deployed; and replacing, by the blockchain integrated station, the disk image with the backup disk image, and responding to the startup instruction again. initiating , by the blockchain integrated station, a signature verification request for a disk image deployed in the blockchain integrated station to a cryptographic acceleration card assembled on the blockchain integrated station in response to receiving a startup instruction, wherein a provider public key of a provider of the disk image is pre-stored in the cryptographic acceleration card; receiving , by the blockchain integrated station, a signature verification result returned by the cryptographic acceleration card, wherein the signature verification result is obtained by the cryptographic acceleration card verifying a current signature of the disk image using the provider public key; executing , by the blockchain integrated station, the disk image deployed in the blockchain integrated station to form a blockchain node in a case that the signature verification result indicates the current signature passes verification; and in a case that the signature verification result indicates the current signature does not pass verification, reading, by the blockchain integrated station, a backup disk image from a trusted execution environment locally deployed; and replacing, by the blockchain integrated station, the disk image with the backup disk image, and responding to the startup instruction again.
A reaction cuvette comprising: parallel flat side walls of its main part , a rounded portion on its inner bottom, and a recess with a rounded wall surface on the bottom face of the cuvette main part; characterized by : a slot configured to receive the tip of a stirring rod , at the center of the recess. parallel flat side walls of its main part , a rounded portion on its inner bottom, and a recess with a rounded wall surface on the bottom face of the cuvette main part; characterized by : a slot configured to receive the tip of a stirring rod , at the center of the recess.
A tissue fixation method comprising: (a) placing a tissue sample in contact with an aldehyde-based fixative solution in a first temperature range for a first time period, wherein said first temperature range is from above freezing point of the aldehyde-based fixative solution to less than 10 °C, and wherein said first time period is from 72 hours to 14 days; and (b) after the first time period, placing the tissue sample in contact with an aldehyde-based fixative solution at a temperature in a second temperature range of about 20 °C to less than 55 °C for a second time period, wherein the second time period is from 15 minutes to 4 hours. (a) placing a tissue sample in contact with an aldehyde-based fixative solution in a first temperature range for a first time period, wherein said first temperature range is from above freezing point of the aldehyde-based fixative solution to less than 10 °C, and wherein said first time period is from 72 hours to 14 days; and (b) after the first time period, placing the tissue sample in contact with an aldehyde-based fixative solution at a temperature in a second temperature range of about 20 °C to less than 55 °C for a second time period, wherein the second time period is from 15 minutes to 4 hours.
A method in a wireless device for reporting Channel State Information, CSI, the wireless device being comprised in a wireless communications system , the method comprising: - receiving , from a network node , a CSI process configuration and a request for CSI information, wherein the CSI process comprises the reporting process of CSI for a particular reference signal resource; characterized in that the method further comprising: - reporting CSI for more than one CSI process in a subframe, n, wherein the CSI is determined such as to reflect the state of the channel for a CSI reference resource and wherein the CSI reference resource is determined to be n CQI_ref number of subframes prior to the subframe n and wherein n CQI _ ref is based on the number of configured CSI processes. - receiving , from a network node , a CSI process configuration and a request for CSI information, wherein the CSI process comprises the reporting process of CSI for a particular reference signal resource; - reporting CSI for more than one CSI process in a subframe, n, wherein the CSI is determined such as to reflect the state of the channel for a CSI reference resource and wherein the CSI reference resource is determined to be n CQI_ref number of subframes prior to the subframe n and wherein n CQI _ ref is based on the number of configured CSI processes.
A processing system for an unmanned vehicle, UV, comprising: a first processing unit of an integrated circuit, the first processing unit being a real-time processing unit; a second processing unit of the integrated circuit; a first operating system provisioned using the first processing unit , the first operating system configured to execute a first vehicle control process ; a virtualization layer configured using the second processing unit ; and a first virtual machine provisioned from the virtualization layer , the first virtual machine being a real-time virtual machine, the first virtual machine including a second operating system configured to execute a second vehicle control process , wherein the first virtual machine is isolated from the first operating system . a first processing unit of an integrated circuit, the first processing unit being a real-time processing unit; a second processing unit of the integrated circuit; a first operating system provisioned using the first processing unit , the first operating system configured to execute a first vehicle control process ; a virtualization layer configured using the second processing unit ; and a first virtual machine provisioned from the virtualization layer , the first virtual machine being a real-time virtual machine, the first virtual machine including a second operating system configured to execute a second vehicle control process , wherein the first virtual machine is isolated from the first operating system .
An industrial printhead comprising a fluid being dispensed and an array of piezoactuated flow channel dispensers each of which has an orifice with a nozzle tip to allow exit of the fluid being dispensed, the piezoactuated flow channel dispensers being enclosed in a chamber with a multi-orifice plate , and the printhead comprising a fluid which fills the chamber , wherein the fluid composition in the chamber is at the saturated vapour of the fluid being dispensed to minimise evaporation of the fluid being dispensed at the nozzle tip.
A tool mounting assembly for coupling a tool to a rotary drive of a machine tool, the assembly comprising: a mount having a longitudinal axis and axially inner and outer ends, the mount defining an engagement surface for engaging with a tool to be rotated about the longitudinal axis, and at least three independently expandable chambers within the mount for receiving a flowable material, wherein each chamber is mechanically coupled to a respective portion of the engagement surface, such that an increase in the pressure within the chamber above a predetermined threshold expands the chamber, which causes the coupled portion of the engagement surface to move in a radial direction relative to the longitudinal axis, characterised in that the assembly includes an end plate and a fastening arrangement for fastening the end plate to the mount in order to retain a tool between an axially inwardly facing transverse surface of the end plate and a transverse surface of the mount . a mount having a longitudinal axis and axially inner and outer ends, the mount defining an engagement surface for engaging with a tool to be rotated about the longitudinal axis, and at least three independently expandable chambers within the mount for receiving a flowable material, wherein each chamber is mechanically coupled to a respective portion of the engagement surface, such that an increase in the pressure within the chamber above a predetermined threshold expands the chamber, which causes the coupled portion of the engagement surface to move in a radial direction relative to the longitudinal axis, characterised in that the assembly includes an end plate and a fastening arrangement for fastening the end plate to the mount in order to retain a tool between an axially inwardly facing transverse surface of the end plate and a transverse surface of the mount .
Assembly of an installation box and electric installation material with at least one electric wire or cable , wherein the installation box comprises a housing with a bottom wall and a circumferential wall upright from the bottom wall , wherein the bottom wall and the circumferential wall together enclose an installation space for electric installation material, wherein an upper edge of the circumferential wall facing away from the bottom wall bounds an installation opening for providing access to the installation space, wherein the circumferential wall is provided with a passage opening for the at least one electric wire or cable to pass there through in an insert direction (E), wherein the installation box further comprises a strain relief or cable retention insert inserted into the installation space and installed at the passage opening , wherein the strain relief or cable retention insert is provided with a strain relieving or cable retention member having a strain relieving or cable retention body extending substantially parallel to the insert direction (E), and a fastener for receiving and fastening the at least one electric wire or cable to the strain relieving or cable retention member , wherein the fastener surrounds the at least one electric wire or cable and the strain relieving or cable retention member , wherein the strain relieving or cable retention member further comprises a strain relieving or cable retention portion configured for receiving at least a part of the fastener and for substantially preventing movement of the fastener in at least one direction substantially parallel to the insert direction (E), wherein the strain relieving or cable retention portion is configured for substantially fixating the fastener to the strain relieving or cable retention member , wherein the strain relieving or cable retention portion comprises a first protrusion extending substantially transversal to the insert direction (E) from the strain relieving or cable retention body and a second protrusion extending substantially transversal to the insert direction (E) from the strain relieving or cable retention body , wherein the second protrusion is distanced from and parallel to the first protrusion , wherein a receiving space is defined between the first and second protrusions , within which a part of the fastener is received.