mhurhangee/patent-ind-claim-en huggingface dataset:
Straightening press for straightening concentricity or straightness errors in elongated workpieces, having centring means , between which a workpiece can be clamped, which has at least one helical region (W1, W2, W3), such as a screw conveyor, in particular an extruder screw, defining at least one core diameter (Di) and at least one outer diameter (Da) of the workpiece and comprising at least one helix , and having at least one measurement head detecting concentricity errors of the workpiece, wherein a guide rail arranged approximately parallel to the axis of the workpiece clamped between the centring points is provided, and the at least one measurement head has means (32; 32A, 32B) for its displaceability along the guide rail , characterized in that the at least one measurement head and/or its displaceability means (32; 32A, 32B) has at least one control means (40; 40A, 40B), which is designed to maintain a fixed distance (x) between the helix and the measurement point on the workpiece core during its rotation, and the at least one displaceable measurement head has a further measurement device , which detects the outer diameter (Da) of the helix at a, preferably fixed, distance from the measurement point on the workpiece core . having centring means , between which a workpiece can be clamped, which has at least one helical region (W1, W2, W3), such as a screw conveyor, in particular an extruder screw, defining at least one core diameter (Di) and at least one outer diameter (Da) of the workpiece and comprising at least one helix , and having at least one measurement head detecting concentricity errors of the workpiece, wherein a guide rail arranged approximately parallel to the axis of the workpiece clamped between the centring points is provided, and the at least one measurement head has means (32; 32A, 32B) for its displaceability along the guide rail , characterized in that the at least one measurement head and/or its displaceability means (32; 32A, 32B) has at least one control means (40; 40A, 40B), which is designed to maintain a fixed distance (x) between the helix and the measurement point on the workpiece core during its rotation, and the at least one displaceable measurement head has a further measurement device , which detects the outer diameter (Da) of the helix at a, preferably fixed, distance from the measurement point on the workpiece core .
A wiring wrench, comprising: a press rod , having a pressing protruding arm disposed on a side of the press rod , and a stop portion extended from another side of the press rod ; and a handle coupled to the press rod by a pivoting structure , and the handle having a clamping protruding arm extended from a side of the handle and an elastic arm extended from another side of the handle , and the clamping protruding arm and the pressing protruding arm being configured to be opposite to each other, characterized in that said press rod has a hollow through groove inwardly formed at an end away from the pressing protruding arm , and the hollow through groove has a bottom wall therein, and the stop portion includes a stopper extended outwardly from the bottom wall , and the elastic arm is embedded into the hollow through groove and capable of selectively abutting the stopper . a press rod , having a pressing protruding arm disposed on a side of the press rod , and a stop portion extended from another side of the press rod ; and a handle coupled to the press rod by a pivoting structure , and the handle having a clamping protruding arm extended from a side of the handle and an elastic arm extended from another side of the handle , and the clamping protruding arm and the pressing protruding arm being configured to be opposite to each other, characterized in that said press rod has a hollow through groove inwardly formed at an end away from the pressing protruding arm , and the hollow through groove has a bottom wall therein, and the stop portion includes a stopper extended outwardly from the bottom wall , and the elastic arm is embedded into the hollow through groove and capable of selectively abutting the stopper .
A thyristor assembly radiator for a DC converter valve, comprising radiators , a thyristor being disposed between every two adjacent radiators , wherein each of the radiators comprises a housing, a water feeding port is provided at an upper part of the housing, a water discharging port is provided at a lower part of the housing, and through holes (5 to 10) in the housing of the radiator for accommodating damping resistors are provided between the water feeding port and the water discharging port ; a water discharging port of an N th radiator is communicated with a water discharging port of an (N-2) th radiator via a pipeline , and a water feeding port of the N th radiator is communicated with a water feeding port of an (N+2) th radiator via a pipeline , or the water feeding port of the N th radiator is communicated with a water feeding port of the (N-2) th radiator via a pipeline , and the water discharging port of the N th radiator is communicated with a water discharging port of the (N+2) th radiator , wherein N ≥ 3, and N is an odd number; a water discharging port of an M th radiator is communicated with a water discharging port of an (M-2) th radiator via a pipeline , and a water feeding port of the M th radiator is communicated with a water feeding port of an (M+2) th radiator via a pipeline , or the water feeding port of the M th radiator is communicated with a water feeding port of the (M-2) th radiator via a pipeline , and the water discharging port of the M th radiator is communicated with a water discharging port of the (M+2) th radiator , wherein M ≥ 4, and M is an even number; and water feeding ports of the last two radiators are communicated with each other via a pipeline .
A lock gate which is at least partially submergible into a body of water, comprising a reception for a roller carriage having at least one roller for supporting the movement of the lock gate , the lock gate being a rolling gate, a hollow cell being arranged in the area of the reception, said hollow cell being realised at least partially open in a lower area, and the roller carriage being able to be arranged within the hollow cell , characterised in that the lateral and upper areas of the hollow cell are designed to be hermetically sealed or sealable.
A method of making a solid cleansing composition, the composition comprising: (a) at least 15 %wt of a non-soap anionic surfactant having a melting point of at least 45°C; (b) at least 10 %wt of a carrier having a melting point of at least 45°C; (c) at least 1 %wt of an emulsifier; and (d) at least 7 %wt water; wherein the carrier (b) is a triglyceride; wherein the composition is a solid throughout the range from 0°C to 40°C; and wherein the method comprises: (i) preparing an emulsion containing the components (a) to (d), but with a greater mass of water present than in the solid cleaning composition, the temperature of the emulsion being at least 45°C, (ii) subjecting the emulsion to cooling and solidification, wherein the water content is reduced during the cooling and solidification to produce the solid cleansing composition having components (a) to (d) in the amounts defined. (a) at least 15 %wt of a non-soap anionic surfactant having a melting point of at least 45°C; (b) at least 10 %wt of a carrier having a melting point of at least 45°C; (c) at least 1 %wt of an emulsifier; and (d) at least 7 %wt water; wherein the carrier (b) is a triglyceride; wherein the composition is a solid throughout the range from 0°C to 40°C; and wherein the method comprises: (i) preparing an emulsion containing the components (a) to (d), but with a greater mass of water present than in the solid cleaning composition, the temperature of the emulsion being at least 45°C, (ii) subjecting the emulsion to cooling and solidification, wherein the water content is reduced during the cooling and solidification to produce the solid cleansing composition having components (a) to (d) in the amounts defined. (i) preparing an emulsion containing the components (a) to (d), but with a greater mass of water present than in the solid cleaning composition, the temperature of the emulsion being at least 45°C, (ii) subjecting the emulsion to cooling and solidification, wherein the water content is reduced during the cooling and solidification to produce the solid cleansing composition having components (a) to (d) in the amounts defined.
A method of a transmitting device with a configured or allocated source identity, wherein the source identity comprises a first part of the source identity and a second part of the source identity, the method comprising: the transmitting device generates a data packet for sidelink transmission, wherein the data packet includes the second part of the source identity ; the transmitting device generates a control information associated with the data packet, wherein the control information includes the first part of the source identity ; and the transmitting device transmits the control information and the data packet . the transmitting device generates a data packet for sidelink transmission, wherein the data packet includes the second part of the source identity ; the transmitting device generates a control information associated with the data packet, wherein the control information includes the first part of the source identity ; and the transmitting device transmits the control information and the data packet .
A cell growth module comprising: a housing having first and second ends defining a longitudinal axis through the housing; a membrane disposed within the housing, the membrane comprising a plurality of hollow fibers; at least two ports in the housing defining a first fluid flow path through an interior of the hollow fibers, wherein the first fluid flow path contains liquid cell growth media comprising cells; and at least two ports in the housing defining a second fluid flow path along an exterior of the hollow fibers, wherein the second fluid flow path contains oxygen gas; characterised by each of the hollow fibers comprising a hydrophilic interior surface and a hydrophobic exterior surface such that the liquid cell growth media does not leak through the hollow fibers of the membrane yet the oxygen gas can diffuse from the exterior to the interior of the hollow fibers. a housing having first and second ends defining a longitudinal axis through the housing; a membrane disposed within the housing, the membrane comprising a plurality of hollow fibers; at least two ports in the housing defining a first fluid flow path through an interior of the hollow fibers, wherein the first fluid flow path contains liquid cell growth media comprising cells; and at least two ports in the housing defining a second fluid flow path along an exterior of the hollow fibers, wherein the second fluid flow path contains oxygen gas; characterised by each of the hollow fibers comprising a hydrophilic interior surface and a hydrophobic exterior surface such that the liquid cell growth media does not leak through the hollow fibers of the membrane yet the oxygen gas can diffuse from the exterior to the interior of the hollow fibers.
A catalyst composition for use as precursor for Ziegler-Natta catalyst system, said catalyst composition comprising a combination of magnesium moiety, titanium moiety and an internal donor containing at least one 1,2-phenylenedioate compound selected from the group consisting of 1,2-phenylene diisopropanoate, 1,2-phenylene diisobutanoate, 1,2- phenylene di-tert-butanoate, 2-acetoxyphenyl pivalate, and 2-(pivaloyloxy) phenyl benzoate.
A multilayer container comprising: a polyester layer comprising a polyester resin (X); and a polyamide layer comprising a polyamide resin (Y), a yellowing inhibitor (A), and an oxidation accelerator (B); a content of the polyamide resin (Y) being from 0.05 to 7.0 mass% relative to a total amount of all polyamide layers and all polyester layers; the yellowing inhibitor (A) being a dye; and a content of the yellowing inhibitor (A) being from 1 to 30 ppm relative to the total amount of all polyamide layers and all polyester layers. a polyester layer comprising a polyester resin (X); and a polyamide layer comprising a polyamide resin (Y), a yellowing inhibitor (A), and an oxidation accelerator (B); a content of the polyamide resin (Y) being from 0.05 to 7.0 mass% relative to a total amount of all polyamide layers and all polyester layers; the yellowing inhibitor (A) being a dye; and a content of the yellowing inhibitor (A) being from 1 to 30 ppm relative to the total amount of all polyamide layers and all polyester layers.
Knitting element bar having a main body , which has a longitudinal direction , and a knitting element receptacle , characterized in that the main body has a skeleton structure, which has a multiplicity of main body rods (4 - 11, 27, 28) which are interconnected at intersection points (12 - 15, 24).
A liquid fabric treatment composition comprising: a hydrocarbon wax; a crosslinking agent; a polyester warp sizing agent that comprises a polyester backbone; and a disperse dye. a hydrocarbon wax; a crosslinking agent; a polyester warp sizing agent that comprises a polyester backbone; and a disperse dye.
A method for controlling an electronic apparatus, comprising: in response to a voice start command being input through a first microphone (no) included in the electronic apparatus, converting a state of the electronic apparatus to a long distance voice recognition state and displaying a first icon for indicating the long distance voice recognition state; in response to a voice start command being input through a button included in an external remote control device associated with the electronic apparatus, converting the state of the electronic apparatus to a short distance voice recognition state and displaying a second icon for indicating the short distance voice recognition state; displaying voice guide information including a plurality of indicators to indicate a executable function in one of the long distance voice recognition state or the short distance voice recognition state; and wherein the user voice is input through the first microphone included in the electronic apparatus and wherein a voice task is performed in accordance with the user voice input from the first microphone while the electronic apparatus is in the long distance voice recognition state, and wherein the user voice is input through a second microphone included in the external remote control and wherein a voice task is performed in accordance with the user voice input through the second microphone while the electronic apparatus is in the short distance voice recognition state. in response to a voice start command being input through a first microphone (no) included in the electronic apparatus, converting a state of the electronic apparatus to a long distance voice recognition state and displaying a first icon for indicating the long distance voice recognition state; in response to a voice start command being input through a button included in an external remote control device associated with the electronic apparatus, converting the state of the electronic apparatus to a short distance voice recognition state and displaying a second icon for indicating the short distance voice recognition state; displaying voice guide information including a plurality of indicators to indicate a executable function in one of the long distance voice recognition state or the short distance voice recognition state; and wherein the user voice is input through the first microphone included in the electronic apparatus and wherein a voice task is performed in accordance with the user voice input from the first microphone while the electronic apparatus is in the long distance voice recognition state, and wherein the user voice is input through a second microphone included in the external remote control and wherein a voice task is performed in accordance with the user voice input through the second microphone while the electronic apparatus is in the short distance voice recognition state.
A method for calling in a network congestion state, comprising: sending a connection request by a smart terminal to a base station of an enabled cell, and starting a timer; when the smart terminal does not receive a connection response after the timer passes a first preset time period, determining a timeout of the enabled cell and setting the enabled cell as being disabled in a second preset time period, wherein the second preset time period is greater than the first preset time period; repeating actions of sending, starting, determining and setting, until the smart terminal receives the connection response within the first preset time period; and establishing a connection by the smart terminal with a base station of a cell feeding back the connection response; wherein setting the enabled cell as being disabled in the second preset time period comprises: establishing a blacklist, adding the enabled cell into the blacklist, and setting a disabled time period of the enabled cell as the second preset time period; characterized in that , the method further comprises: sending the blacklist to the base station of the cell feeding back the connection response, whereby the base station of the cell feeding back the connection response adjusts an access level of each cell based on the blacklist. sending a connection request by a smart terminal to a base station of an enabled cell, and starting a timer; when the smart terminal does not receive a connection response after the timer passes a first preset time period, determining a timeout of the enabled cell and setting the enabled cell as being disabled in a second preset time period, wherein the second preset time period is greater than the first preset time period; repeating actions of sending, starting, determining and setting, until the smart terminal receives the connection response within the first preset time period; and establishing a connection by the smart terminal with a base station of a cell feeding back the connection response; wherein setting the enabled cell as being disabled in the second preset time period comprises: establishing a blacklist, adding the enabled cell into the blacklist, and setting a disabled time period of the enabled cell as the second preset time period; characterized in that , the method further comprises: sending the blacklist to the base station of the cell feeding back the connection response, whereby the base station of the cell feeding back the connection response adjusts an access level of each cell based on the blacklist. establishing a blacklist, adding the enabled cell into the blacklist, and setting a disabled time period of the enabled cell as the second preset time period; characterized in that , the method further comprises: sending the blacklist to the base station of the cell feeding back the connection response, whereby the base station of the cell feeding back the connection response adjusts an access level of each cell based on the blacklist.
A method of estimating physical parameters of a LCL filter connected between a converter and electrical power network, the estimated physical parameters being converter-side inductance, capacitance and grid-side inductance together with grid inductance, the method comprising forming an analytical discrete-time model of the LCL filter and the converter, forming a discrete-time pulse-transfer function of the analytical discrete-time model having discrete time parameters, injecting a voltage signal superimposed on the reference voltage to the converter, determining output current of the converter, based on the injected voltage signal and output current of the converter, estimating the discrete-time parameters, based on the estimated discrete-time parameters solving the estimated physical parameters using the analytical discrete-time model.
The compounds of Formula I wherein R1, R2 and R3 are independently selected from C1-C4 alkane, alkene or alkyne, L is a benzene ring with at least one substituent or a benzene with at least one substituent and fused to heterocyclic aromatic or non aromatic ring or a benzene with at least one substituent fused to carbocyclic ring or an aromatic heterocyclic ring with at least one substituent; wherein said ring/benzene substituents are independently selected from a group consisting of C1-C5 alkane, C1-C5 alkene, C1-C5 alkyne, C1-C5 alkane comprising a carbonyl group, a C1 -C5 alkene comprising a carbonyl group, a C1-C5 alkyne containing a carbonyl group, C1-C5 primary amine, C1-C5 secondary amine, C1-C5 tertiary amine, C1-C5 primary amide, C1-C5 secondary amide, C1-C5 tertiary amide, C1-C5 carboxylate, C1-C5 alkoxide, C1-C5 urea, C1-C5 sulphonamide, heterocyclopentadiene groups. R1, R2 and R3 are independently selected from C1-C4 alkane, alkene or alkyne, L is a benzene ring with at least one substituent or a benzene with at least one substituent and fused to heterocyclic aromatic or non aromatic ring or a benzene with at least one substituent fused to carbocyclic ring or an aromatic heterocyclic ring with at least one substituent; wherein said ring/benzene substituents are independently selected from a group consisting of C1-C5 alkane, C1-C5 alkene, C1-C5 alkyne, C1-C5 alkane comprising a carbonyl group, a C1 -C5 alkene comprising a carbonyl group, a C1-C5 alkyne containing a carbonyl group, C1-C5 primary amine, C1-C5 secondary amine, C1-C5 tertiary amine, C1-C5 primary amide, C1-C5 secondary amide, C1-C5 tertiary amide, C1-C5 carboxylate, C1-C5 alkoxide, C1-C5 urea, C1-C5 sulphonamide, heterocyclopentadiene groups.
A hinge comprising: a first and a second conductive pin element, wherein opposite ends of the first and second conductive pin elements are configured to mechanically engage an electronic device ; and an insulator between portions of the first and second conductive pin elements, wherein the end of at least the first conductive pin element is configured to be in electrical communication with radio frequency circuitry of the electronic device such that the first conductive pin element operates as a radiating element, wherein the insulator is formed of a non-conductive material, characterized in that the first and second conductive pin elements each comprise an outer conductor that defines an interior passageway that extends in a lengthwise direction and wherein at least the first conductive pin element comprises an inner conductor that extends at least partially through the interior passageway of the first conductive pin element , wherein at least the first conductive pin element further comprises a shielding within the interior passageway between the outer conductor and the inner conductor , and wherein the shielding is electrically isolated from the inner conductor of the first conductive pin element . a first and a second conductive pin element, wherein opposite ends of the first and second conductive pin elements are configured to mechanically engage an electronic device ; and an insulator between portions of the first and second conductive pin elements, wherein the end of at least the first conductive pin element is configured to be in electrical communication with radio frequency circuitry of the electronic device such that the first conductive pin element operates as a radiating element, wherein the insulator is formed of a non-conductive material, characterized in that the first and second conductive pin elements each comprise an outer conductor that defines an interior passageway that extends in a lengthwise direction and wherein at least the first conductive pin element comprises an inner conductor that extends at least partially through the interior passageway of the first conductive pin element , wherein at least the first conductive pin element further comprises a shielding within the interior passageway between the outer conductor and the inner conductor , and wherein the shielding is electrically isolated from the inner conductor of the first conductive pin element .