mhurhangee/patent-ind-claim-en huggingface dataset:
Removable handle intended to engage with a cooking vessel having a side wall which is extended upwards by a portion curved upwards comprising a free end , said removable handle extending in a longitudinal direction and comprising an internal support member and an external support member intended to come against, respectively, an inner surface and an outer surface of the side wall , as well as an upper support member intended to come against the free end of the curved portion , said removable handle comprising a lock which is mobile in translation between an open position and a closed position, the lock comprising a blocking wall intended to be extended from the internal support member in the open position of the lock and intended to generate a force on the free end in the closed position of the lock , under the action of a pressurising means , said removable handle comprising a gripping body which extends in the longitudinal direction and a structural part which comprises the internal support member and the upper support member , characterised in that the structural part and the lock form a subassembly and in that the gripping body comprises a housing for receiving the subassembly, the housing comprising an introduction orifice arranged in a front face of the gripping body and sized to enable the assembly of the subassembly in the gripping body by insertion along the longitudinal direction .
A method of producing an electrically responsive composite material configurable for application in a transducer, comprising the steps of: receiving a flowable polymer liquid ; introducing electrically conductive acicular particles to said flowable polymer liquid so as to facilitate the conduction of electricity by quantum tunnelling; and adding spherical dielectric particles to said flowable polymer liquid; and mixing said acicular particles and said dielectric particles within said flowable polymer liquid, wherein said acicular particles have a large dimension and a small dimension, said small dimension and the size of said dielectric particles being between 10 nanometres and 300 nanometres, and wherein said dielectric particles are formed of a material that is different to the material of the acicular particles and a plurality of said dielectric particles are dispersed between and separately from adjacent said acicular particles during said step of mixing. receiving a flowable polymer liquid ; introducing electrically conductive acicular particles to said flowable polymer liquid so as to facilitate the conduction of electricity by quantum tunnelling; and adding spherical dielectric particles to said flowable polymer liquid; and mixing said acicular particles and said dielectric particles within said flowable polymer liquid, wherein said acicular particles have a large dimension and a small dimension, said small dimension and the size of said dielectric particles being between 10 nanometres and 300 nanometres, and wherein said dielectric particles are formed of a material that is different to the material of the acicular particles and a plurality of said dielectric particles are dispersed between and separately from adjacent said acicular particles during said step of mixing.
An ophthalmic composition comprising: an aqueous carrier component; and an effective amount of a tonicity component comprising erythritol components and mixtures thereof and at least one other solute agent selected from the group consisting of carnitine components, glycerol components, xylitol components, inositol components, mannitol components, sorbitol components, taurine components, betaine components, and mixtures thereof. an aqueous carrier component; and an effective amount of a tonicity component comprising erythritol components and mixtures thereof and at least one other solute agent selected from the group consisting of carnitine components, glycerol components, xylitol components, inositol components, mannitol components, sorbitol components, taurine components, betaine components, and mixtures thereof.
A device for sensing a magnetic field, comprising a closed superconducting loop configured to collect a magnetic field to be sensed, hereinafter external magnetic field, said closed superconducting loop having a path width (w p ) and being provided with a constriction having a width (w c ) narrower than said path width, said constriction producing a non-uniform magnetic field on its surroundings, hereinafter internal magnetic field, in response to said external magnetic field, characterised in that it further comprises a vibrating mechanical oscillator coupled to, or formed by said constriction and responsive to the internal magnetic field, and a detector configured to detect deflection or vibration of said vibrating mechanical oscillator and providing a signal indicative of said deflection or vibration. a closed superconducting loop configured to collect a magnetic field to be sensed, hereinafter external magnetic field, said closed superconducting loop having a path width (w p ) and being provided with a constriction having a width (w c ) narrower than said path width, said constriction producing a non-uniform magnetic field on its surroundings, hereinafter internal magnetic field, in response to said external magnetic field, characterised in that it further comprises a vibrating mechanical oscillator coupled to, or formed by said constriction and responsive to the internal magnetic field, and a detector configured to detect deflection or vibration of said vibrating mechanical oscillator and providing a signal indicative of said deflection or vibration.
A child stroller frame comprising: a first frame portion including a handle frame segment , a front leg segment , and a coupling part that pivotally connects the handle frame segment with the front leg segment ; a second frame portion pivotally connected with any of the handle frame segment , the front leg segment and the coupling part ; a pivoting part having one end fixedly connected with a rear wheel support member and another end pivotally connected with the second frame portion ; and a linkage movably coupling the first frame portion to the pivoting part , the linkage having a first end that is pivotally connected with any of the handle frame segment , the front leg segment and the coupling part , a second end that is pivotally connected with the pivoting part , and an intermediate portion between the first end and the second end that is pivotally connected with the second frame portion , whereby the first frame portion and the rear wheel support member are movably linked for folding in a concurrent manner toward the second frame portion . a first frame portion including a handle frame segment , a front leg segment , and a coupling part that pivotally connects the handle frame segment with the front leg segment ; a second frame portion pivotally connected with any of the handle frame segment , the front leg segment and the coupling part ; a pivoting part having one end fixedly connected with a rear wheel support member and another end pivotally connected with the second frame portion ; and a linkage movably coupling the first frame portion to the pivoting part , the linkage having a first end that is pivotally connected with any of the handle frame segment , the front leg segment and the coupling part , a second end that is pivotally connected with the pivoting part , and an intermediate portion between the first end and the second end that is pivotally connected with the second frame portion , whereby the first frame portion and the rear wheel support member are movably linked for folding in a concurrent manner toward the second frame portion .
A multiple-input multiple-output transmission method, wherein the method comprises: performing, by a first user equipment, cellular uplink communication with a base station; and performing, by the first user equipment, device-to-device communication with at least one second user equipment in a user equipment self-organized manner, wherein the same time-frequency resource is used in the cellular uplink communication and the device-to-device communication; wherein the transmission method further comprises: using, by the first user equipment, a first precoding matrix to perform precoding processing on data transmitted in the cellular uplink communication, so as to make interference of the cellular uplink communication to the device-to-device communication lower than a first specified threshold; and using, by the first user equipment, a second precoding matrix to perform precoding processing on data transmitted in the device-to-device communication, so as to make interference of the device-to-device communication to the cellular uplink communication lower than a second specified threshold; wherein the first and second precoding matrices are selected by the first user equipment. performing, by a first user equipment, cellular uplink communication with a base station; and performing, by the first user equipment, device-to-device communication with at least one second user equipment in a user equipment self-organized manner, wherein the same time-frequency resource is used in the cellular uplink communication and the device-to-device communication; wherein the transmission method further comprises: using, by the first user equipment, a first precoding matrix to perform precoding processing on data transmitted in the cellular uplink communication, so as to make interference of the cellular uplink communication to the device-to-device communication lower than a first specified threshold; and using, by the first user equipment, a second precoding matrix to perform precoding processing on data transmitted in the device-to-device communication, so as to make interference of the device-to-device communication to the cellular uplink communication lower than a second specified threshold; wherein the first and second precoding matrices are selected by the first user equipment.
Assembly comprising a plastics substrate or a carbon substrate and a coating material, there being disposed between the plastics substrate and the coating material an amino acid-containing interlayer, characterized in that the amino acid-containing interlayer possesses a thickness of 1-10 nm and in that the interlayer comprises copper.
An inflatable calf garment for application to a patient, the calf garment having a tubular or part tubular shape in use with a longitudinal dimension, the calf garment including an inflation device provided with first and second inflatable chambers disposed side by side and separated from one another by a first separation wall, which first separation wall is curved so as to lie in different longitudinal positions around the tubular form of the garment, whereby a proximal chamber is disposed side by side with the second chamber , the second and proximal chambers being separated from one another by a second separation wall which second separation wall is curved so as to lie in different longitudinal positions around the tubular form of the garment , whereby the first separation wall and the second separation wall have different curvature in the longitudinal direction, including a choke connecting adjacent chambers to one another, the or each choke having predetermined dimensions, characterised in that the proximal chamber comprises a proximal edge arranged opposite the second separation wall, which proximal edge has a curved profile being inverted compared to the curvature of the opposite arranged second separation wall. whereby a proximal chamber is disposed side by side with the second chamber , the second and proximal chambers being separated from one another by a second separation wall which second separation wall is curved so as to lie in different longitudinal positions around the tubular form of the garment , whereby the first separation wall and the second separation wall have different curvature in the longitudinal direction, including a choke connecting adjacent chambers to one another, the or each choke having predetermined dimensions, characterised in that the proximal chamber comprises a proximal edge arranged opposite the second separation wall, which proximal edge has a curved profile being inverted compared to the curvature of the opposite arranged second separation wall.
An end marker sending method, comprising: receiving , by a control plane, CP, node, a session update response, wherein the session update response comprises an identifier, ID, of a source user plane path of user equipment, UE, and the source user plane path comprises a user plane gateway, UP GW; and sending , by the CP node, trigger information and the ID of the source user plane path to the UP GW based on the session update response, wherein the trigger information is used for the UP GW sending an end marker to an access network, AN, node on the source user plane path, wherein the trigger information comprises a timer parameter. receiving , by a control plane, CP, node, a session update response, wherein the session update response comprises an identifier, ID, of a source user plane path of user equipment, UE, and the source user plane path comprises a user plane gateway, UP GW; and sending , by the CP node, trigger information and the ID of the source user plane path to the UP GW based on the session update response, wherein the trigger information is used for the UP GW sending an end marker to an access network, AN, node on the source user plane path, wherein the trigger information comprises a timer parameter.
An axle assembly comprising: a differential carrier ; a rotor that is rotatable about an axis with respect to the differential carrier ; a first rotor bearing assembly and a second rotor bearing assembly that are disposed on the differential carrier and rotatably support the rotor ; and a rotor bearing preload module characterized in that the rotor bearing preload module is disposed between the first rotor bearing assembly and the second rotor bearing assembly , wherein the rotor bearing preload module includes a first bearing preload ring that extends from the first rotor bearing assembly , a second bearing preload ring that extends from the second rotor bearing assembly , and a biasing member that is disposed between the first bearing preload ring and the second bearing preload ring and biases the first rotor bearing assembly away from the second rotor bearing assembly , wherein the first bearing preload ring engages an inner race of the first rotor bearing assembly and is spaced apart from an outer race of the first rotor bearing assembly and the second bearing preload ring engages an inner race of the second rotor bearing assembly and is spaced apart from an outer race of the second rotor bearing assembly . a differential carrier ; a rotor that is rotatable about an axis with respect to the differential carrier ; a first rotor bearing assembly and a second rotor bearing assembly that are disposed on the differential carrier and rotatably support the rotor ; and a rotor bearing preload module characterized in that the rotor bearing preload module is disposed between the first rotor bearing assembly and the second rotor bearing assembly , wherein the rotor bearing preload module includes a first bearing preload ring that extends from the first rotor bearing assembly , a second bearing preload ring that extends from the second rotor bearing assembly , and a biasing member that is disposed between the first bearing preload ring and the second bearing preload ring and biases the first rotor bearing assembly away from the second rotor bearing assembly , wherein the first bearing preload ring engages an inner race of the first rotor bearing assembly and is spaced apart from an outer race of the first rotor bearing assembly and the second bearing preload ring engages an inner race of the second rotor bearing assembly and is spaced apart from an outer race of the second rotor bearing assembly .
A method for operating a blast furnace, comprising forming a coke layer and an ore layer in a blast furnace, wherein: the coke layer is formed of conventional coke ; and the ore layer is formed of carbon iron composite , conventional coke, and ore; characterized in that the mixing percentage of the conventional coke in the ore layer with respect to the ore is 0.5 to 6 mass%, and a total of the conventional coke and the carbon iron composite in the ore layer has a total mixing percentage of 1.5 to 20 mass% with respect to the ore. the coke layer is formed of conventional coke ; and the ore layer is formed of carbon iron composite , conventional coke, and ore; characterized in that the mixing percentage of the conventional coke in the ore layer with respect to the ore is 0.5 to 6 mass%, and a total of the conventional coke and the carbon iron composite in the ore layer has a total mixing percentage of 1.5 to 20 mass% with respect to the ore.
A drum consisting of at least a first and a second joined drum segment adapted to form part of a shaft of a brush roller, a nut and a screw , said first and second joined drum segments and the nut and the screw together forming a mounting arrangement, which includes an internal circumferentially directed shoulder being a part of the second joined drum segment and an external circumferentially directed shoulder being a part of the first joined drum segment , said two shoulders being provided with cooperating contact surfaces mainly positioned in a circumferential or tangential direction with respect to a complete drum , the external shoulder being provided with a radial directed through hole intended to involve the screw also going through the internal shoulder and the threaded end of which being directed towards the geometrical rotation axis of the drum, whereby the screw extends through the internal circumferentially directed shoulder as well and whereby the internal circumferentially directed shoulder is provided with a recess having a bottom and an opening facing the geometrical rotation axis and that the recess is designed with plain inner side surfaces facing each other and being parallel and axial with respect to the drum, and whereby that the recess is equipped with projections tangentially and circumferentially originating from each one of said side surfaces and pointing to each other and that the nut of said screw is axially displaceable but rotation locked and located in the recess .
A compound of the formula : or a salt thereof, wherein n is 1 or 2; p is 1; Q is an imidazole ring, a pyrazole ring or a pyrrolidine ring; R 1 is selected from hydrogen; fluorine; chlorine; bromine; oxo; CONR 5 R 6 ; a C 1-6 non-aromatic hydrocarbon group which is optionally substituted with one to six fluorine atoms; and an optionally substituted 5- or 6-membered ring containing 0, 1, 2 or 3 heteroatoms selected from O, N and S and oxidized forms thereof; R 2 is selected from hydrogen; fluorine; chlorine; bromine; and a C 1-6 non-aromatic hydrocarbon group; R 9 is selected from hydrogen, CH 3 and CH 2 OH; R 3 is hydrogen; R 4 is hydrogen or a C 1-6 non-aromatic hydrocarbon group which is optionally substituted with one to six fluorine atoms; R 5 and R 6 are the same or different and each is independently selected from hydrogen and a non-aromatic C 1-4 hydrocarbon group optionally substituted with one or more fluorine atoms; and the dotted line is absent, indicating a single bond. n is 1 or 2; p is 1; Q is an imidazole ring, a pyrazole ring or a pyrrolidine ring; R 1 is selected from hydrogen; fluorine; chlorine; bromine; oxo; CONR 5 R 6 ; a C 1-6 non-aromatic hydrocarbon group which is optionally substituted with one to six fluorine atoms; and an optionally substituted 5- or 6-membered ring containing 0, 1, 2 or 3 heteroatoms selected from O, N and S and oxidized forms thereof; R 2 is selected from hydrogen; fluorine; chlorine; bromine; and a C 1-6 non-aromatic hydrocarbon group; R 9 is selected from hydrogen, CH 3 and CH 2 OH; R 3 is hydrogen; R 4 is hydrogen or a C 1-6 non-aromatic hydrocarbon group which is optionally substituted with one to six fluorine atoms; R 5 and R 6 are the same or different and each is independently selected from hydrogen and a non-aromatic C 1-4 hydrocarbon group optionally substituted with one or more fluorine atoms; and the dotted line is absent, indicating a single bond.
A method for manufacturing a steel strip for a blade that includes, in percent by mass, 0.55 to 0.80% C, 1.0% or less Si, 1.0% or less Mn, and 12.0 to 14.0% Cr with the remainder being Fe and inevitable impurities, the method characterised by comprising: a batch annealing step for annealing a material for cold rolling having the aforementioned composition in a batch annealing furnace; and a cold rolling step for forming a steel strip by performing cold rolling one or more times on the material for cold rolling that has been batch annealed, wherein the batch annealing step includes a first uniform temperature step for maintaining heating for 1 to 12 hours at an internal furnace temperature exceeding 450°C and less than 770°C and a second uniform temperature step, carried out after the first uniform temperature step, for maintaining heating for 1 to 16 hours at an internal furnace temperature exceeding 770°C and less than 900°C, and a gradual cooling step of gradually cooling the material that has been batch annealed is further comprised between the batch annealing step and the cold rolling step, wherein in the gradual cooling step, a material temperature reaches 600 to 800°C and a temperature that is lower than the internal furnace temperature in the second uniform temperature step. a batch annealing step for annealing a material for cold rolling having the aforementioned composition in a batch annealing furnace; and a cold rolling step for forming a steel strip by performing cold rolling one or more times on the material for cold rolling that has been batch annealed, wherein the batch annealing step includes a first uniform temperature step for maintaining heating for 1 to 12 hours at an internal furnace temperature exceeding 450°C and less than 770°C and a second uniform temperature step, carried out after the first uniform temperature step, for maintaining heating for 1 to 16 hours at an internal furnace temperature exceeding 770°C and less than 900°C, and a gradual cooling step of gradually cooling the material that has been batch annealed is further comprised between the batch annealing step and the cold rolling step, wherein in the gradual cooling step, a material temperature reaches 600 to 800°C and a temperature that is lower than the internal furnace temperature in the second uniform temperature step.