mhurhangee/patent-ind-claim-en huggingface dataset:
A method to control lost circulation in a lost circulation zone in a wellbore, comprising: introducing an altered drilling fluid into the wellbore such that the altered drilling fluid contacts the lost circulation zone and reduces a rate of lost circulation into the lost circulation zone, where the altered drilling fluid comprises a drilling fluid and a lost circulation material (LCM), wherein the LCM comprises: a first plurality of fibers produced from date tree trunks; a second plurality of fibers produced from at least one of date tree leaves and date tree leaf stems; and a third plurality of fibers produced from date tree panicles. a first plurality of fibers produced from date tree trunks; a second plurality of fibers produced from at least one of date tree leaves and date tree leaf stems; and a third plurality of fibers produced from date tree panicles.
A method for making a coated container device comprising the steps of: selecting a metal substrate; selecting one or more aqueous dispersions comprising; one or more base polymers, said base polymers comprising one or more polyolefins selected from the group consisting of homopolymers or copolymers of propylene; one or more stabilizing agents selected from the group consisting of ethylene acrylic acid, ethylene methacrylic acid copolymers, ethylene ethyl acrylate copolymer, ethylene methyl methacrylate, and ethylene butyl acrylate; one or more crosslinking agents; and water; applying said one or more aqueous dispersions to at least one surface of said metal substrate; removing at least a portion of the water from said one or more aqueous dispersions; thereby forming one or more crosslinked coating layers associated with said metal substrate; and forming said coated metal substrate into a coated container device. selecting a metal substrate; selecting one or more aqueous dispersions comprising; one or more base polymers, said base polymers comprising one or more polyolefins selected from the group consisting of homopolymers or copolymers of propylene; one or more stabilizing agents selected from the group consisting of ethylene acrylic acid, ethylene methacrylic acid copolymers, ethylene ethyl acrylate copolymer, ethylene methyl methacrylate, and ethylene butyl acrylate; one or more crosslinking agents; and water; one or more base polymers, said base polymers comprising one or more polyolefins selected from the group consisting of homopolymers or copolymers of propylene; one or more stabilizing agents selected from the group consisting of ethylene acrylic acid, ethylene methacrylic acid copolymers, ethylene ethyl acrylate copolymer, ethylene methyl methacrylate, and ethylene butyl acrylate; one or more crosslinking agents; and water; applying said one or more aqueous dispersions to at least one surface of said metal substrate; removing at least a portion of the water from said one or more aqueous dispersions; thereby forming one or more crosslinked coating layers associated with said metal substrate; and forming said coated metal substrate into a coated container device.
A first base station (200-1) that communicates with a user equipment that performs dual connectivity with the first base station (200-1) and a second base station (200-2), comprising: a communication unit configured to communicate with the second base station (200-2) via an interface established between the first base station (200-1) and the second base station (200-2), the communication unit configured to receive from the second base station (200-2), information indicating a subcarrier spacing applied in a cell managed by the second base station (200-2); and a transmitter configured to transmit to the user equipment , information indicating the subcarrier spacing applied in the cell managed by the second base station (200-2). a communication unit configured to communicate with the second base station (200-2) via an interface established between the first base station (200-1) and the second base station (200-2), the communication unit configured to receive from the second base station (200-2), information indicating a subcarrier spacing applied in a cell managed by the second base station (200-2); and a transmitter configured to transmit to the user equipment , information indicating the subcarrier spacing applied in the cell managed by the second base station (200-2).
Production method of skin care cream characterized in that the present invention comprises of following production steps; preparation of the coconut oil in the rate between 1 % and 4%, hippophae oil in the rate between 1 % and 5%, vaseline between 28% and 37%, liquid vaseline between 17% and 21 %, lanolin oil between 19% and 26% and finally wax in the rate between 3% and 6% before start of the production, melting the preparation under 70 centigrade degrees within a boiler, cooling the melted preparation under 50 centigrade degrees, adding zinc oxide with a percentage between 6% and 10%, DexPanthenol with a rate between 3% and 6% and boric acid in the rate between 1 % and 6% and mixing the preparation until homogeneous appearance is obtained, adding wax in the rate between 3% and 6% to the mixture, adding phloramin as an odorant in the rate between 1 % and 4% to the mixture, packaging the product. preparation of the coconut oil in the rate between 1 % and 4%, hippophae oil in the rate between 1 % and 5%, vaseline between 28% and 37%, liquid vaseline between 17% and 21 %, lanolin oil between 19% and 26% and finally wax in the rate between 3% and 6% before start of the production, melting the preparation under 70 centigrade degrees within a boiler, cooling the melted preparation under 50 centigrade degrees, adding zinc oxide with a percentage between 6% and 10%, DexPanthenol with a rate between 3% and 6% and boric acid in the rate between 1 % and 6% and mixing the preparation until homogeneous appearance is obtained, adding wax in the rate between 3% and 6% to the mixture, adding phloramin as an odorant in the rate between 1 % and 4% to the mixture, packaging the product.
A method of cell selection and reselection performed by a user equipment, UE, comprising detecting a plurality of neighboring cells related to one or more detected frequencies, and their associated respective plurality of cell capabilities while the UE, having an associated UE capability, is connected to a serving cell; determining an achievable throughput for the plurality of neighbouring cells by checking a throughput database for an achievable throughput of the plurality of neighboring cells based on the detected cell capabilities and UE capability; selecting a first neighboring cell from the plurality of neighboring cells based on the determined achievable throughput of the plurality of neighboring cells; and sending a request to connect to the first neighboring cell. detecting a plurality of neighboring cells related to one or more detected frequencies, and their associated respective plurality of cell capabilities while the UE, having an associated UE capability, is connected to a serving cell; determining an achievable throughput for the plurality of neighbouring cells by checking a throughput database for an achievable throughput of the plurality of neighboring cells based on the detected cell capabilities and UE capability; selecting a first neighboring cell from the plurality of neighboring cells based on the determined achievable throughput of the plurality of neighboring cells; and sending a request to connect to the first neighboring cell.
A tobacco industry product assembly machine comprising an apparatus for cutting and arranging rods for use in said tobacco industry product assembly machine, the apparatus comprising: a first cutting mechanism for cutting a four-length rod into first and second axially-aligned double-length rods , each double-length rod having respective remote ends; a positioning mechanism for moving at least one of the first and second double-length rods such that said first and second double-length rods are moved from a first configuration in axial-alignment, to a second configuration in which the first and second double-length rods are out of axial alignment and the axes of the first and second double-length rods are parallel and spaced apart, and the remote ends of said first and second double-length rods are substantially aligned with each other; a rod making station disposed upstream of the first cutting mechanism and configured to produce said four-length rods to be provided to the first cutting mechanism; and a second cutting mechanism downstream of the first cutting mechanism and configured for cutting said first and second double-length rods into single-length rods prior to any further components of a tobacco industry product being provided to said single-length rods. a first cutting mechanism for cutting a four-length rod into first and second axially-aligned double-length rods , each double-length rod having respective remote ends; a positioning mechanism for moving at least one of the first and second double-length rods such that said first and second double-length rods are moved from a first configuration in axial-alignment, to a second configuration in which the first and second double-length rods are out of axial alignment and the axes of the first and second double-length rods are parallel and spaced apart, and the remote ends of said first and second double-length rods are substantially aligned with each other; a rod making station disposed upstream of the first cutting mechanism and configured to produce said four-length rods to be provided to the first cutting mechanism; and a second cutting mechanism downstream of the first cutting mechanism and configured for cutting said first and second double-length rods into single-length rods prior to any further components of a tobacco industry product being provided to said single-length rods.
Thermal trip device for triggering an automatic closing of a fire damper in an air duct , wherein when a predeterminable duct air temperature limit value (θ Gi ) inside the air duct is exceeded, the fire damper can be closed by means of an actuator , wherein the thermal trip device is embodied for attachment to the air duct and is designed to interrupt a trip line of the actuator , which trip line is connected through by way of the thermal trip device , wherein the thermal trip device has an electronic control unit , a first temperature sensor connected to the control unit for continuously detecting a duct air temperature value (θ i ) inside the air duct , a second temperature sensor connected to the control unit for continuously detecting an ambient air temperature value (θ a ) outside the air duct and an electrically actuatable switching element (S) downstream of the control unit for interrupting the power supply to the actuator when the duct air temperature limit value (θ Gi ) or a predeterminable ambient air temperature limit value (θ Ga ) is exceeded, wherein the thermal trip device has a housing and a circuit carrier accommodated at least partially in the housing , wherein the first temperature sensor is arranged on a first circuit carrier portion (19-1) and the second temperature sensor is arranged on a second circuit carrier portion (19-2), and wherein when the thermal trip device is correctly attached to the air duct , the first temperature sensor is arranged inside the air duct and the second temperature sensor is arranged outside the air duct .
Association comprising at least the bacterial strain Streptococcus salivarius DSM 23307, simethicone, and/or PEG-14 dimethicone, and further comprising the bacterial strain Streptococcus oralis 89a.
A preparation comprising: a) a first analgesic agent consisting of an effective amount of ibuprofen; pharmaceutically acceptable metabolites, polymorphs, and/or salts thereof; and mixtures thereof; and b) a second analgesic agent consisting of an effective amount of acetaminophen, pharmaceutically acceptable metabolites, polymorphs, and/or salts thereof; and mixtures thereof; wherein the weight ratio of the first analgesic agent (calculated in terms of racemic ibuprofen base) to the second analgesic agent (calculated in terms of acetaminophen base) is about 12 parts : about 88 parts. a) a first analgesic agent consisting of an effective amount of ibuprofen; pharmaceutically acceptable metabolites, polymorphs, and/or salts thereof; and mixtures thereof; and b) a second analgesic agent consisting of an effective amount of acetaminophen, pharmaceutically acceptable metabolites, polymorphs, and/or salts thereof; and mixtures thereof;
An injection moldinginformation management device which manages information of a part of an injection molding machine, characterized in that the injection molding information management device is configured - to calculate a difference between result values of a physical quantity indicating a load applied to the part at an nth shot, wherein n is a natural number of 2 or more, and an mth shot wherein m is a natural number which is obtained subtracting a predetermined positive natural number from n and is 1 or more, to determine whether or not the part is abnormal, and - to calculate a difference between the result value and a reference value at the nth shot to determine whether or not the part is abnormal, in a cyclical operation in which a molding product is repeatedly manufactured under the same setting conditions, wherein said reference value is obtained by an endurance test of the part in advance - to determine that severe abnormality is not present in a case where the degree of difference between the result value and the reference value is within an allowable range, - to determine that severe abnormality is present in a case where the degree of difference between the result value and the reference value is not within the allowable range. - to calculate a difference between result values of a physical quantity indicating a load applied to the part at an nth shot, wherein n is a natural number of 2 or more, and an mth shot wherein m is a natural number which is obtained subtracting a predetermined positive natural number from n and is 1 or more, to determine whether or not the part is abnormal, and - to calculate a difference between the result value and a reference value at the nth shot to determine whether or not the part is abnormal, in a cyclical operation in which a molding product is repeatedly manufactured under the same setting conditions, wherein said reference value is obtained by an endurance test of the part in advance - to determine that severe abnormality is not present in a case where the degree of difference between the result value and the reference value is within an allowable range, - to determine that severe abnormality is present in a case where the degree of difference between the result value and the reference value is not within the allowable range.
Process for manufacturing by transfer a catalyst-coated membrane for a fuel-cell stack/electrolyser, this process comprising the following steps: - a step of depositing a catalytic active layer on a transfer substrate ; - a step of transferring the catalytic active layer from the transfer substrate to a proton exchange membrane by pressing; characterized in that the transferring step comprises a pressing operation in which the transfer substrate is pressed against the proton exchange membrane by way of an elastically deformable compression film that comprises a layer of unapertured material and a textured layer . - a step of depositing a catalytic active layer on a transfer substrate ; - a step of transferring the catalytic active layer from the transfer substrate to a proton exchange membrane by pressing; characterized in that the transferring step comprises a pressing operation in which the transfer substrate is pressed against the proton exchange membrane by way of an elastically deformable compression film that comprises a layer of unapertured material and a textured layer .
An acoustic dampening structure comprising: a first acoustic dampening device including a layer of material having first holes extending from a first side of the layer of material to a second side of the layer of material, wherein the layer of material is configured to be mounted to a platform and wherein the holes have a diameter that is substantially equal to a thickness of the layer of material ; a second acoustic dampening device including a second layer of material having second holes extending from a first side of the second layer of material to a second side of the second layer of material; and wherein the first acoustic dampening device is connected to the second acoustic dampening device by a spacer system , wherein space is present between the first acoustic dampening device and the second acoustic dampening device , and wherein the spacers take the form of rods . a first acoustic dampening device including a layer of material having first holes extending from a first side of the layer of material to a second side of the layer of material, wherein the layer of material is configured to be mounted to a platform and wherein the holes have a diameter that is substantially equal to a thickness of the layer of material ; a second acoustic dampening device including a second layer of material having second holes extending from a first side of the second layer of material to a second side of the second layer of material; and wherein the first acoustic dampening device is connected to the second acoustic dampening device by a spacer system , wherein space is present between the first acoustic dampening device and the second acoustic dampening device , and wherein the spacers take the form of rods .
Method for user authentication by a bank server, comprising: - providing a client device provided with an encryption function of variables K, t, x, in which: - K is a secret shared by the server and the client device; - t is a time-dependent variable; and - x is a variable having at least two values, - a step of first calculation (S30) by the client device of a first value of the function obtained for a first value of x, for authentication of the user by the server; - a step of providing (S40) said first value of said function to the server; - a step of authentication (S50) of the user by the server, using said first value provided; and - a step (S70, S80) of user request to the server to carry out an operation on a bank account, - a step of second calculation (S80, S110) by the client device of a second value of the function, obtained for a second value of x, for the validation of said operation by the server; - a step of providing (S110, S80) the server with at least one part of said second value of said function; - a step of validation (S130) of said operation by the server, using said at least one part of said second value of said function; and - a step of processing said operation (S140) following said validation of said operation. - providing a client device provided with an encryption function of variables K, t, x, in which: - K is a secret shared by the server and the client device; - t is a time-dependent variable; and - x is a variable having at least two values, - K is a secret shared by the server and the client device; - t is a time-dependent variable; and - x is a variable having at least two values, - a step of first calculation (S30) by the client device of a first value of the function obtained for a first value of x, for authentication of the user by the server; - a step of providing (S40) said first value of said function to the server; - a step of authentication (S50) of the user by the server, using said first value provided; and - a step (S70, S80) of user request to the server to carry out an operation on a bank account, - a step of second calculation (S80, S110) by the client device of a second value of the function, obtained for a second value of x, for the validation of said operation by the server; - a step of providing (S110, S80) the server with at least one part of said second value of said function; - a step of validation (S130) of said operation by the server, using said at least one part of said second value of said function; and - a step of processing said operation (S140) following said validation of said operation.
A display apparatus comprising a substrate and a plurality of light emitting diodes formed on the substrate, the plurality of light emitting diodes including a first light emitting diode configured to emit a red light , a second light emitting diode configured to emit a green light and a third light emitting diode configured to emit a blue light , the third light emitting diode comprising a p-type layer, an n-type layer, and a light-emitting layer disposed therebetween and having an indium-containing quantum well structure; wherein each of the p-type layer, the n-type layer, and the light-emitting layer includes a nitride-based group III-V compound semiconductor crystal having a wurtzite structure; and characterized in that the substrate has a main surface inclined at an angle of 0.3° to 1° with respect to a c-plane. the third light emitting diode comprising a p-type layer, an n-type layer, and a light-emitting layer disposed therebetween and having an indium-containing quantum well structure; wherein each of the p-type layer, the n-type layer, and the light-emitting layer includes a nitride-based group III-V compound semiconductor crystal having a wurtzite structure; and characterized in that the substrate has a main surface inclined at an angle of 0.3° to 1° with respect to a c-plane.
An aerial dispensing method, comprising: obtaining a wind velocity, the wind causing a drift to a substance dispensed from an unmanned aerial vehicle , UAV; controlling one or more components of the UAV based on the obtained wind velocity to cause at least mitigation to the drift, wherein controlling the one or more components of the UAV comprises controlling a UAV propulsion system to cause a movement of the UAV ; and wherein the aerial dispensing method is characterized in that the movement at least partially counters the obtained wind velocity. obtaining a wind velocity, the wind causing a drift to a substance dispensed from an unmanned aerial vehicle , UAV; controlling one or more components of the UAV based on the obtained wind velocity to cause at least mitigation to the drift, wherein controlling the one or more components of the UAV comprises controlling a UAV propulsion system to cause a movement of the UAV ; and wherein the aerial dispensing method is characterized in that the movement at least partially counters the obtained wind velocity.
Drive chain , in particular a conveyor chain for industrial plants, having a plurality of chain links which are each connected to one another via a chain joint , wherein, to form the chain joint , a chain pin extends in the direction of a joint axis (A) of the chain joint through a joint opening , and wherein at least one chain pin has a recess in which a sensor for detecting chain wear is arranged, the recess being in the form of a blind hole extending transversely to the joint axis (A), characterized in that the chain pin has a hardened surface layer in the region of the joint opening , and the bottom of the transversely extending blind hole bore is arranged in the hardened surface layer , the sensor being arranged at least partially in the hardened surface layer and abutting against the bottom of the blind hole bore.