mhurhangee/patent-ind-claim-en huggingface dataset:
Portable power tool, in particular hammer drill and/or percussion hammer, having at least one transmission device (12a; 12b) and having at least two outer components (14a; 14b; 16a; 16b), between which the transmission device (12a; 12b) is arranged, wherein one component is in the form of a housing cover (28a; 28b) and a further component is in the form of a motor housing (30a; 30b), wherein the portable power tool has at least three connecting elements (18a; 18b; 20a; 20b; 22a; 22b; 24a; 24b), which are provided to transmit preload forces (26a; 26b) between the outer components (14a; 14b; 16a; 16b), said preload forces (26a; 26b) clamping the transmission device (12a; 12b) in place between the outer components (14a; 14b; 16a; 16b), characterized in that the transmission device (12a; 12b) is fixed to the motor housing (30a; 30b) and closed by the housing cover (28a; 28b), wherein each connecting element has a screw head that bears directly on a head support of the housing cover (28a; 28b), wherein the housing cover (28a; 28b) is made of a metal and the motor housing (30a; 30b) is made of a plastic.
Circuit for refrigerant (FR) for a vehicle, the circuit comprising a main duct , a first branch and a second branch , the first branch and the second branch being arranged in parallel with respect to one another, being each arranged in series with the main duct , the main duct comprising at least a first thermal exchanger configured to be traversed by an exterior air flow (FE) to a cabin of the vehicle, the first branch comprising at least a first expansion member , a first heat exchanger configured to thermally treat at least one element of an electric powertrain of the vehicle and a first compression device , the second branch comprising at least a second expansion member , a second thermal exchanger configured to thermally treat an interior air flow (FA) intended to be sent into the cabin of the vehicle and a second compression device independent of the first compression device , characterized in that the circuit comprises a second heat exchanger configured to thermally treat the element of the electric powertrain of the vehicle, the second heat exchanger being arranged in parallel with the second thermal exchanger .
A cooling device comprising a fresh food compartment ; a freezing compartment , a partition which separates the freezing compartment from the fresh food compartment ; an evaporator which is disposed behind the freezing compartment ; and an air guiding member which is placed onto the partition surface adjacent to the freezing compartment so as to form the base of the freezing compartment and which guides the air leaving the evaporator towards the front side of the freezing compartment , characterized by one or more than one locking housing arranged on the partition surface adjacent to the freezing compartment so as to protrude into the partition ; and one or more than one locking member fixed to the locking housing in both vertical and horizontal axes.
A method of enhancing crops in increasing tolerance and/or resistance to abiotic stress factors, by applying to the plants, plant parts, plant propagation material, or a plant growing locus, a compound of formula I
Reusable swim diaper in the form of a brief with an elastic termination in the waist and/or leg region, comprising: a) an external layer, where the external layer has been constructed from an elastic knitted fabric or a woven fabric; b) an internal layer, where the internal layer has been constructed from a knitted fabric or a woven fabric made of natural and/or synthetic fibre materials; c) where the internal layer is a water-vapour-permeable and water-absorbent internal layer composed of a formed-loop knit or a textile construct; d) where the reusable swim diaper consists of an intermediate-layer-free internal structure, e) and where the liquid encountering the internal side of the diaper is transported to another component of the material of the internal layer, which serves as moisture storage system. a) an external layer, where the external layer has been constructed from an elastic knitted fabric or a woven fabric; b) an internal layer, where the internal layer has been constructed from a knitted fabric or a woven fabric made of natural and/or synthetic fibre materials; c) where the internal layer is a water-vapour-permeable and water-absorbent internal layer composed of a formed-loop knit or a textile construct; d) where the reusable swim diaper consists of an intermediate-layer-free internal structure, e) and where the liquid encountering the internal side of the diaper is transported to another component of the material of the internal layer, which serves as moisture storage system.
Mulching apparatus for working crop stubble in a field, wherein: the mulching apparatus comprises a mounting which is connected to a shaft and can be set in rotation by the shaft , and two or more tools for working the crop stubble, which are attached to the mounting so as to be symmetrical to the shaft ; and the tools are mounted by pendulum mounts so as to oscillate freely on the mounting , having pendulum axes that run parallel to the rotation axis of the shaft , have a fastening region which is coupled to a mounting so as to oscillate about a rotation axis and through which, at half its height measured along the rotation axis , runs an imaginary symmetry plane which is oriented orthogonally to the rotation axis , and comprise a working element which is shaped to be asymmetrical in relation to the plane of symmetry and has a blunt face which during operation extends in the rotating direction and is configured to shred the crop stubble in a field, characterized in that the tool is shaped in such a manner that its centre of gravity is in the plane of symmetry . the mulching apparatus comprises a mounting which is connected to a shaft and can be set in rotation by the shaft , and two or more tools for working the crop stubble, which are attached to the mounting so as to be symmetrical to the shaft ; and the tools are mounted by pendulum mounts so as to oscillate freely on the mounting , having pendulum axes that run parallel to the rotation axis of the shaft , have a fastening region which is coupled to a mounting so as to oscillate about a rotation axis and through which, at half its height measured along the rotation axis , runs an imaginary symmetry plane which is oriented orthogonally to the rotation axis , and comprise a working element which is shaped to be asymmetrical in relation to the plane of symmetry and has a blunt face which during operation extends in the rotating direction and is configured to shred the crop stubble in a field, characterized in that the tool is shaped in such a manner that its centre of gravity is in the plane of symmetry .
A method for monitoring and controlling a machine-to-machine, M2M, terminal device based on a policy, comprising: obtaining , by an M2M platform, a state monitoring and control policy, storing , by the M2M platform, a state control policy of the state monitoring and control policy, and sending, by the M2M platform, a state monitoring policy included in the state monitoring and control policy to the M2M terminal device; receiving , by the M2M platform, a state parameter of the M2M terminal device, wherein the state parameter is monitored and reported by the M2M terminal device, and in response to receiving the reported state parameter, triggering , by the M2M platform, a state control operation according to the state parameter and the state control policy , wherein the state monitoring policy comprises: a condition value needed to be satisfied by the M2M terminal device executing collection and reporting operations of the state parameter, and an identifier of the state parameter corresponding to the condition value; and the state control policy comprises: a judgment logic of triggering the state control operation by the M2M platform based on the state parameter reported by the M2M terminal device. obtaining , by an M2M platform, a state monitoring and control policy, storing , by the M2M platform, a state control policy of the state monitoring and control policy, and sending, by the M2M platform, a state monitoring policy included in the state monitoring and control policy to the M2M terminal device; receiving , by the M2M platform, a state parameter of the M2M terminal device, wherein the state parameter is monitored and reported by the M2M terminal device, and in response to receiving the reported state parameter, triggering , by the M2M platform, a state control operation according to the state parameter and the state control policy , wherein the state monitoring policy comprises: a condition value needed to be satisfied by the M2M terminal device executing collection and reporting operations of the state parameter, and an identifier of the state parameter corresponding to the condition value; and the state control policy comprises: a judgment logic of triggering the state control operation by the M2M platform based on the state parameter reported by the M2M terminal device.
Load transport vehicle which is designed to receive and transport an interchangeable container , comprising: - a handling device for the interchangeable container , which is designed to load the interchangeable container onto the load transport vehicle and to remove said interchangeable container from the load transport vehicle; - a hydraulic system comprising at least two independently controllable hydraulic cylinders for actuating the handling device ; - a control unit which is designed to control the hydraulic system and/or further components of the load transport vehicle on the basis of at least one predetermined sequence program such that the handling device passes through a predetermined tractrix in order to load or remove the interchangeable container ; characterised in that said load transport vehicle further comprises at least one sensor unit (S1, S2, S3) which is designed to supply data to the control unit which data represent at least one current operating parameter of the load transport vehicle or a parameter of the surroundings of the load transport vehicle, the control unit being further designed to adapt the at least one predetermined sequence program on the basis of the data supplied by the at least one sensor unit (S1, S2, S3) while the sequence program is being carried out, the sensor unit (S1, S2) or at least one of the plurality of sensor units (S1, S2) being assigned to the hydraulic system, characterised in that at least the sensor unit (S1, S2) or the at least one of the plurality of sensor units (S1, S2) is assigned to one of the hydraulic cylinders and is designed to detect the current stroke path of said hydraulic cylinder, for example by means of electromechanical means or ultrasound. - a handling device for the interchangeable container , which is designed to load the interchangeable container onto the load transport vehicle and to remove said interchangeable container from the load transport vehicle; - a hydraulic system comprising at least two independently controllable hydraulic cylinders for actuating the handling device ; - a control unit which is designed to control the hydraulic system and/or further components of the load transport vehicle on the basis of at least one predetermined sequence program such that the handling device passes through a predetermined tractrix in order to load or remove the interchangeable container ;
Use of a biocatalyst solvent for dissolving and storing a biocatalyst while retaining the biocatalytic activity of the biocatalyst in solution, the biocatalyst solvent consisting of an ionic liquid including an ammonium cation represented by the following Formula (I) and an anion: N + [R a ] n [R b ] 4-n (I) wherein R a represents a 1-hydroxyethyl group; R b represents a hydrogen atom; and n represents an integer of 3, or R a each independently represents a linear hydroxyalkyl group having 2 to 6 hydroxyl groups and 3 to 8 carbon atoms; R b each independently represents a hydrogen atom; and n represents an integer from 1 to 3, wherein the anion of the ionic liquid is at least one selected from the group consisting of a carboxylate anion, a sulfur-based anion and a phosphate anion, and wherein the sulfur-based anion is selected the group consisting of sulfate anion, hydrogen sulfate anion, an alkylsulfonate anion and an alkylsulfate anion. wherein R a represents a 1-hydroxyethyl group; R b represents a hydrogen atom; and n represents an integer of 3, or R a each independently represents a linear hydroxyalkyl group having 2 to 6 hydroxyl groups and 3 to 8 carbon atoms; R b each independently represents a hydrogen atom; and n represents an integer from 1 to 3, wherein the anion of the ionic liquid is at least one selected from the group consisting of a carboxylate anion, a sulfur-based anion and a phosphate anion, and wherein the sulfur-based anion is selected the group consisting of sulfate anion, hydrogen sulfate anion, an alkylsulfonate anion and an alkylsulfate anion.
A compound for use in a method of treating a hematological cancer refractory to erythropoiesis stimulating agent (ESA) wherein the compound is of Formula 1 where R 1 is selected from the group consisting of -NH 2 , -NH-CH 2 -COOH, -NH-CH(CH 3 )-COOH, -NH-C(CH 3 ) 2 -COOH, -NH-CH 2 -CH 2 -OH and -N-(CH 2 CH 2 OH) 2 or a pharmaceutically acceptable salt of such a compound, and wherein the administration of the compound of Formula 1 is prior to, concomitant with and/or subsequent to the administration of an ESA.
A method for heating a preform , the method comprising the steps of: providing a plurality of preforms suitable for blow molding; heating each preform ; and measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed prior to the heating step; further heating each preform ; further measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference to generate a temperature profile; comparing the temperature profile from the further measuring step to a standard temperature profile of each of the plurality of preforms ; and blow molding any preform that has an acceptable temperature profile based on the comparing step. providing a plurality of preforms suitable for blow molding; heating each preform ; and measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed prior to the heating step; further heating each preform ; further measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference to generate a temperature profile; comparing the temperature profile from the further measuring step to a standard temperature profile of each of the plurality of preforms ; and blow molding any preform that has an acceptable temperature profile based on the comparing step. inspecting each preform to identify at least a material from which the preform is formed prior to the heating step; further heating each preform ; further measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference to generate a temperature profile; comparing the temperature profile from the further measuring step to a standard temperature profile of each of the plurality of preforms ; and blow molding any preform that has an acceptable temperature profile based on the comparing step.
A method to be performed by a user device, comprising: receiving , by the user device, from at least one base station, at least two Channel State Information, CSI, reporting configurations for at least one of periodic and semi-persistent CSI reporting; determining that at least two CSI reports are to be reported for the at least two CSI reporting configurations in a slot; determining whether Physical Uplink Control Channel, PUCCH, resources for the at least two CSI reporting configurations are overlapping in time on a carrier; and ranking the at least two CSI reports associated with the at least two CSI reporting configurations in a priority order in response to a determination that at least two PUCCH resources associated with the at least two CSI reporting configurations overlap in time at least partially, determining at least two multi-CSI reporting configurations with non-overlapping PUCCH resources in the slot, received by the user device, that are valid for the slot and making a decision to report at least one of the at least two CSI reports based on a number of valid multi-CSI reporting configurations, wherein each of the at least two multi-CSI reporting configurations valid for the slot comprises at least a PUCCH format. receiving , by the user device, from at least one base station, at least two Channel State Information, CSI, reporting configurations for at least one of periodic and semi-persistent CSI reporting; determining that at least two CSI reports are to be reported for the at least two CSI reporting configurations in a slot; determining whether Physical Uplink Control Channel, PUCCH, resources for the at least two CSI reporting configurations are overlapping in time on a carrier; and ranking the at least two CSI reports associated with the at least two CSI reporting configurations in a priority order in response to a determination that at least two PUCCH resources associated with the at least two CSI reporting configurations overlap in time at least partially, determining at least two multi-CSI reporting configurations with non-overlapping PUCCH resources in the slot, received by the user device, that are valid for the slot and making a decision to report at least one of the at least two CSI reports based on a number of valid multi-CSI reporting configurations, wherein each of the at least two multi-CSI reporting configurations valid for the slot comprises at least a PUCCH format.
A picture decoding device that is configured to decode a bitstream in which differential information between a picture that is a decoding target and a picture that is a prediction target is partitioned into a plurality of sub blocks, and the partitioned sub blocks are coded in a predetermined sequence, the picture decoding device comprising: a significant sub block information decoder that decodes significant sub block information that represents whether or not all the values of differential coefficients belonging to the sub block are zero; a significant differential coefficient information decoder that is configured to decode significant differential coefficient information that represents whether or not the value of the differential coefficient is zero; a differential coefficient value decoder that is configured to decode the value of the differential coefficient; and a context deriver that is configured to derive a context index having a value from 0 to 2 used for decoding the significant differential coefficient information of a target differential coefficient that is a decoding target based on a neighboring significant index and position of the target differential coefficient in the target sub block, wherein the neighboring significant index is a sum of the significant sub block information of a decoded sub block adjacent to the right side of a target sub block and the significant sub block information multiplied by 2 of a decoded sub block adjacent to the lower side of the target sub block. a significant sub block information decoder that decodes significant sub block information that represents whether or not all the values of differential coefficients belonging to the sub block are zero; a significant differential coefficient information decoder that is configured to decode significant differential coefficient information that represents whether or not the value of the differential coefficient is zero; a differential coefficient value decoder that is configured to decode the value of the differential coefficient; and a context deriver that is configured to derive a context index having a value from 0 to 2 used for decoding the significant differential coefficient information of a target differential coefficient that is a decoding target based on a neighboring significant index and position of the target differential coefficient in the target sub block, wherein the neighboring significant index is a sum of the significant sub block information of a decoded sub block adjacent to the right side of a target sub block and the significant sub block information multiplied by 2 of a decoded sub block adjacent to the lower side of the target sub block.
A method comprising: decoding a single round encryption instruction to perform an advanced encryption standard, AES, single round encryption operation, wherein the single round encryption instruction is from an AES instruction set that includes separate AES instructions for performing an encryption round, a decryption round, an encryption last round, a decryption last round and for computing an encryption round key or a decryption round key, each AES round instruction having a unique opcode, wherein the single round encryption instruction specifies a destination register to store input data and a source register to store a round key, wherein the destination register is a 128-bit register and the source register is a 128-bit register, and wherein the input data is a 128-bit value and the round key is a 128-bit value; and executing the decoded single round encryption instruction, wherein an execution unit is to receive the input data and the round key, and wherein the execution unit is to perform the AES single round encryption operation on the input data using the round key and to store result data in the destination register. decoding a single round encryption instruction to perform an advanced encryption standard, AES, single round encryption operation, wherein the single round encryption instruction is from an AES instruction set that includes separate AES instructions for performing an encryption round, a decryption round, an encryption last round, a decryption last round and for computing an encryption round key or a decryption round key, each AES round instruction having a unique opcode, wherein the single round encryption instruction specifies a destination register to store input data and a source register to store a round key, wherein the destination register is a 128-bit register and the source register is a 128-bit register, and wherein the input data is a 128-bit value and the round key is a 128-bit value; and executing the decoded single round encryption instruction, wherein an execution unit is to receive the input data and the round key, and wherein the execution unit is to perform the AES single round encryption operation on the input data using the round key and to store result data in the destination register.