mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent article having a vertical direction and a lateral direction, the absorbent article comprising: an absorbent main body including an absorbent body , the absorbent main body having a longitudinal direction that conforms to the vertical direction; and waist-circumference sections in a pair respectively located on one end side and another end side in the longitudinal direction of the absorbent main body , the waist-circumference sections including an elastic member stretchable in the lateral direction, the absorbent main body including extension sections in a pair respectively extending outward on two lateral sides of the absorbent body , the extension sections each having an elastic member stretchable in the vertical direction placed therein, the extension sections being formed extending laterally outward from a position on a non-skin side of the absorbent body using a continuous sheet that is continuous in the lateral direction, a lateral welded region having a predetermined length in the lateral direction being placed in a portion where each of the extension sections forms a leg opening (LH), vertical welded regions extending along the vertical direction being respectively placed in the extension sections at positions laterally inside of the lateral welded region . an absorbent main body including an absorbent body , the absorbent main body having a longitudinal direction that conforms to the vertical direction; and waist-circumference sections in a pair respectively located on one end side and another end side in the longitudinal direction of the absorbent main body , the waist-circumference sections including an elastic member stretchable in the lateral direction, the absorbent main body including extension sections in a pair respectively extending outward on two lateral sides of the absorbent body , the extension sections each having an elastic member stretchable in the vertical direction placed therein, the extension sections being formed extending laterally outward from a position on a non-skin side of the absorbent body using a continuous sheet that is continuous in the lateral direction, a lateral welded region having a predetermined length in the lateral direction being placed in a portion where each of the extension sections forms a leg opening (LH), vertical welded regions extending along the vertical direction being respectively placed in the extension sections at positions laterally inside of the lateral welded region .
A component supply device , comprising: a component support section including a stage configured to support multiple components in a scattered state; an imaging device configured to image a component supported on the stage ; and a component holding tool configured to hold the component supported on the stage , based on the image data imaged by the imaging device ; the component supply device being characterized by comprising multiple types of stages , each of which being configured to be removably attached to the component support section and to support multiple components in a scattered state; wherein a given stage out of the multiple types of the stages is removably attached to the component support section , and the multiple types of the stages have a supporting surface configured to support the component , the supporting surface of each of the multiple stages being a different color or shape. a component support section including a stage configured to support multiple components in a scattered state; an imaging device configured to image a component supported on the stage ; and a component holding tool configured to hold the component supported on the stage , based on the image data imaged by the imaging device ; the component supply device being characterized by comprising multiple types of stages , each of which being configured to be removably attached to the component support section and to support multiple components in a scattered state; wherein a given stage out of the multiple types of the stages is removably attached to the component support section , and the multiple types of the stages have a supporting surface configured to support the component , the supporting surface of each of the multiple stages being a different color or shape.
A process for extracting cannabinoids from hemp or cannabis with sub-critical liquid carbon dioxide, the process comprising: providing a pressurizable extraction vessel having a rotatable drum ; providing a solvent permeable container ; placing the hemp or cannabis within the solvent permeable container; placing the solvent permeable container containing the hemp or cannabis within the extraction vessel; filling the extraction vessel with sub-critical liquid carbon dioxide at a pressure between 2.76 to 4.99 MPa; rotating the drum containing the sub-critical liquid carbon dioxide so as to contact the sub-critical liquid carbon dioxide with the hemp or cannabis and extract at least a portion of the cannabinoids from the hemp or cannabis into the sub-critical liquid carbon dioxide at a temperature of less than 25°C; removing from the extraction vessel while under pressure the sub-critical liquid carbon dioxide containing the cannabinoids extracted from the hemp or cannabis; and separating the liquid carbon dioxide from the hemp or cannabis. providing a pressurizable extraction vessel having a rotatable drum ; providing a solvent permeable container ; placing the hemp or cannabis within the solvent permeable container; placing the solvent permeable container containing the hemp or cannabis within the extraction vessel; filling the extraction vessel with sub-critical liquid carbon dioxide at a pressure between 2.76 to 4.99 MPa; rotating the drum containing the sub-critical liquid carbon dioxide so as to contact the sub-critical liquid carbon dioxide with the hemp or cannabis and extract at least a portion of the cannabinoids from the hemp or cannabis into the sub-critical liquid carbon dioxide at a temperature of less than 25°C; removing from the extraction vessel while under pressure the sub-critical liquid carbon dioxide containing the cannabinoids extracted from the hemp or cannabis; and separating the liquid carbon dioxide from the hemp or cannabis.
Dry brake module comprising: - a cooling body , - a heat sink , which is attached to the cooling body for the purpose of discharging heat; - a friction disc which is connected to a rotational member which can rotate about the same axis as the friction disc , which friction disc on at least one side is provided with a lining and is faced with this side towards the heat sink ; and - an actuation system with which an axial pressing force on the friction disc can be exercised, in which the friction disc is located axially between the heat sink and the actuation system , characterized in that the cooling body is a transmission housing and no further heat sink, which during operation has a rotation speed difference with the friction disc , is present between the friction disc and the actuation system . - a cooling body , - a heat sink , which is attached to the cooling body for the purpose of discharging heat; - a friction disc which is connected to a rotational member which can rotate about the same axis as the friction disc , which friction disc on at least one side is provided with a lining and is faced with this side towards the heat sink ; and - an actuation system with which an axial pressing force on the friction disc can be exercised, in which the friction disc is located axially between the heat sink and the actuation system ,
A method, comprising: computing a highest common factor between a structure size of structures in an array of structures stored in a first memory device and a number of banks in the first memory device, wherein the highest common factor is different than the structure size of the structures; setting a partition size value to the computed highest common factor; computing a shift value equal to the number of banks divided by the partition size; reading , from the array of structures stored in the first memory device, in one operation cycle, a number of elements equal to the partition size from a number of structures equal to the shift value; transferring in the one operation cycle the elements read to a structure of arrays in a second memory device having an equal number of banks as the first memory device; continuing the reading and transferring in subsequent operation cycles until all elements of the array of structures are transferred to the structure of arrays; and shifting the data elements transferred to the structure of arrays to align elements of common structures into common banks. computing a highest common factor between a structure size of structures in an array of structures stored in a first memory device and a number of banks in the first memory device, wherein the highest common factor is different than the structure size of the structures; setting a partition size value to the computed highest common factor; computing a shift value equal to the number of banks divided by the partition size; reading , from the array of structures stored in the first memory device, in one operation cycle, a number of elements equal to the partition size from a number of structures equal to the shift value; transferring in the one operation cycle the elements read to a structure of arrays in a second memory device having an equal number of banks as the first memory device; continuing the reading and transferring in subsequent operation cycles until all elements of the array of structures are transferred to the structure of arrays; and shifting the data elements transferred to the structure of arrays to align elements of common structures into common banks.
A device for holding and expelling packages , particularly of medicines or the like, from an inclined chute of a storage cabinet, said inclined chute being adapted to contain a row of said packages , said device comprising, supported by said inclined chute : - at least one actuator having a movable part , - at least one mechanism actuated by said actuator , - at least one element for holding and expelling said packages , which can be operated by way of said mechanism and is installed at the dispensing end of said inclined chute on which it is pivoted, wherein said holding and expelling element has an abutment protrusion for a leading package and an arm , for lifting said leading package , which is integral with said abutment protrusion , said holding and expelling element , with said abutment protrusion and said lifting arm , being provided in a single piece, - a rocker pivoted on said inclined chute , - two linkages each pivoted on a respective arm of said rocker , a first linkage for interconnecting the moveable part of said actuator to said rocker and a second linkage for interconnecting said rocker to said holding and expelling element , and integral with said inclined chute , - a resting element for the arm of said second linkage , which is adapted to limit the rotation thereof when said holding and expelling element passes from an expelling position (B) to a holding position (A). - at least one actuator having a movable part , - at least one mechanism actuated by said actuator , - at least one element for holding and expelling said packages , which can be operated by way of said mechanism and is installed at the dispensing end of said inclined chute on which it is pivoted, wherein said holding and expelling element has an abutment protrusion for a leading package and an arm , for lifting said leading package , which is integral with said abutment protrusion , said holding and expelling element , with said abutment protrusion and said lifting arm , being provided in a single piece, - a rocker pivoted on said inclined chute , - two linkages each pivoted on a respective arm of said rocker , a first linkage for interconnecting the moveable part of said actuator to said rocker and a second linkage for interconnecting said rocker to said holding and expelling element , and integral with said inclined chute , - a resting element for the arm of said second linkage , which is adapted to limit the rotation thereof when said holding and expelling element passes from an expelling position (B) to a holding position (A).
A method comprising: receiving at a computer server a location of a first user from a first mobile device; receiving, from a plurality of second mobile devices, locations of a plurality of second users , each second user having a relationship to the first user; and sending a message from the first user to each one of the second mobile devices based on the proximity of the first user to the respective second users and on the relationship between them, wherein the locations of each one of the second mobile devices are identified using a global-positioning system feature of the second mobile devices and one or more locations submitted to the server by one or more venues. receiving at a computer server a location of a first user from a first mobile device; receiving, from a plurality of second mobile devices, locations of a plurality of second users , each second user having a relationship to the first user; and sending a message from the first user to each one of the second mobile devices based on the proximity of the first user to the respective second users and on the relationship between them, wherein the locations of each one of the second mobile devices are identified using a global-positioning system feature of the second mobile devices and one or more locations submitted to the server by one or more venues.
A method for wireless communications at a user equipment, UE , comprising: receiving control signaling indicating a truncating configuration for truncating one or more fields of an initial identification indicator, wherein the one or more fields of the initial identification indicator comprise a network function identifier field and a UE identifier field; generating a truncated identification indicator for the UE according to the truncating configuration by removing one or more bits from the initial identification indicator; and transmitting the truncated identification indicator to a base station . receiving control signaling indicating a truncating configuration for truncating one or more fields of an initial identification indicator, wherein the one or more fields of the initial identification indicator comprise a network function identifier field and a UE identifier field; generating a truncated identification indicator for the UE according to the truncating configuration by removing one or more bits from the initial identification indicator; and transmitting the truncated identification indicator to a base station .
A method of producing a beam shaping assembly for neutron capture therapy, the beam shaping assembly comprising: a beam inlet ; a target , wherein the target has nuclear reaction with an incident proton beam from the beam inlet to produce neutrons, and wherein the neutrons form a neutron beam defining a main axis (X, X1, X2, X3); a moderator adjoining to the target, wherein the neutrons are moderated by the moderator to epithermal neutron energies, the material of the moderator is prepared by mixing a mixture containing one or more of LiF, Li 2 CO 3 , PbF 4 , Al 2 O 3 , AlF 3 , CaF 2 and MgF 2 ; a reflector surrounding the moderator, wherein the reflector leads the neutrons deviated from the main axis back to enhance epithermal neutron beam intensity; a radiation shield arranged inside the beam shaping assembly, wherein the radiation shield is used for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet ; the method characterized by comprising: subjecting the material of the moderator to a powder sintering process using a powder sintering device so as to change powders or powder compacts into blocks; and the powder sintering device is a spark plasma sintering device and the powder sintering process is a spark plasma sintering process. a beam inlet ; a target , wherein the target has nuclear reaction with an incident proton beam from the beam inlet to produce neutrons, and wherein the neutrons form a neutron beam defining a main axis (X, X1, X2, X3); a moderator adjoining to the target, wherein the neutrons are moderated by the moderator to epithermal neutron energies, the material of the moderator is prepared by mixing a mixture containing one or more of LiF, Li 2 CO 3 , PbF 4 , Al 2 O 3 , AlF 3 , CaF 2 and MgF 2 ; a reflector surrounding the moderator, wherein the reflector leads the neutrons deviated from the main axis back to enhance epithermal neutron beam intensity; a radiation shield arranged inside the beam shaping assembly, wherein the radiation shield is used for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet ; the method characterized by comprising: subjecting the material of the moderator to a powder sintering process using a powder sintering device so as to change powders or powder compacts into blocks; and the powder sintering device is a spark plasma sintering device and the powder sintering process is a spark plasma sintering process. subjecting the material of the moderator to a powder sintering process using a powder sintering device so as to change powders or powder compacts into blocks; and the powder sintering device is a spark plasma sintering device and the powder sintering process is a spark plasma sintering process.
Sealing system for a device for determining a permeation rate or a desorption rate of films or solids with a fluid-containing chamber , the chamber being formed in a housing which is formed from at least two parts (5.1, 5.2) and there being placed between the parts (5.1, 5.2) of the housing a flat seal , circumferentially around the measurement cell, and/or a film which separates the chamber into two cavities, at least in the region extending circumferentially around the chamber there being formed at least one channel , which is open in the direction of the flat seal , in the direction of a sealing surface of at least one part of the housing , or the film , in at least one part (5.1 or 5.2) of the housing and/or the flat seal having at least one channel , and the chamber being separated into a cavity, serving as a measurement cell, and into a cavity, for the provision of permeate, by the film placed between the parts (5.1, 5.2) of the housing , characterized in that fluid removed from the measurement cell can be introduced into an inlet opening and can be conducted through the channel(s) such that removed fluid flows directly along a surface of the flat seal , and/or of the film , and out of one or more outlet opening(s) of one or more channel(s) .
A device for detecting an acceleration, comprising: a frame ; a mass ; a lever arm connected to the mass , wherein the mass is provided at a first lever position; an optical fiber with a fiber-optic sensor; and a compensation element for disturbance variables, wherein the compensation element for disturbance variables is connected to the lever arm or the mass and wherein the compensation element for disturbance variables is connected to the frame , wherein the compensation element comprises a fiber holder which is provided independent from the lever arm , wherein the optical fiber is connected to the fiber holder . a frame ; a mass ; a lever arm connected to the mass , wherein the mass is provided at a first lever position; an optical fiber with a fiber-optic sensor; and a compensation element for disturbance variables, wherein the compensation element for disturbance variables is connected to the lever arm or the mass and wherein the compensation element for disturbance variables is connected to the frame , wherein the compensation element comprises a fiber holder which is provided independent from the lever arm , wherein the optical fiber is connected to the fiber holder .
Drive system for a motor vehicle, comprising at least two electric machines , which are configured to apply a torque to an axle or a wheel of the motor vehicle; at least one computer unit, which is configured to determine a distribution of a specified mechanical drive power, which is to be applied by the totality of the electric machines to the wheels or axles of the motor vehicle, to the individual electric machines ; and at least one control unit for controlling the power output of the electric machines , which is configured to control the electric machines according to the determined power distribution, so that the totality of the electric machines produces the specified mechanical drive power; characterised in that the drive system additionally comprises at least one internal combustion engine; and the drive system has at least one electric machine , which is arranged on a transmission, on a crankshaft or on an axle, and comprises at least one belt-driven starter generator ; and that the computer unit is configured to determine the power loss of the electric machines from a loss characteristic diagram stored in the drive system, from which the power loss of an electric machine including additional losses by other components, which are required for the power transmission from the electric machine , can be determined as a function of the speed and the torque of the electric machine ; and to determine a distribution of a specified mechanical power, which is to be applied by the totality of the electric machines to the wheels or axles of the motor vehicle, to the individual electric machines , in which the sum of the power losses of the electric machines is minimised.
A method for data writing implemented by a current node of a distributed database system, wherein the current node is a node in the distributed database system which receives first to-be-written data, the method comprising: obtaining the first to-be-written data, said first to-be-written data comprising an identification of a first data table; determining a first group identifier corresponding to the first to-be-written data via the first data table; determining a first master node corresponding to the first group identifier via a mapping table; in response to the first master node being a first node of the distributed database system other than a current node, determining a second group identifier via the mapping table, a second master node corresponding to the second group identifier being the current node; sending the second group identifier to the first node; receiving a first update message from the first node, the first update message indicating that at the first node, the first group identifier is modified to the second group identifier; modifying the first group identifier to the second group identifier; and writing the first to-be-written data. obtaining the first to-be-written data, said first to-be-written data comprising an identification of a first data table; determining a first group identifier corresponding to the first to-be-written data via the first data table; determining a first master node corresponding to the first group identifier via a mapping table; in response to the first master node being a first node of the distributed database system other than a current node, determining a second group identifier via the mapping table, a second master node corresponding to the second group identifier being the current node; sending the second group identifier to the first node; receiving a first update message from the first node, the first update message indicating that at the first node, the first group identifier is modified to the second group identifier; modifying the first group identifier to the second group identifier; and writing the first to-be-written data. determining a second group identifier via the mapping table, a second master node corresponding to the second group identifier being the current node; sending the second group identifier to the first node; receiving a first update message from the first node, the first update message indicating that at the first node, the first group identifier is modified to the second group identifier; modifying the first group identifier to the second group identifier; and writing the first to-be-written data.