mhurhangee/ep-ind-claims huggingface dataset:
A portion capsule which is filled with an extraction material, for creating a brewed product, comprising: - a main body with a bottom region and with a peripheral side wall; and - a cover which is fastened on the main body; - wherein the main body and the cover enclose the extraction material, and the cover is fastened on the main body along a peripheral collar, said collar towards a cover side connecting to the peripheral side wall; - wherein the main body in the region of the collar has an essentially rectangular cross section; - wherein the cover forms an outward arching, so that the cover contributes to a capsule volume; - wherein a peripheral surface facing the cover side is formed, said surface extending from an outer edge of the collar up to a base of the arching; - characterised in that the base of the arching is offset inwards in comparison to a transition between the side wall and the collar. - a main body with a bottom region and with a peripheral side wall; and - a cover which is fastened on the main body; - wherein the main body and the cover enclose the extraction material, and the cover is fastened on the main body along a peripheral collar, said collar towards a cover side connecting to the peripheral side wall; - wherein the main body in the region of the collar has an essentially rectangular cross section; - wherein the cover forms an outward arching, so that the cover contributes to a capsule volume; - wherein a peripheral surface facing the cover side is formed, said surface extending from an outer edge of the collar up to a base of the arching; - characterised in that the base of the arching is offset inwards in comparison to a transition between the side wall and the collar.
A row unit for a cornhead, comprising: a frame; a pair of stalk rolls having axes that are generally parallel and are supported on the frame to be rotatable, wherein each stalk roll of said pair of stalk rolls is rotatable around its respective axis and in a first direction of rotation opposite to a second direction of rotation of another stalk roll of said pair of stalk rolls in order to pull down a plant stalk between the pair of stalk rolls; a pair of stripper plates supported on the frame and forming a stripper gap between the pair of stripper plates and above said pair of stalk rolls, wherein the stripper gap has a longitudinal extent that is generally parallel to the axes of said pair of stalk rolls, wherein at least one of said pair of stripper plates is a shiftable stripper plate, wherein said shiftable stripper plate is supported to be shiftable in a horizontal direction transversely to the longitudinal extent of the stripper gap; and at least one spring (32, 32') having a central helical part and a pair of outer end parts, the central helical part winding around a pin; characterized in that the pin is connected to said shiftable stripper plate, that two members are connected to the frame on opposite sides of the pin such that the pin is located between the two members in a direction extending essentially parallel to the longitudinal extent of the stripper gap and that each of the pair of outer end parts of the at least one spring (32, 32') abuts a respective member. a frame; a pair of stalk rolls having axes that are generally parallel and are supported on the frame to be rotatable, wherein each stalk roll of said pair of stalk rolls is rotatable around its respective axis and in a first direction of rotation opposite to a second direction of rotation of another stalk roll of said pair of stalk rolls in order to pull down a plant stalk between the pair of stalk rolls; a pair of stripper plates supported on the frame and forming a stripper gap between the pair of stripper plates and above said pair of stalk rolls, wherein the stripper gap has a longitudinal extent that is generally parallel to the axes of said pair of stalk rolls, wherein at least one of said pair of stripper plates is a shiftable stripper plate, wherein said shiftable stripper plate is supported to be shiftable in a horizontal direction transversely to the longitudinal extent of the stripper gap; and at least one spring (32, 32') having a central helical part and a pair of outer end parts, the central helical part winding around a pin; characterized in that the pin is connected to said shiftable stripper plate, that two members are connected to the frame on opposite sides of the pin such that the pin is located between the two members in a direction extending essentially parallel to the longitudinal extent of the stripper gap and that each of the pair of outer end parts of the at least one spring (32, 32') abuts a respective member.
An insulated gate-type semiconductor device having: a body region which is located at an upper surface side within a semiconductor substrate and is a semiconductor of a first conductive type, and a drift region which is in contact with a lower face of the body region and is a semiconductor of a second conductive type, the insulated gate-type semiconductor device further comprising: a trench passing from an upper surface of the semiconductor substrate through the body region; a gate insulating film positioned at a side wall of the trench; a gate electrode located inside the trench facing the body region through the gate insulating film; and a buried diffusion region which is positioned below the gate electrode, is surrounded with the drift region and surrounds a bottom of the trench, and is a semiconductor of the first conductive type; the insulated gate-type semiconductor device being characterized by a low concentration diffusion region which is in juncture with the body region and the buried diffusion region, is lower in concentration than the buried diffusion region, and is a semiconductor of the first conductive type, wherein, when a gate voltage is off, the low concentration diffusion region is depleted prior to the buried diffusion region and the buried diffusion region is brought into a floating state. a body region which is located at an upper surface side within a semiconductor substrate and is a semiconductor of a first conductive type, and a drift region which is in contact with a lower face of the body region and is a semiconductor of a second conductive type, a trench passing from an upper surface of the semiconductor substrate through the body region; a gate insulating film positioned at a side wall of the trench; a gate electrode located inside the trench facing the body region through the gate insulating film; and a buried diffusion region which is positioned below the gate electrode, is surrounded with the drift region and surrounds a bottom of the trench, and is a semiconductor of the first conductive type; a low concentration diffusion region which is in juncture with the body region and the buried diffusion region, is lower in concentration than the buried diffusion region, and is a semiconductor of the first conductive type, wherein, when a gate voltage is off, the low concentration diffusion region is depleted prior to the buried diffusion region and the buried diffusion region is brought into a floating state.
A one-component aqueous dispersion adhesive, containing at least one copolymer A of the monomers ethylene, vinyl acetate, and optionally at least one (meth)acrylate and at least one polyurethane having carboxyl groups and carbodiimide groups PUR-COOH-CDI.
A device (100, 700) comprising: at least one first shape memory material 'SMM' component and at least one second SMM component each fabricated from an SMM and configured to change shape in response to receiving a stimulus; wherein the at least one first SMM component is configured to deploy from a device body into at least one control surface or at least one fin and change a shape of the device; and wherein the at least one second SMM component is configured to cover or fill at least one space (135, 140) penetrating the device body that is left after the at least one control surface or the at least one fin is deployed. at least one first shape memory material 'SMM' component and at least one second SMM component each fabricated from an SMM and configured to change shape in response to receiving a stimulus; wherein the at least one first SMM component is configured to deploy from a device body into at least one control surface or at least one fin and change a shape of the device; and wherein the at least one second SMM component is configured to cover or fill at least one space (135, 140) penetrating the device body that is left after the at least one control surface or the at least one fin is deployed.
A magnetic dendrimer compound, having a molecular formula as shown in formula: Γ(CH 2) 3 N (2 n+1 -1) R 1 (2 n+2 -2) R 2 (2 n+1), wherein Γ indicates a magnetic particle coated with SiO 2 on a surface thereof, the magnetic particle having been modified by a silane coupling agent, wherein (CH 2) 3 N (2 n+1 -1) R 1 (2 n+2 -2) is a dendritic group, and wherein R 2 (2 n+1) is a lipophilic group, with 0≤n≤100, wherein R 1 is selected from polyamido-amine dendrimers having a repetitive structure unit as shown in formula:-(CH 2) 2 CONH(CH 2) 2 NH-, and wherein R 2 is selected from a group consisting of linear or branched C 1-18 alkyls. wherein Γ indicates a magnetic particle coated with SiO 2 on a surface thereof, the magnetic particle having been modified by a silane coupling agent, wherein (CH 2) 3 N (2 n+1 -1) R 1 (2 n+2 -2) is a dendritic group, and wherein R 2 (2 n+1) is a lipophilic group, with 0≤n≤100, wherein R 1 is selected from polyamido-amine dendrimers having a repetitive structure unit as shown in formula:-(CH 2) 2 CONH(CH 2) 2 NH-, and wherein R 2 is selected from a group consisting of linear or branched C 1-18 alkyls.
A method for wireless communication in a heterogeneous communication network comprising at least one central unit and at least one radio access unit for wireless connection with user terminals (UE1, UE2, UE3), the method comprising: - upconverting a signal on an intermediate frequency or baseband signal by using a local oscillator signal in a mixer in the at least one central unit to generate an output signal comprising a radio frequency signal and the local oscillator signal; - adjusting the power level of at least one of the radio frequency signal and the local oscillator signal such that the power level of the local oscillator signal is equal or lower than the power level of the radio frequency signal; - transmitting the local oscillator signal and the radio frequency signal from the at least one central unit to the at least one radio access unit via a wireless link; - separating the local oscillator signal and the radio frequency signal received via the wireless link in the at least one radio access unit; - amplifying the local oscillator signal as separated in the at least one radio access unit; and - using the local oscillator signal as amplified for downconversion of the radio frequency signal in the at least one radio access unit. - upconverting a signal on an intermediate frequency or baseband signal by using a local oscillator signal in a mixer in the at least one central unit to generate an output signal comprising a radio frequency signal and the local oscillator signal; - adjusting the power level of at least one of the radio frequency signal and the local oscillator signal such that the power level of the local oscillator signal is equal or lower than the power level of the radio frequency signal; - transmitting the local oscillator signal and the radio frequency signal from the at least one central unit to the at least one radio access unit via a wireless link; - separating the local oscillator signal and the radio frequency signal received via the wireless link in the at least one radio access unit; - amplifying the local oscillator signal as separated in the at least one radio access unit; and - using the local oscillator signal as amplified for downconversion of the radio frequency signal in the at least one radio access unit.
An apparatus for use in a robotic control system that is configured to manipulate first and second catheters (238, 240) wherein each catheter includes a respective plurality of nodes, comprising: an electronic control unit; a computer readable memory coupled to said ECU; and collision detection logic stored in said memory configured to be executed by said ECU, said logic being configured to determine a collision metric indicative of a collision between said first and second catheters (238, 240) based on respective virtual representations thereof in accordance with a predetermined detection strategy, said virtual representations of said first and second catheters (238, 240) comprise first and second splines, each spline being defined through node locations associated with nodes of said first and second catheters (238, 240), and wherein said logic is further configured to determine said collision metric based on a closest distance between said first and second splines; wherein said virtual representation associated with said first catheter is a first virtual representation and includes a first plurality of geometrical solids defined along said first spline, said virtual representation associated with said second catheter is a second virtual representation and includes a second plurality of geometrical solids defined along said second spline, and wherein said collision detection logic is further configured to determine whether any portion of said first plurality of geometrical solids intersects any portion of said second plurality of geometrical solids, and wherein said collision detection logic is further configured to determine said collision metric as a function of at least the degree to which any of the surfaces of said first plurality of geometrical solids intersect with any of the surfaces of the second plurality of geometrical solids; characterized in that said collision detection logic is further configured for determining a space in which a distal portion of said first and second catheters occupy; partitioning said space into a plurality of cells; identifying those cells in which the geometrical solids from both said first and second plurality of geometrical solids reside; and evaluating a collision expression only with respect to said identified cells, wherein said collision expression when true is indicative of collision of said catheters. an electronic control unit; a computer readable memory coupled to said ECU; and collision detection logic stored in said memory configured to be executed by said ECU, said logic being configured to determine a collision metric indicative of a collision between said first and second catheters (238, 240) based on respective virtual representations thereof in accordance with a predetermined detection strategy, said virtual representations of said first and second catheters (238, 240) comprise first and second splines, each spline being defined through node locations associated with nodes of said first and second catheters (238, 240), and wherein said logic is further configured to determine said collision metric based on a closest distance between said first and second splines;
A self-position correction method for a host vehicle comprising an onboard sensor configured to acquire information about a periphery of the host vehicle, and a controller configured to select a lane in which the host vehicle travels based on information acquired by the onboard sensor and map information, and to correct a self-position of the host vehicle on a map while the host vehicle is travelling, wherein the method for self-position correction performs a lane selection control that includes: identifying a self-position correction object in an intended travel route based on the map information, wherein the self-position correction object is an object to be used as a measurement standard for a position deviation amount when the position of the host vehicle on the map is corrected; characterized by following the identification of the self-position correction object, determining, before the host vehicle reaches a correction point where the identified self-position correction object is present, whether or not the self-position correction object can be recognized by the onboard sensor from the lane in which the host vehicle travels at a timepoint when the host vehicle reaches the correction point; and making a lane change to a lane where the self-position correction object can be recognized before the host vehicle reaches the correction point upon determining that the self-position correction object cannot be recognized from the lane in which the host vehicle travels. identifying a self-position correction object in an intended travel route based on the map information, wherein the self-position correction object is an object to be used as a measurement standard for a position deviation amount when the position of the host vehicle on the map is corrected; characterized by following the identification of the self-position correction object, determining, before the host vehicle reaches a correction point where the identified self-position correction object is present, whether or not the self-position correction object can be recognized by the onboard sensor from the lane in which the host vehicle travels at a timepoint when the host vehicle reaches the correction point; and making a lane change to a lane where the self-position correction object can be recognized before the host vehicle reaches the correction point upon determining that the self-position correction object cannot be recognized from the lane in which the host vehicle travels.
A manual injection device comprising: - a lower body that receives a reservoir, said reservoir being mounted to move axially in said lower body and containing fluid to be injected, said reservoir including a piston and a needle, - an upper body that is mounted to move axially relative to said lower body during actuation, said upper body including a piston rod co-operating with said piston during injection so as to move it in the reservoir, - a sleeve that is mounted to move relative to said lower body between a rest position, in which said sleeve is arranged inside said lower body, and a projecting position, in which said sleeve is moved axially out of said lower body, said sleeve being blocked in its rest position before the manual injection device is actuated, and being urged automatically into its projecting position after injection, the manual injection device being characterized in that, before actuation, said piston rod is connected to a ring fastened, in particular crimped, on a radial collar of said reservoir so as to form an injection lock, the force necessary for moving said reservoir axially in said lower body being less than the force necessary for triggering said injection lock, such that said pricking is performed before said injection. - a lower body that receives a reservoir, said reservoir being mounted to move axially in said lower body and containing fluid to be injected, said reservoir including a piston and a needle, - an upper body that is mounted to move axially relative to said lower body during actuation, said upper body including a piston rod co-operating with said piston during injection so as to move it in the reservoir, - a sleeve that is mounted to move relative to said lower body between a rest position, in which said sleeve is arranged inside said lower body, and a projecting position, in which said sleeve is moved axially out of said lower body, said sleeve being blocked in its rest position before the manual injection device is actuated, and being urged automatically into its projecting position after injection,
A ferrite sintered magnet composed of a sintered body of a ferrite magnetic material, wherein the ferrite magnetic material comprises a hard ferrite, characterized in that a P content in terms of P 2 O 5 is 0.005 to 0.08% by mass, wherein the ferrite sintered magnet has an arc segment shape, wherein a central angle of the arc segment shape is 60° or more, and wherein an average crystalline particle diameter of the crystal particles in the sintered body is 0.5 to 1 μm.
A battery module comprising a plurality of plate-shaped battery cells which are sequentially stacked, wherein the battery module is configured to have a structure in which two or more hexahedral cell units (202, 203, 204, 205) are connected to each other in series in a state in which the hexahedral cell units (202, 203, 204, 205) are stacked, each of the cell units is configured to have a structure in which two or more battery cells are connected to each other in series in a state in which the battery cells are in tight contact with each other, and electrode terminals (400,402) (outermost electrode terminals) of outmost battery cells of the cell units are connected to external input and output terminals of the battery module, the outermost electrode terminals (400, 402) having a thickness larger than the thickness of the electrode terminals (410, 412) of the other battery cells such that the outermost electrode terminals (400, 402) are prevented from being broken by external force, wherein the outermost electrode terminals (400, 402) are coupled to bus bars connected to the external input and output terminals, and wherein series connection between the cell units is configured to have a structure in which a tip of an electrode terminal of a first cell unit and a tip of an electrode terminal of a second cell unit are bent in the shape of '¬ ' when viewed in section and overlapping portions thereof are welded.
A vehicle control system comprising an electronic processor, the processor comprising an input port for receiving data from a loading apparatus concerning at least one of the weight, dimensions, volume, or location of a load placed or to be placed by the loading apparatus into or onto an associated vehicle in which the vehicle control system is fitted, characterized in that the processor is programmed to use the data received from the loading apparatus to make automatic control adjustments comprising the application of at least one vehicle brake such that the associated vehicle maintains stability.