mhurhangee/ep-ind-claims huggingface dataset:
A biopsy marker comprising a metallic sheet, the metallic sheet comprising: a first shaped portion (22a, 42a, 502a, 512a), a first narrow portion (14a, 44a, 504a, 514a), a second shaped portion (22b, 42b, 502b, 512b), a second narrow portion (14b, 44b, 504b, 514b), and a third shaped portion (22c, 42c, 502c, 512c) arranged sequentially along an axis, wherein each shaped portion (22a-c, 42a-c, 502a-c, 512a-c) has a first planar surface and a second planar surface parallel to the first planar surface; the first narrow portion (14a, 44a, 504a, 514a) and the second narrow portion (14b, 44b, 504b, 514b) being twisted about the axis, such that the first planar surface of the first shaped portion (22a, 42a, 502a, 512a) is arranged at a first selected angle to the first planar surface of the second shaped portion (22b, 42b, 502b, 512b), and the first planar surface of the second shaped portion (22b, 42b, 502b, 512b) is arranged at a second selected angle to the first planar surface of the third shaped portion (22c, 42c, 502c, 512c), and the first planar surface of the first shaped portion (22a, 42a, 502a, 512a) is arranged at a third selected angle to the first planar surface of the third shaped portion (22c, 42c, 502c, 512c). a first shaped portion (22a, 42a, 502a, 512a), a first narrow portion (14a, 44a, 504a, 514a), a second shaped portion (22b, 42b, 502b, 512b), a second narrow portion (14b, 44b, 504b, 514b), and a third shaped portion (22c, 42c, 502c, 512c) arranged sequentially along an axis, wherein each shaped portion (22a-c, 42a-c, 502a-c, 512a-c) has a first planar surface and a second planar surface parallel to the first planar surface; the first narrow portion (14a, 44a, 504a, 514a) and the second narrow portion (14b, 44b, 504b, 514b) being twisted about the axis, such that the first planar surface of the first shaped portion (22a, 42a, 502a, 512a) is arranged at a first selected angle to the first planar surface of the second shaped portion (22b, 42b, 502b, 512b), and the first planar surface of the second shaped portion (22b, 42b, 502b, 512b) is arranged at a second selected angle to the first planar surface of the third shaped portion (22c, 42c, 502c, 512c), and the first planar surface of the first shaped portion (22a, 42a, 502a, 512a) is arranged at a third selected angle to the first planar surface of the third shaped portion (22c, 42c, 502c, 512c).
A polyamide compound comprising: from 25 to 50% by mol of a diamine unit, which contains an aromatic diamine unit represented by the following general formula, in an amount of 50% by mol or more; from 25 to 50% by mol of a dicarboxylic acid unit, which contains a linear aliphatic dicarboxylic acid unit represented by the following general formula (II-1) and/or an aromatic dicarboxylic acid unit represented by the following general formula (II-2), in an amount in total of 50% by mol or more; and from 0.1 to 50% by mol of a constitutional unit represented by the following general formula: wherein, in the general formula (II-1), n represents an integer of from 2 to 18, in the general formula (II-2), Ar represents an arylene group, and in the general formula, R represents a substituted or unsubstituted alkyl group or a substituted or unsubstituted aryl group, wherein the polyamide compound includes a polyamide resin and/or a polyamide oligomer, the "polyamide resin" means the polyamide compound that has a relative viscosity of 1.8 or more, the "polyamide oligomer" means the polyamide compound that has a relative viscosity of less than 1.8, and wherein the relative viscosity is a ratio of the fall time (t) of the polyamide compound measured by dissolving 1 g of the polyamide compound in 100 mL of 96% sulfuric acid and measuring the resulting solution with a Cannon-Fenske viscometer at 25°C, and the fall time (to) of 96% sulfuric acid measured in the same manner, and shown by the following expression Relative viscosity = t / t 0.
A method for stacking filled bags to form a pallet-free stack of bags, having the following steps: - formation of a first layer from at least two rows of filled bags, - formation at least of one further layer from at least two rows of filled bags on the first layer, - wrapping of the finished stack of bags with at least one stabilizing wrapping, wherein the first layer or the last layer of the stack of bags is formed with at least two lift-recesses for a lifting with a forklift and a mechanically reinforcing intermediate bottom is introduced between two layers (L8, L9), wherein the intermediate bottom is a bottom surface, which extends between the two adjacent layers (L8, L9), and at least one side flap which extends along the side surfaces of the bags of one of the two adjacent layers (L8, L9) and transversely with respect to the lift-recesses, characterized in that the intermediate bottom has at least one of the following materials and/or consists at least in sections of one of the following materials: - paper - cardboard - carton and wherein the bottom surface and at least one of the side flaps form a bending line. - formation of a first layer from at least two rows of filled bags, - formation at least of one further layer from at least two rows of filled bags on the first layer, - wrapping of the finished stack of bags with at least one stabilizing wrapping, - paper - cardboard - carton
A method of processing work items on a graphics processing unit,, comprising: changing a priority ordering of one or more buffers comprising work items, said buffers being written to by a CPU in a memory to reorder an execution sequence of work items from the one or more buffers; selecting a first subset of buffers from the one or more buffers according to the changed priority ordering for execution of work items from the first subset of buffers on the GPU, wherein the changing and the selecting are responsive to a dynamically determined workload profile of the GPU; and executing said work items from the first subset of buffers on the GPU in accordance with the reordered execution sequence. changing a priority ordering of one or more buffers comprising work items, said buffers being written to by a CPU in a memory to reorder an execution sequence of work items from the one or more buffers; selecting a first subset of buffers from the one or more buffers according to the changed priority ordering for execution of work items from the first subset of buffers on the GPU, wherein the changing and the selecting are responsive to a dynamically determined workload profile of the GPU; and executing said work items from the first subset of buffers on the GPU in accordance with the reordered execution sequence.
Waste container, comprising a bottom, side walls and a lid, and which is provided with one inlet mouth for the introduction of waste, that is formed from a sheet provided with a plurality of folding lines defining said bottom, said side walls and said lid, said inlet mouth being arranged in at least one of said side walls, characterized in that the waste container comprises a first holding element configured for holding a bag.
A composition for use in the treatment of a detached retina, comprising an oil and an additive capable of increasing the extensional viscosity of the oil, wherein the oil is selected from one or more of the following: a silicone oil, a perfluorocarbon oil or a semi-fluorinated alkane oil, and has a viscosity of less than 5,000 mPas, and wherein the additive is a silicone oil, has a viscosity in the range of 10,000-25,000,000 mPas, and is present in a quantity in the range of 0.05-20% w/w of the composition, wherein the viscosities are measured at 25 °C using a TA Instruments Advanced Rheometer AR500.
A method for managing an information transfer queue (318, 418) in a memory of a host subsystem, configured to communicate with a peripheral device that can write into the queue via a communication channel, comprising the step of: the host subsystem making a determination of the availability of space in the information transfer queue for writing new entries; characterised by the further steps of: the host subsystem, in dependence upon such determination, writing a set of entries into a second queue (312, 412) accessible to the peripheral device, each entry in the set authorizing the peripheral device to write a predetermined number of new entries of a particular type into the information transfer queue; the peripheral device writing new entries of the particular type into the information transfer queue in dependence upon the number of entries in the second queue; and the host subsystem consuming entries written by the peripheral device. the host subsystem making a determination of the availability of space in the information transfer queue for writing new entries; characterised by the further steps of: the host subsystem, in dependence upon such determination, writing a set of entries into a second queue (312, 412) accessible to the peripheral device, each entry in the set authorizing the peripheral device to write a predetermined number of new entries of a particular type into the information transfer queue; the peripheral device writing new entries of the particular type into the information transfer queue in dependence upon the number of entries in the second queue; and the host subsystem consuming entries written by the peripheral device.
A valve (100, 102, 600, 700, 800, 900) having a leaflet (300, 630, 730, 830, 930) moveable between an open position that permits antegrade flow through the valve and a closed position that prevents regurgitant flow through the valve, the leaflet comprising an aperture or gap, or a separation (330, 350, 850) of portions of the leaflet to allow a flow or exchange of fluid between a front and back of the leaflet, when the leaflet is not in the closed position; and wherein the aperture, gap or separation is operable to close to prevent flow of exchange of fluid between the back and the front of the leaflet, when the leaflet is in the closed position.
A gravure printing method, comprising: using an aqueous ink having a Zahn cup #3 viscosity at 20°C of 11.0 seconds or more and 20.0 seconds or less, and having an evaporation rate of 30 mass% or less in a drying test, the drying test involving drying 1 g of the ink at a temperature of 40°C and an air flow of 1,400 L/min for 30 minutes; and transferring 1 ml/m 2 or more and 7 ml/m 2 or less of the ink onto a printing medium. using an aqueous ink having a Zahn cup #3 viscosity at 20°C of 11.0 seconds or more and 20.0 seconds or less, and having an evaporation rate of 30 mass% or less in a drying test, the drying test involving drying 1 g of the ink at a temperature of 40°C and an air flow of 1,400 L/min for 30 minutes; and transferring 1 ml/m 2 or more and 7 ml/m 2 or less of the ink onto a printing medium.
Shoe having a sole; a mechanically operable air pump device which is provided at least partially in an area of the sole and which is configured to suck in air from outside the shoe during unloading of the sole during the walking movement of a user of the shoe and to expel air for ventilation of an interior of the shoe during loading of the area of the sole during the walking movement of the user of the shoe so that said air pump device is operated by the walking movement of the user, wherein the mechanically operable air pump device is configured as a lung fitted into a recess of the sole or as a cavity formed in a recess of the sole; and an electrically operable ventilation device which is configured to ventilate the interior of the shoe when the mechanically operable air pump device is not activated because the user does not execute a walking movement, wherein via an air feed device which is connected to the air pump device and the electrically operable ventilation device, air can be guided from outside the shoe to the air pump device and the electrically operable ventilation device and wherein via an air removal device which is connected to the air pump device and the electrically operable ventilation device, air can be guided from the air pump device and the electrically operable ventilation device into the interior of the shoe.
Pinch valve comprising: a main body having a receiving space for a tube portion, wherein the main body comprises a lateral opening which leads into the receiving space, wherein the lateral opening is arranged laterally with respect to an adjusting axis; a compressor which is movable along the adjusting axis; and a closure element which is movably fastened to the main body and provides a counter-bearing portion for the compressor, and which is movable relative to the main body between a first position, in which the closure element closes the lateral opening of the main body, at least in portions, and a second position, in which the closure element releases an introduction opening for the tube portion, wherein the closure element is fastened to the main body so as to be rotatable about an axis of rotation, or the closure element is designed like a drawer and comprises a guide portion which is received in a guide portion of the main body that receives said guide portion, so that the closure element is guided linearly. a main body having a receiving space for a tube portion, wherein the main body comprises a lateral opening which leads into the receiving space, wherein the lateral opening is arranged laterally with respect to an adjusting axis; a compressor which is movable along the adjusting axis; and a closure element which is movably fastened to the main body and provides a counter-bearing portion for the compressor, and which is movable relative to the main body between a first position, in which the closure element closes the lateral opening of the main body, at least in portions, and a second position, in which the closure element releases an introduction opening for the tube portion, wherein the closure element is fastened to the main body so as to be rotatable about an axis of rotation, or the closure element is designed like a drawer and comprises a guide portion which is received in a guide portion of the main body that receives said guide portion, so that the closure element is guided linearly.
A road system apparatus for a manhole cover comprising at least one cover mounted articulated so as to tilt to the side of the support frame by at least one articulating hinge between a position closing the support frame and an approximately vertical upright position opening that frame, and for each cover, a safety device comprising a self-locking arm whereof one end is mounted pivotably to the side of the frame around a pivot axis and the other end is connected to the cover by an axis secured to the cover and mounted sliding in a longitudinal oblong aperture of the self-locking arm so as to allow the rotational driving of that arm around its pivot axis during the tilting of the cover between its open and closed positions and to automatically lock the cover in its upright open position, characterized in that the axis connecting the self-locking arm to the cover comprises two adjacent cylindrical parts respectively with a smaller diameter and a larger diameter and is axially movable relative to the cover under the action of an elastic member that biases the part with the smaller diameter of the connecting axis to engage slidingly in the oblong aperture of the self-locking arm during the tilting of the cover between its two open and closed positions and the part with the larger diameter of the connecting axis to engage locked in a circular orifice of the end of the self-locking arm in the extension of the oblong aperture of that arm when the cover is brought to its upright open position.
Power tool having a working tool for performing an operation on a workpiece, the working tool driven by a motor, comprising: a material sensor positioned to sense the workpiece prior to operation by the working tool, the material sensor configured to determine a material property of the workpiece and to generate a signal in response thereto; and a processor coupled between said material sensor and the motor and configured to control the motor in response to said signal generated by said material sensor, characterized in that the material sensor includes a combination of two or more different sensors (120a, b,...) from the group of light, acoustic, inductive, capacitive displacement, thermal and magnetic sensors, and wherein the processor is configured to distinguish between signals provided by the combination of two or more different sensors (120a, b,...) in the material sensor. a material sensor positioned to sense the workpiece prior to operation by the working tool, the material sensor configured to determine a material property of the workpiece and to generate a signal in response thereto; and a processor coupled between said material sensor and the motor and configured to control the motor in response to said signal generated by said material sensor, characterized in that the material sensor includes a combination of two or more different sensors (120a, b,...) from the group of light, acoustic, inductive, capacitive displacement, thermal and magnetic sensors, and wherein the processor is configured to distinguish between signals provided by the combination of two or more different sensors (120a, b,...) in the material sensor.
A medical device (702, 703), comprising: means for receiving acceleration information of a patient; and an assessment circuit configured to determine if a value of the acceleration information exceeds an activity threshold, and, in response to the value of the acceleration information exceeding the activity threshold, to: detect patient steps in a measurement window using the acceleration information; and using the detected patient steps: determine a patient step rate over the measurement window; and determine a measure of patient step force for the measurement window, wherein the assessment circuit is configured to determine a measure of patient weight using the determined patient step rate and measure of patient step force. means for receiving acceleration information of a patient; and an assessment circuit configured to determine if a value of the acceleration information exceeds an activity threshold, and, in response to the value of the acceleration information exceeding the activity threshold, to: detect patient steps in a measurement window using the acceleration information; and using the detected patient steps: determine a patient step rate over the measurement window; and determine a measure of patient step force for the measurement window, detect patient steps in a measurement window using the acceleration information; and using the detected patient steps: determine a patient step rate over the measurement window; and determine a measure of patient step force for the measurement window, determine a patient step rate over the measurement window; and determine a measure of patient step force for the measurement window, wherein the assessment circuit is configured to determine a measure of patient weight using the determined patient step rate and measure of patient step force.
A system for controlling a pressure field around an aircraft in flight, the system comprising: a plurality of pressure sensors positionable at various locations on the aircraft so as to be situated to measure air pressure in a vicinity of corresponding portions of the aircraft's exterior; and an intermediate primary controller (22, 24) configured to control a movable component (18, 20) that is disposed in a position that alters the pressure field when the movable component moves while the aircraft is in flight; and a controller communicatively coupled with the plurality of pressure sensors, the controller configured: to receive information from each pressure sensor indicative of a respective air pressure, to compute a pressure field along the external surface of the aircraft based on the information, to determine when the pressure field deviates from a desired pressure field based on the information, and to transmit an instruction to the movable component onboard the aircraft that will cause the movable component to move in a manner that reduces the deviation via the intermediate primary controller, wherein the intermediate primary controller is configured to evaluate the instruction provided by the controller for compatibility with restrictions and limitations that govern a control of the intermediate primary controller over the movable component and, wherein the intermediate primary controller is further configured to not comply with the instruction transmitted by the controller in instances where the instruction is not compatible with restrictions and limitations programmed into the intermediate primary controller. a plurality of pressure sensors positionable at various locations on the aircraft so as to be situated to measure air pressure in a vicinity of corresponding portions of the aircraft's exterior; and an intermediate primary controller (22, 24) configured to control a movable component (18, 20) that is disposed in a position that alters the pressure field when the movable component moves while the aircraft is in flight; and a controller communicatively coupled with the plurality of pressure sensors, the controller configured: to receive information from each pressure sensor indicative of a respective air pressure, to compute a pressure field along the external surface of the aircraft based on the information, to determine when the pressure field deviates from a desired pressure field based on the information, and to transmit an instruction to the movable component onboard the aircraft that will cause the movable component to move in a manner that reduces the deviation via the intermediate primary controller, wherein the intermediate primary controller is configured to evaluate the instruction provided by the controller for compatibility with restrictions and limitations that govern a control of the intermediate primary controller over the movable component and, wherein the intermediate primary controller is further configured to not comply with the instruction transmitted by the controller in instances where the instruction is not compatible with restrictions and limitations programmed into the intermediate primary controller.
A block copolymer having the general structure: A[-L-B] n wherein n is at least 1, A is a polyorganosiloxane block, B is a polyolefin block comprising a polypropylene homopolymer or copolymer, and L is a divalent linking group comprising the reaction product of an amine or alcohol and an anhydride, and wherein the block copolymer comprises at least 40 wt-% polyorganosiloxane. wherein n is at least 1, A is a polyorganosiloxane block, B is a polyolefin block comprising a polypropylene homopolymer or copolymer, and L is a divalent linking group comprising the reaction product of an amine or alcohol and an anhydride, and