mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a molded surface fastener (1, 2, 3) that is made of a synthetic resin and has a plurality of engaging elements (10, 30, 40) each of which includes a stem portion standing from a base portion and an engaging head portion (12, 32, 42) integrally formed on the stem portion, the method including a primary molding step of molding a primary molded body having the base portion and a plurality of temporary elements provided upright on the base portion and a secondary molding step of heating at least a part of each of the temporary elements of the primary molded body and pressing the temporary elements from above to mold the molded surface fastener (1, 2, 3), being characterized in that the method comprises using a thermoplastic resin having a melt flow rate of 20 g/10min or more and 60 g/10min or less and a flexural modulus of 1000 MPa or more and 2300 MPa or less as the synthetic resin, and molding the engaging element (10, 30, 40, 50) whose height dimension is less than the height dimension of the temporary element (15, 55) by 20 μm or more and 80 μm or less by heating at least a part of the temporary element (15, 55) at a heating temperature that is a first temperature or higher, the first temperature being lower than a melting point of the synthetic resin by 50°C, and a second temperature or lower, the second temperature being lower than the melting point of the synthetic resin by 20°C, and pressing the temporary element (15, 55) from above in the secondary molding step. the method comprises using a thermoplastic resin having a melt flow rate of 20 g/10min or more and 60 g/10min or less and a flexural modulus of 1000 MPa or more and 2300 MPa or less as the synthetic resin, and molding the engaging element (10, 30, 40, 50) whose height dimension is less than the height dimension of the temporary element (15, 55) by 20 μm or more and 80 μm or less by heating at least a part of the temporary element (15, 55) at a heating temperature that is a first temperature or higher, the first temperature being lower than a melting point of the synthetic resin by 50°C, and a second temperature or lower, the second temperature being lower than the melting point of the synthetic resin by 20°C, and pressing the temporary element (15, 55) from above in the secondary molding step.
A method of heating an emissions control component prior to engine startup, the method comprising: operating a valve to provide a path for fluid flow to the emissions control component that bypasses engine cylinders of the engine; operating a flow control device (102,104) to provide the fluid flow bypassing the engine cylinders through the path; and activating a heating element upstream of the emissions control component to heat the fluid flow bypassing the engine cylinders prior to an inlet to the emissions control component. operating a valve to provide a path for fluid flow to the emissions control component that bypasses engine cylinders of the engine; operating a flow control device (102,104) to provide the fluid flow bypassing the engine cylinders through the path; and activating a heating element upstream of the emissions control component to heat the fluid flow bypassing the engine cylinders prior to an inlet to the emissions control component.
A method for providing a scalable compute fabric, comprising: determining a workflow for processing by the scalable compute fabric, wherein the workflow is based on an instruction set; configuring a pipeline dynamically for processing the workflow, wherein the configuration of the pipeline is based on a size and a type of instructions of the instruction set; wherein configuration includes dynamically locking, sharing, and assigning fixed function hardware units within the scalable compute fabric into pipelines, the sharing based on a programmable policy; arbitrating the sharing of the fixed function hardware units between the pipelines based on the programmable policy; and executing the workflow using the pipeline, wherein multiple pipelines are configured to accept simultaneous multiple instruction multiple data (MIMD) streams. determining a workflow for processing by the scalable compute fabric, wherein the workflow is based on an instruction set; configuring a pipeline dynamically for processing the workflow, wherein the configuration of the pipeline is based on a size and a type of instructions of the instruction set; wherein configuration includes dynamically locking, sharing, and assigning fixed function hardware units within the scalable compute fabric into pipelines, the sharing based on a programmable policy; arbitrating the sharing of the fixed function hardware units between the pipelines based on the programmable policy; and executing the workflow using the pipeline, wherein multiple pipelines are configured to accept simultaneous multiple instruction multiple data (MIMD) streams.
A cross flow fan (44; 70; 170; 202; 208) to be incorporated into an aircraft comprising: a cross flow fan rotor (44; 74; 174) to be positioned in an aircraft; a drive arrangement for said cross flow fan rotor (44; 74; 174); and a plurality of vanes (82, 84, 85; 182, 184) positioned downstream of said cross flow fan rotor (44; 74; 174), characterised in that: said plurality of vanes (82, 84, 85; 182, 184) turn air through distinct angles, and in that a first vane (84; 184) spaced from a second vane (82; 182) in a direction of rotation of said fan rotor (44; 74; 174) will turn the air through a greater angle than said second vane (82; 182). a cross flow fan rotor (44; 74; 174) to be positioned in an aircraft; a drive arrangement for said cross flow fan rotor (44; 74; 174); and a plurality of vanes (82, 84, 85; 182, 184) positioned downstream of said cross flow fan rotor (44; 74; 174), characterised in that: said plurality of vanes (82, 84, 85; 182, 184) turn air through distinct angles, and in that a first vane (84; 184) spaced from a second vane (82; 182) in a direction of rotation of said fan rotor (44; 74; 174) will turn the air through a greater angle than said second vane (82; 182).
Method for controlling an unloading process of a transport vehicle configured as a silo vehicle for powdery and free-flowing filling materials, wherein - a user is instructed by a digitally guided menu navigation of a display unit to carry out work steps of the unloading process, - measurement data determined by at least one sensor are evaluated by a control device and transmitted to the user in the form of queries and/or instructions for action via the display unit, - the queries and/or instructions for action acknowledged by the user are received in the form of inputs on the display unit in order to proceed to a further work step of the unloading process, - instructions for action are executed by the user and/or by actuators connected to the control device, - the user is guided through the complete unloading process of the transport vehicle by the queries and/or instructions for action and the acknowledgement, wherein parameters for the unloading process for powdery and free-flowing filling materials are determined by the control device based on the measurement data determined by the at least one sensor, in order to optimize the unloading process for properties of a filling material. - a user is instructed by a digitally guided menu navigation of a display unit to carry out work steps of the unloading process, - measurement data determined by at least one sensor are evaluated by a control device and transmitted to the user in the form of queries and/or instructions for action via the display unit, - the queries and/or instructions for action acknowledged by the user are received in the form of inputs on the display unit in order to proceed to a further work step of the unloading process, - instructions for action are executed by the user and/or by actuators connected to the control device, - the user is guided through the complete unloading process of the transport vehicle by the queries and/or instructions for action and the acknowledgement, wherein parameters for the unloading process for powdery and free-flowing filling materials are determined by the control device based on the measurement data determined by the at least one sensor, in order to optimize the unloading process for properties of a filling material.
A needleless injection device with a lower part receiving an agent cartridge and an upper part providing the energy needed for the injection; the upper part contains energy storage parts, namely start unit(s) and supplementary unit(s), capable of elastic form-change; furthermore, the device has a lock mechanism maintaining the tension of the energy storage parts, and a release mechanism to release the lock; characterized by that the upper part contains an internally threaded part adjoining to the lower part, and a tube of the lower part, with external threading, stretches into the upper part and at the bottom fits into the internal thread of the adjoining part of the upper part, thus the lower part is attached to the upper part in a revolving manner, in a way that rotating it in relation to the upper part, it does constrained movement in the direction of the device's longitudinal axis, approaching the upper part, that is, moving in a telescopic way, and results the tension state of the energy storage parts; at least one start unit, capable of storing min. 60%, preferably 80-90% of the total discharge energy (pressure), with the reversible elastic distortion at max. 25%, practically 15- 20% of the internal length of the agent cartridge; wherein the device is provided with separate structural components for stretching the start unit and limit its relaxation; and the start unit is a bundle of polyurethane springs fitted inside the device in a separate case, at stretching it is joined with the means transferring the stretching power, the lock mechanism, by a release rod placed in a spacer, having no contact with other energy storage parts.
Locking device for controlling the closing sequence of doubleleaf swing doors by means of a sliding rail door closing device, wherein the one door leaf is a bottom-closing, so-called inactive leaf and the second leaf is a top-closing, so-called active leaf, wherein the sliding block of the active leaf is connected to a locking rod which extends parallel to the sliding rail and wherein for holding the active leaf in the open waiting position the movement of the locking rod can be blocked by a locking device whose blocking effect is induced by opening the inactive leaf and can be released by closing the inactive leaf, wherein the locking device displays a locking member which is supported against movement along the sliding rail and which can be moved in a releasable connection with the locking rod which can block a relative movement of the locking rod in its longitudinal direction with respect to the locking member, wherein the locking member is a clamping plate having an aperture through which the locking rod extends, wherein with a clamping plate whose plane is aligned normally to the longitudinal direction of the locking rod, the aperture of the clamping plate comprises the cross-sectional area of the locking rod in a clearance fit, wherein the clamping plate is held pivotally on a clamping plate holder which relative to the sliding rail can be moved within a limited range parallel to the longitudinal direction of the rail, wherein the pivot axis of the clamping plate on the locking rod extends past this, and wherein a spring tensioned between the clamping plate holder and the clamping plate exerts a force parallel to the locking rod with respect to the pivot axis of the clamping plate eccentrically on the clamping plate, wherein the locking member with an interposed elastic spring is supported opposite the sliding rail, wherein a triggering lever (14.1) supported on the sliding rail without the interposition of a spring projects into this movement path of the locking member and/or a part which is moved together with this, which cover this distance with elastic deformation of the elastic spring, and wherein the connection between the locking rod and locking member can be released by pressing the locking member and/or a part which moves together with this on the triggering lever (14.1) and by simultaneously advancing the locking rod, characterised by the fact that the direction of the blockable relative movement of the locking rod is aligned with that end of the sliding rail which is located closer to the pivot axis of the active leaf, and that additionally a second locking member supported opposite the longitudinal movement along the sliding rail can be incorporated into a releasable connection with the locking rod by means of a closing movement of the inactive leaf, and that through this connection a relative movement of the locking rod in its longitudinal direction can be blocked in the direction which is aligned to the end of the sliding rail which is turned away from the pivot axis of the active leaf.
An antibody composition for use in preventing or treating an infection with a HBV having a G145R mutation of HBV surface antigen (HBsAg) or a YMDD (tyrosine-methionine-aspartate-aspartate) mutation of HBV DNA polymerase, the composition comprising, as an active ingredient, an antibody comprising: a heavy-chain variable region (V H) having the amino acid sequence of SEQ ID NO: 2, and a light-chain variable region (V L) having the amino acid sequence of SEQ ID NO: 7.
Turbomachine comprising at least one circulation structure, the circulation structure having an annular space which has flow guide elements and surrounds and is open to a main current path, a two-part housing of the turbomachine for receiving the circulation structure being divided in a radial plane of separation (Ts) into a front housing region and a rear housing region, characterized in that the circulation structure has a two-part structure housing which is divided in a radial plane of separation (Tz) into a front structure region and a rear structure region.
A heat conductive sheet comprising a resin and a particulate carbon material, wherein the resin is a combination of a thermoplastic fluororesin that is solid at a temperature of 23 °C in a proportion of 80 to 30% by mass and a thermoplastic fluororesin that is liquid at a temperature of 23 °C in a proportion of 20 to 70% by mass among the resin; and the heat conductive sheet has an Asker C hardness at 25 °C of 60 or more and a thermal resistance value under a pressure of 0.5 MPa of 0.20 °C/W or less, wherein the Asker C hardness is measured at a predetermined temperature of 25 °C using a hardness tester according to the Asker C method specified in the Japan Rubber Association Standard, and the thermal resistance value under the pressure of 0.5 MPa of the heat conductive sheet is measured using a resin material thermal resistance tester, wherein the sample of the heat conductive sheet is cut into a size of 1 cm square and the thermal resistance is measured when a constant pressure of 0.5 MPa is applied and the measurement is carried out such that the sample temperature is 50 °C. wherein the resin is a combination of a thermoplastic fluororesin that is solid at a temperature of 23 °C in a proportion of 80 to 30% by mass and a thermoplastic fluororesin that is liquid at a temperature of 23 °C in a proportion of 20 to 70% by mass among the resin; and the heat conductive sheet has an Asker C hardness at 25 °C of 60 or more and a thermal resistance value under a pressure of 0.5 MPa of 0.20 °C/W or less, wherein the Asker C hardness is measured at a predetermined temperature of 25 °C using a hardness tester according to the Asker C method specified in the Japan Rubber Association Standard, and the thermal resistance value under the pressure of 0.5 MPa of the heat conductive sheet is measured using a resin material thermal resistance tester, wherein the sample of the heat conductive sheet is cut into a size of 1 cm square and the thermal resistance is measured when a constant pressure of 0.5 MPa is applied and the measurement is carried out such that the sample temperature is 50 °C.
A host unit for wideband digital RF transport, the unit comprising: a plurality of inputs, each input configured to receive a wideband RF signal; a plurality of analog to digital converter circuits, each coupled to a selected one of the plurality of inputs, wherein each analog to digital converter circuit is configured to generate a sample stream, wherein each analog to digital converter circuit is configured to operate at a selected sample rate related to a signal bandwidth of its associated wideband RF signal; and a multiplexer circuit configured to multiplex together the plurality of sample streams into one serial bit stream at a fixed bit rate. a plurality of inputs, each input configured to receive a wideband RF signal; a plurality of analog to digital converter circuits, each coupled to a selected one of the plurality of inputs, wherein each analog to digital converter circuit is configured to generate a sample stream, wherein each analog to digital converter circuit is configured to operate at a selected sample rate related to a signal bandwidth of its associated wideband RF signal; and a multiplexer circuit configured to multiplex together the plurality of sample streams into one serial bit stream at a fixed bit rate.
An optical waveguide, comprising: an LED element, and a body of optically transmissive material having a width substantially greater than an overall thickness thereof and including a first side, a second side opposite the first side, and an interior coupling cavity extending between the first and second sides, wherein the interior coupling cavity receives the LED element, the body of optically transmissive material further comprising a first array of light mixing cavities extending at least partially through the waveguide body, and the first array of light mixing cavities fully surrounding the interior coupling cavity, wherein the waveguide body utilizes total internal reflection, wherein the body of optically transmissive material further comprises a second array of light mixing cavities, characterized in that the first array is formed with a first plurality of cavities of a first size, said cavities being disposed around the interior coupling cavity, and the second array is formed by a second plurality of cavities of a second size, said cavities being disposed around the interior coupling cavity, and wherein the second size is larger than the first size, wherein the cavities of the second array are offset from and surround the first array, and wherein the first array and the second array are arranged in two coaxial circular patterns centered on the interior coupling cavity. an LED element, and a body of optically transmissive material having a width substantially greater than an overall thickness thereof and including a first side, a second side opposite the first side, and an interior coupling cavity extending between the first and second sides, wherein the interior coupling cavity receives the LED element, the body of optically transmissive material further comprising a first array of light mixing cavities extending at least partially through the waveguide body, and the first array of light mixing cavities fully surrounding the interior coupling cavity, wherein the waveguide body utilizes total internal reflection, wherein the body of optically transmissive material further comprises a second array of light mixing cavities, characterized in that the first array is formed with a first plurality of cavities of a first size, said cavities being disposed around the interior coupling cavity, and the second array is formed by a second plurality of cavities of a second size, said cavities being disposed around the interior coupling cavity, and wherein the second size is larger than the first size, wherein the cavities of the second array are offset from and surround the first array, and wherein the first array and the second array are arranged in two coaxial circular patterns centered on the interior coupling cavity.
An anti li p10 antibody comprising a VH domain comprising a CDR1 comprising the amino acid sequence of Seq. Id. No. 4, a CDR2 comprising the amino acid sequence of Seq. Id. No. 5, CDR3 sequence comprising the amino acid sequence of Seq. Id. No. 6., and a VL domain comprising a CDR1 comprising the amino acid sequence of Seq. Id. No. 7, a CDR2 comprising the amino acid sequence of Seq. Id. No. 8, a CDR3 sequence comprising the amino acid sequence of Seq. Id. No. 9.
A turn-off circuit configured to dynamically control a turn-off operation for a power semiconductor switch (104, 106, 304, 564, 561) in response to a fault signal (248, 348, 448, 548) indicating the presence of a short-circuit or an overcurrent, wherein the turn-off circuit comprises: an element having a variable resistance (364, 564), said element being coupled to provide, to a control input of the power semiconductor switch, a potential (312, 512) low enough to switch the power semiconductor switch off; a detection circuit (369, 569) designed to detect an end of a Miller plateau based on a control input voltage or a control input current of the power semiconductor switch; and a control circuit designed to control, in a closed control loop, a resistance value of the element having a variable resistance in such a way that a voltage present at the control input of the power semiconductor switch is reduced after the end of a Miller plateau at a predetermined rate. an element having a variable resistance (364, 564), said element being coupled to provide, to a control input of the power semiconductor switch, a potential (312, 512) low enough to switch the power semiconductor switch off; a detection circuit (369, 569) designed to detect an end of a Miller plateau based on a control input voltage or a control input current of the power semiconductor switch; and a control circuit designed to control, in a closed control loop, a resistance value of the element having a variable resistance in such a way that a voltage present at the control input of the power semiconductor switch is reduced after the end of a Miller plateau at a predetermined rate.
A method of processing liquefied waste plastic, wherein the method comprises: step a) hydrotreating a stream of liquified waste plastic in presence of hydrogen and a catalyst in a first hydrotreatment step in mild hydrotreatment conditions in a temperature from 170 °C to 350 °C, to form a stream of hydrotreated LWP, in a reactor system comprising at least one reactor each containing at least one catalyst bed, step b) blending said stream of hydrotreated LWP with a stream comprising hydrocarbons to form a mixed stream of hydrotreated LWP and hydrocarbons, wherein said mixed stream comprising hydrotreated LWP and hydrocarbons is kept at a temperature of 140 °C to 350 °C before subjecting it to hydrotreatment step c), and step c) hydrotreating said mixed stream of hydrotreated LWP and hydrocarbons in presence of hydrogen and a catalyst in severe hydrotreatment conditions in a temperature of from 355 °C to 400 °C to provide a refined stream. step a) hydrotreating a stream of liquified waste plastic in presence of hydrogen and a catalyst in a first hydrotreatment step in mild hydrotreatment conditions in a temperature from 170 °C to 350 °C, to form a stream of hydrotreated LWP, in a reactor system comprising at least one reactor each containing at least one catalyst bed, step b) blending said stream of hydrotreated LWP with a stream comprising hydrocarbons to form a mixed stream of hydrotreated LWP and hydrocarbons, wherein said mixed stream comprising hydrotreated LWP and hydrocarbons is kept at a temperature of 140 °C to 350 °C before subjecting it to hydrotreatment step c), and step c) hydrotreating said mixed stream of hydrotreated LWP and hydrocarbons in presence of hydrogen and a catalyst in severe hydrotreatment conditions in a temperature of from 355 °C to 400 °C to provide a refined stream.