mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for vapour phase crystal growth comprising: an envelope assembly (111, 113, 115) having at least one source module defining at least one source volume, at least one growth module defining at least one growth volume, and at least one manifold module defining at least one manifold volume, wherein one or more source modules, a manifold module and a growth module are configured co-operably to define a fluidly continuous envelope volume including a flow restrictor between each source volume and the growth volume; a vacuum vessel containing one or more such envelope assemblies; an evacuator to evacuate the vacuum vessel; a fluid communication path between the envelope volume and the vacuum vessel associated with each source volume at a location on the source volume side of its associated flow restrictor that is configurable to be selectively openable; a closure mechanism configured to selectively restrict the fluid communication path. an envelope assembly (111, 113, 115) having at least one source module defining at least one source volume, at least one growth module defining at least one growth volume, and at least one manifold module defining at least one manifold volume, wherein one or more source modules, a manifold module and a growth module are configured co-operably to define a fluidly continuous envelope volume including a flow restrictor between each source volume and the growth volume; a vacuum vessel containing one or more such envelope assemblies; an evacuator to evacuate the vacuum vessel; a fluid communication path between the envelope volume and the vacuum vessel associated with each source volume at a location on the source volume side of its associated flow restrictor that is configurable to be selectively openable; a closure mechanism configured to selectively restrict the fluid communication path.
A method for operating a user equipment in a wireless communication system, the method comprising: performing communication through a link established between the UE and another UE; transmitting a first message for requesting an update of an identifier of the link; receiving a second message for responding to the first message; and reestablishing a packet data convergence protocol (PDCP) entity of the UE based on the update of the identifier. performing communication through a link established between the UE and another UE; transmitting a first message for requesting an update of an identifier of the link; receiving a second message for responding to the first message; and reestablishing a packet data convergence protocol (PDCP) entity of the UE based on the update of the identifier.
A system for communicating emergency event notifications to one or more emergency responders, the system comprising: an emergency service computing device configured to: receive, from at least one mobile computing device, a notification that an emergency event has occurred at a non-emergency vehicle in proximity to the at least one mobile computing device; determine, from the notification, a location of the non-emergency vehicle; determine, using one or more policies, an appropriate degree of proximity between the location of the non-emergency vehicle and emergency responder computing devices based on locations of emergency vehicles associated with the emergency responder computing devices; and send the notification to at least one emergency responder computing device in the determined appropriate degree of proximity to the location of the non-emergency vehicle. receive, from at least one mobile computing device, a notification that an emergency event has occurred at a non-emergency vehicle in proximity to the at least one mobile computing device; determine, from the notification, a location of the non-emergency vehicle; determine, using one or more policies, an appropriate degree of proximity between the location of the non-emergency vehicle and emergency responder computing devices based on locations of emergency vehicles associated with the emergency responder computing devices; and send the notification to at least one emergency responder computing device in the determined appropriate degree of proximity to the location of the non-emergency vehicle.
A hydraulic machine, comprising: a cylinder disposed along a radial direction of the hydraulic machine; a piston including a piston head having an outer peripheral surface curved in a cross section taken along an axial direction of the cylinder, the piston being configured to reciprocate inside the cylinder; a cam configured to engage with a root end portion of the piston and to rotate in connection with a reciprocating motion of the piston; a piston ring disposed on the outer peripheral surface of the piston head so as to be in slide contact with an inner peripheral surface of the cylinder, wherein the piston ring is configured to be deformable so that a shape of a seal line, which is formed between the piston head and the cylinder by the piston ring, changes between a circular shape in the non-tilted state and an oval shape in the tilted state and an angle formed by the seal line with a plane orthogonal to the axial direction of the cylinder is variable in accordance with tilting of the piston; and a biasing member configured to push the piston ring outward in a radial direction, characterised in that the biasing member is disposed on the piston head only on portions opposite to each other with respect to a major axis of the oval shape of the seal line, and wherein the biasing member is not disposed on the piston head on portions opposite to each other with respect to a minor axis of the oval shape of the seal line. a cylinder disposed along a radial direction of the hydraulic machine; a piston including a piston head having an outer peripheral surface curved in a cross section taken along an axial direction of the cylinder, the piston being configured to reciprocate inside the cylinder; a cam configured to engage with a root end portion of the piston and to rotate in connection with a reciprocating motion of the piston; a piston ring disposed on the outer peripheral surface of the piston head so as to be in slide contact with an inner peripheral surface of the cylinder, wherein the piston ring is configured to be deformable so that a shape of a seal line, which is formed between the piston head and the cylinder by the piston ring, changes between a circular shape in the non-tilted state and an oval shape in the tilted state and an angle formed by the seal line with a plane orthogonal to the axial direction of the cylinder is variable in accordance with tilting of the piston; and a biasing member configured to push the piston ring outward in a radial direction, characterised in that the biasing member is disposed on the piston head only on portions opposite to each other with respect to a major axis of the oval shape of the seal line, and wherein the biasing member is not disposed on the piston head on portions opposite to each other with respect to a minor axis of the oval shape of the seal line.
A tool holder arrangement for a perforated panel with at least one tool holder base insert, wherein the tool holder base insert has a board interface (8, 14) for affixing the tool holder base insert on the perforated panel, with a tool holder device for holding at least one tool or one tool accessory part, wherein the tool holder device has a slide holder and the tool holder base insert has a slide portion, wherein the tool holder device, by means of a sliding movement in a mounting direction which is co-directional with a mounting plane, is slidable onto the at least one tool holder base insert in order to bring the tool holder device and the tool holder base insert into a connected state, wherein the slide portion has at least one track portion (16a, b) and the slide holder has at least one track wing portion (24a, b), wherein during the sliding movement, the at least one track wing portion (24a, b) is guided by the at least one track portion (16a, b), wherein in the connected state, the at least one track portion (16a, b) secures the at least one track wing portion (24a, b) in a direction vertical to the mounting plane in a form-fit manner, characterized in that in the connected state, the track wing portion (24a, b) is disposed between the perforated panel and the tool holder base insert.
A grid assembly for a dry floor system, the grid assembly comprising: a grid having a lattice forming a first array of apertures; a support interlayer adhered beneath the grid and having a second array of apertures in alignment with the first array of apertures, the first array of apertures, second array of apertures and thickness of the support interlayer configured to induce passage of liquid; a wicking layer in contact with the support interlayer opposite the grid; and a base layer underlying the wicking layer. a grid having a lattice forming a first array of apertures; a support interlayer adhered beneath the grid and having a second array of apertures in alignment with the first array of apertures, the first array of apertures, second array of apertures and thickness of the support interlayer configured to induce passage of liquid; a wicking layer in contact with the support interlayer opposite the grid; and a base layer underlying the wicking layer.
A method of determining in a spectrometer an average frequency of a series of ion detection pulses during a measurement interval (Ml), the method being characterized by: - determining the duration of an auxiliary interval (Al), wherein ∘ the auxiliary interval (Al) overlaps the measurement interval (Ml), ∘ the auxiliary interval (Al) begins at the last pulse preceding the measurement interval (Ml), and ∘ the auxiliary interval (Al) ends at the last pulse of the measurement interval, - determining the number of pulses during the auxiliary interval, and - dividing the number of pulses by the duration of the auxiliary interval so as to produce the average frequency (f AV). - determining the duration of an auxiliary interval (Al), wherein ∘ the auxiliary interval (Al) overlaps the measurement interval (Ml), ∘ the auxiliary interval (Al) begins at the last pulse preceding the measurement interval (Ml), and ∘ the auxiliary interval (Al) ends at the last pulse of the measurement interval, ∘ the auxiliary interval (Al) overlaps the measurement interval (Ml), ∘ the auxiliary interval (Al) begins at the last pulse preceding the measurement interval (Ml), and ∘ the auxiliary interval (Al) ends at the last pulse of the measurement interval, - determining the number of pulses during the auxiliary interval, and - dividing the number of pulses by the duration of the auxiliary interval so as to produce the average frequency (f AV).
A system comprising: one or more traction motors configured to propel a vehicle; a controller configured to control at least a first subset of the one or more traction motors to generate electric power during rollback of the vehicle down a grade; and an electrical device configured to be electrically coupled with the one or more traction motors, the electrical device comprising (i) a second subset of the one or more traction motors and/or (ii) a compressor, characterized in that, the controller is configured to control the electrical device to consume the electric power generated from the rollback of the vehicle by performing work with the electric power during the rollback of the vehicle, wherein the work includes (i) generating torque by the second subset of the one or more traction motors to stop the rollback of the vehicle down the grade or propel the vehicle up the grade and/or (ii) compressing air by the compressor to load an air reservoir of the vehicle. one or more traction motors configured to propel a vehicle; a controller configured to control at least a first subset of the one or more traction motors to generate electric power during rollback of the vehicle down a grade; and an electrical device configured to be electrically coupled with the one or more traction motors, the electrical device comprising (i) a second subset of the one or more traction motors and/or (ii) a compressor, characterized in that, the controller is configured to control the electrical device to consume the electric power generated from the rollback of the vehicle by performing work with the electric power during the rollback of the vehicle, wherein the work includes (i) generating torque by the second subset of the one or more traction motors to stop the rollback of the vehicle down the grade or propel the vehicle up the grade and/or (ii) compressing air by the compressor to load an air reservoir of the vehicle.
A method of blending between different characteristics of accelerator position and output torque in a vehicle, the method comprising: detecting a first operating mode of a vehicle and applying a source characteristic; detecting a change of operating mode of the vehicle and selecting a target characteristic; blending the characteristic applied from said source characteristic to the target characteristic at a base blending rate, characterised in that said blending rate being increased if during blending the position of the accelerator pedal is moved in the direction of torque change due to blending. detecting a first operating mode of a vehicle and applying a source characteristic; detecting a change of operating mode of the vehicle and selecting a target characteristic; blending the characteristic applied from said source characteristic to the target characteristic at a base blending rate, characterised in that said blending rate being increased if during blending the position of the accelerator pedal is moved in the direction of torque change due to blending.
Gearing system having a gearing and an electromagnetically operable brake, the brake having a coil core connected to a braking surface part for conjoint rotation, a shaft being mounted in a housing part of the gearing by means of at least one bearing, a catch being connected to the shaft for conjoint rotation and having outer teeth that engage with inner teeth of a brake lining carrier such that the brake lining carrier is connected to the shaft in a rotationally fixed but axially movable manner, the braking surface part having a braking surface facing the brake lining carrier, an armature disc being arranged between the coil core and the brake lining carrier and arranged in a rotationally fixed but axially displaceable manner with respect to the coil core, the braking surface part being connected to a bearing flange, the bearing seat of which in particular defines a clearance, the braking surface part being centred on the bearing flange, characterised in that the bearing flange is connected to a cover part that is connected to the housing part, the cover part receiving a shaft seal ring that runs on the shaft, the bearing flange being centred on the cover part and the cover part being centred on the housing part.
A method of sizing glass fibers or flakes, the method comprising: mixing the glass fibers or flakes with an aqueous solution to make an aqueous mixture of the glass fibers or flakes, wherein the aqueous solution comprises a base to adjust the aqueous mixture to an alkaline pH; adding a carboxyl silane composition to the aqueous mixture, wherein the carboxyl silane composition reacts with surfaces of the glass fibers or flakes to chemically bind the carboxyl silane composition to the glass fibers or flakes; and adding a metal halide compound to the aqueous mixture, wherein the metal halide compound reacts with the carboxyl silane to form a metallic carboxylate promoter that is chemically bonded to the glass fibers or flakes, and wherein the metallic carboxylate promoter promote the polymerization of an organic resin. mixing the glass fibers or flakes with an aqueous solution to make an aqueous mixture of the glass fibers or flakes, wherein the aqueous solution comprises a base to adjust the aqueous mixture to an alkaline pH; adding a carboxyl silane composition to the aqueous mixture, wherein the carboxyl silane composition reacts with surfaces of the glass fibers or flakes to chemically bind the carboxyl silane composition to the glass fibers or flakes; and adding a metal halide compound to the aqueous mixture, wherein the metal halide compound reacts with the carboxyl silane to form a metallic carboxylate promoter that is chemically bonded to the glass fibers or flakes, and wherein the metallic carboxylate promoter promote the polymerization of an organic resin.
A mobile battery powered workstation having a wheeled base portion and an upper workstation area coupled by at least one adjustable height column, the wheeled base portion having a sliding battery power bay for service and replacement of at least one battery therein; wherein the sliding battery power bay comprises modular compartments for receiving a single battery or multiple batteries therein, wherein the single battery and multiple batteries are used to adjust the runtime of the workstation; the upper workstation area having a monitor, and operably coupled to the at least one battery in the sliding battery power bay; a computer and printer operably coupled to the monitor and the at least one battery in the sliding battery power bay; the at least one adjustable height column operably coupling the wheeled base portion to the upper workstation area and configured to electronically slide vertically to adjust the height of the upper workstation area; and a bracket being located on the at least one adjustable height column, at least one spare battery being stored in said bracket for faster and more efficient battery replacement. wherein the sliding battery power bay comprises modular compartments for receiving a single battery or multiple batteries therein, wherein the single battery and multiple batteries are used to adjust the runtime of the workstation; the upper workstation area having a monitor, and operably coupled to the at least one battery in the sliding battery power bay; a computer and printer operably coupled to the monitor and the at least one battery in the sliding battery power bay; the at least one adjustable height column operably coupling the wheeled base portion to the upper workstation area and configured to electronically slide vertically to adjust the height of the upper workstation area; and a bracket being located on the at least one adjustable height column, at least one spare battery being stored in said bracket for faster and more efficient battery replacement.
A sensor device for a container of a liquid substance, such as a tank of a motor vehicle, the sensor device comprising a body (10a; 10a, 101) with a housing portion having a closing structure that includes an interface wall (21; 21, 101) having an inner surface and an outer surface, wherein the housing portion is pre-arranged for being mounted in such a way that at least one portion of the outer surface of the interface wall (21; 21, 101) faces the inside of the container so as to be in contact with the liquid substance, and the inner surface of the interface wall (21; 21, 101) is isolated from the inside of the container, wherein a first arrangement (15, 17, J) for detection of the level of the liquid substance is associated to the body (10a; 10a, 101), the first arrangement (15, 17, J) for detection including a level-sensing part associated to the interface wall (21; 21, 101) and designed to extend within the container, wherein a second arrangement (17, 40; 17, 100; 17, 40 1; 17, 40 2; 17, 40 3) for detection of at least one characteristic of the liquid substance is associated to the interface wall (21; 21, 101), the second arrangement comprising at least one emitter (42; 42 2) and at least one receiver (44; 44 2) of a given optical radiation, such as a radiation in the visible or in the infrared; wherein at least one first portion of the interface wall (21; 21, 101) is made of a material suitable for propagation of the given optical radiation, the at least one emitter (42; 42 1) and the at least one receiver (44; 44 2) being optically coupled to the inner surface of the interface wall (21; 21, 101) at said first portion; and wherein said first portion of the interface wall (21; 21, 101) is shaped so as to contribute to propagation of the given optical radiation, by refraction and/or reflection, from the at least one emitter (42; 42 2) to the at least one receiver (44; 44 2), in such a way that the given optical radiation is at least in part propagated through said first portion of the interface wall (21; 21, 101) towards the at least one receiver, at an angle and/or with an intensity that are/is variable as a function of said at least one characteristic of the liquid substance, characterized in that the housing portion is pre-arranged for being mounted at an opening of the container, and in that the level-sensing part projects from the interface wall (21; 21, 101) to extend into the container in a level-sensing axis.
A computer-implemented method for implementing a function jump, comprising: receiving a call instruction for a first function, wherein the call instruction includes an address of the first function; confirming that an address of the first function has been stored in a first data structure, wherein addresses of a plurality of functions are stored in the first data structure; searching a second data structure for an address of a patch function of the first function based on the address of the first function, wherein the patch function of the first function is registered to replace the first function, and correspondences between addresses of a plurality of functions and patch functions of the plurality of functions are stored in the second data structure; and jumping, based on the address of the patch function of the first function, from the first function to the patch function of the first function for execution, to respond to the call instruction. receiving a call instruction for a first function, wherein the call instruction includes an address of the first function; confirming that an address of the first function has been stored in a first data structure, wherein addresses of a plurality of functions are stored in the first data structure; searching a second data structure for an address of a patch function of the first function based on the address of the first function, wherein the patch function of the first function is registered to replace the first function, and correspondences between addresses of a plurality of functions and patch functions of the plurality of functions are stored in the second data structure; and jumping, based on the address of the patch function of the first function, from the first function to the patch function of the first function for execution, to respond to the call instruction.