mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant system comprising: a compressor for compressing refrigerant, said compressor delivering refrigerant downstream to a condenser, refrigerant passing from said condenser downstream to an expansion device, and downstream of said expansion device to an evaporator, said refrigerant being returned to said compressor from said evaporator, at least one fluid-moving device (26, 34) for moving fluid across at least one of said condenser and said evaporator, said fluid-moving device (26, 34) including an automated mechanical drive mechanism (28, 36), with said automated mechanical drive mechanism (28, 36) being operable to vary a drive speed of said at least one fluid-moving device (26, 34) and a control for determining a desired drive speed for said at least one fluid-moving device (26, 34) and controlling said automated mechanical drive mechanism (28, 36) to achieve said desired drive speed, wherein said refrigerant system further comprises an unloader function or an economizer function and wherein said automated mechanical drive mechanism (28, 36) is configured to vary the drive speed of said at least one fluid-moving device (26, 34) dependent on whether said unloader or economizer functions are actuated, said automated mechanical drive mechanism (28, 36) includes a belt being driven on a drive pulley to drive a driven pulley, characterised in that at least one of said drive and driven pulleys having a variable diameter to adjust said drive speed of said fluid-moving device (26, 34), said control changing said variable diameter to adjust said drive speed. a compressor for compressing refrigerant, said compressor delivering refrigerant downstream to a condenser, refrigerant passing from said condenser downstream to an expansion device, and downstream of said expansion device to an evaporator, said refrigerant being returned to said compressor from said evaporator, at least one fluid-moving device (26, 34) for moving fluid across at least one of said condenser and said evaporator, said fluid-moving device (26, 34) including an automated mechanical drive mechanism (28, 36), with said automated mechanical drive mechanism (28, 36) being operable to vary a drive speed of said at least one fluid-moving device (26, 34) and a control for determining a desired drive speed for said at least one fluid-moving device (26, 34) and controlling said automated mechanical drive mechanism (28, 36) to achieve said desired drive speed, wherein said refrigerant system further comprises an unloader function or an economizer function and wherein said automated mechanical drive mechanism (28, 36) is configured to vary the drive speed of said at least one fluid-moving device (26, 34) dependent on whether said unloader or economizer functions are actuated, said automated mechanical drive mechanism (28, 36) includes a belt being driven on a drive pulley to drive a driven pulley,
A method of controlling a first vehicle autonomously in order to complete a turn, the method comprising: predicting, by one or more processors, before maneuvering the first vehicle to complete the turn, that a second vehicle (680, 780, 880) will take a responsive action in response to maneuvering the first vehicle; maneuvering, by the one or more processors, the first vehicle autonomously to complete a first portion of the turn in a way that would allow the second vehicle to pass by the first vehicle; determining, by the one or more processors, whether the second vehicle is taking the responsive action in response to the maneuvering; and after completing the first portion of the turn, maneuvering the first vehicle autonomously to complete a second portion of the turn, by the one or more processors, by controlling the first vehicle autonomously based on a result of the determining. predicting, by one or more processors, before maneuvering the first vehicle to complete the turn, that a second vehicle (680, 780, 880) will take a responsive action in response to maneuvering the first vehicle; maneuvering, by the one or more processors, the first vehicle autonomously to complete a first portion of the turn in a way that would allow the second vehicle to pass by the first vehicle; determining, by the one or more processors, whether the second vehicle is taking the responsive action in response to the maneuvering; and after completing the first portion of the turn, maneuvering the first vehicle autonomously to complete a second portion of the turn, by the one or more processors, by controlling the first vehicle autonomously based on a result of the determining.
An over-the-air measurement system for testing a device under test, the OTA measurement system comprising a plurality of feed antennas (24, 26), a test location for the device under test, and a reflector array with a main reflector and a sub-reflector, the plurality of feed antennas (24, 26) facing the sub-reflector, the reflector array being located such that a signal path is established between the plurality of feed antennas (24, 26) and the test location via the sub-reflector and the main reflector, the sub-reflector having at least one focal point, the plurality of feed antennas (24, 26) comprising a first feed antenna and at least one second feed antenna, characterized in that the first feed antenna is located at the focal point of the sub-reflector, and the at least one second feed antenna is located offset from the focal point of the sub-reflector. the plurality of feed antennas (24, 26) facing the sub-reflector, the reflector array being located such that a signal path is established between the plurality of feed antennas (24, 26) and the test location via the sub-reflector and the main reflector, the sub-reflector having at least one focal point, the plurality of feed antennas (24, 26) comprising a first feed antenna and at least one second feed antenna, characterized in that the first feed antenna is located at the focal point of the sub-reflector, and the at least one second feed antenna is located offset from the focal point of the sub-reflector.
A lightweight digital printing media comprising: a base paper that comprises: a fiber mixture comprising hardwood and softwood chemical pulps, and bleached chemi-thermo-mechanical pulp (BCTMP), the BCTMP being within a range of 5% to 60% by weight of total fiber in the fiber mixture; an internal sizing agent for neutral or alkaline conditions in a range of 0.5 to 3 kilograms per ton; and a wet- strength agent that is a thermosetting resin in a range of 0.1% to 3% total dry weight of the base paper, the internal sizing agent and the wet-strength agent being mixed in the fiber mixture to form a fiber furnish, wherein the base paper has a basis weight within a range of 35 to 75 grams per square meter (gsm) and wherein the refined fiber furnish has a Canadian Standard Freeness level within a range of 350 to 500 milliliters. a fiber mixture comprising hardwood and softwood chemical pulps, and bleached chemi-thermo-mechanical pulp (BCTMP), the BCTMP being within a range of 5% to 60% by weight of total fiber in the fiber mixture; an internal sizing agent for neutral or alkaline conditions in a range of 0.5 to 3 kilograms per ton; and a wet- strength agent that is a thermosetting resin in a range of 0.1% to 3% total dry weight of the base paper, the internal sizing agent and the wet-strength agent being mixed in the fiber mixture to form a fiber furnish, wherein the base paper has a basis weight within a range of 35 to 75 grams per square meter (gsm) and wherein the refined fiber furnish has a Canadian Standard Freeness level within a range of 350 to 500 milliliters.
An electrical load protection device connectable between an electrical load and an electrical supply, the device comprising: a circuit breaker operable between a closed state in which the load is connected to the supply, and an open state in which the load is disconnected from the supply; a current sensor for measuring current drawn by the load from the supply; a control unit configured to control the operation of the circuit breaker depending on the measured current in accordance with a trip characteristic, characterised in that the device is configured to maintain a load profile comprising data indicating how the load varies over one or more periods of time, and wherein said trip characteristic is determined by said load profile. a circuit breaker operable between a closed state in which the load is connected to the supply, and an open state in which the load is disconnected from the supply; a current sensor for measuring current drawn by the load from the supply; a control unit configured to control the operation of the circuit breaker depending on the measured current in accordance with a trip characteristic, characterised in that the device is configured to maintain a load profile comprising data indicating how the load varies over one or more periods of time, and wherein said trip characteristic is determined by said load profile.
Method for separating an MDI: (methylene diphenyl diisocyanate) feed stream, which feed stream comprises 4,4' MDI and one or more other MDI isomers, in particular 2,4' and/or 2,2' MDI, into a pure MDI product stream, which pure MDI product stream comprises 95-99 wt% 4,4' MDI, and into a technical grade MDI product stream, which technical grade MDI product stream is enriched in said other MDI isomers, which method comprises the steps of: a. cooling said MDI feed stream below its freezing point to form 4,4' MDI crystals, resulting in a mixed phase slurry of mother liquor and said crystals; b. cooling said slurry to form an under-cooled melt, by which said crystals further grow, wherein the available surface for crystal growth is not less than 5000 m 2 per m 3 of crystallizer volume; c. separating said crystals from the mother liquid in a forced transport wash column; d. heating at least a portion of the 4,4' MDI crystals to form a stream of liquid purified 4,4' MDI product; and e. washing the 4,4' MDI crystals in the wash column with a washing stream, which washing stream comprises at least a portion of said liquid purified 4,4' MDI product, in a countercurrent washing operation; wherein the concentration of said technical grade MDI product stream is controlled by adopting the discharge quantity of said technical grade MDI, and wherein the purity of the pure MDI product stream is controlled by adjustment of the flow rate of said washing stream in said wash column. a. cooling said MDI feed stream below its freezing point to form 4,4' MDI crystals, resulting in a mixed phase slurry of mother liquor and said crystals; b. cooling said slurry to form an under-cooled melt, by which said crystals further grow, wherein the available surface for crystal growth is not less than 5000 m 2 per m 3 of crystallizer volume; c. separating said crystals from the mother liquid in a forced transport wash column; d. heating at least a portion of the 4,4' MDI crystals to form a stream of liquid purified 4,4' MDI product; and e. washing the 4,4' MDI crystals in the wash column with a washing stream, which washing stream comprises at least a portion of said liquid purified 4,4' MDI product, in a countercurrent washing operation; wherein the concentration of said technical grade MDI product stream is controlled by adopting the discharge quantity of said technical grade MDI, and wherein the purity of the pure MDI product stream is controlled by adjustment of the flow rate of said washing stream in said wash column.
A binder for a positive electrode of a lithium-sulfur secondary battery, comprising an acrylic polymer, wherein the acrylic polymer comprises an acrylic monomer polymerized unit, a non-acrylic monomer polymerized unit and a redox monomer polymerized unit, wherein the acrylic polymer comprises the acrylic monomer polymerized unit in an amount of 30 wt.% or more.
A layered article, comprising at least one layer including a non-woven fabric of fiber, wherein: the layered article has a fused portion; and the layered article has an index A, which is represented by the equation, of 0.75×10 -6 m 3 /g or less: A = T / G where T represents a thickness (unit: m) of the fused portion and G represents a basis weight (unit: g/m 2), characterized in that T is from 5×10 -6 m to 28×10 -6 m. the layered article has a fused portion; and the layered article has an index A, which is represented by the equation, of 0.75×10 -6 m 3 /g or less: A = T / G where T represents a thickness (unit: m) of the fused portion and G represents a basis weight (unit: g/m 2), characterized in that T is from 5×10 -6 m to 28×10 -6 m.
A method implemented in a computing system for imaging seismic data, the method comprising: receiving a set of seismic data points, each point being represented by a plurality of coordinates in a first coordinate system; characterized in that the method further comprises: for each data point mapping two of the plurality of coordinates to a single coordinate in a second coordinate system, wherein the second coordinate system is constrained by a parameterization that defines a relationship between two coordinates in two dimensions of the first coordinate system such that values of the two coordinates in two dimensions of the first coordinate system simultaneously vary along one dimension of the second coordinate system according to the relationship, wherein the second coordinate system is a spiral coordinate system and each coordinate representing a data point in the second coordinate system is represented by a data point along a spiral, wherein the spiral has a spherical shape; and generating an image on a display, of the set of data points, by processing data including the coordinate representing the data point in the second coordinate system. receiving a set of seismic data points, each point being represented by a plurality of coordinates in a first coordinate system; characterized in that the method further comprises: for each data point mapping two of the plurality of coordinates to a single coordinate in a second coordinate system, wherein the second coordinate system is constrained by a parameterization that defines a relationship between two coordinates in two dimensions of the first coordinate system such that values of the two coordinates in two dimensions of the first coordinate system simultaneously vary along one dimension of the second coordinate system according to the relationship, wherein the second coordinate system is a spiral coordinate system and each coordinate representing a data point in the second coordinate system is represented by a data point along a spiral, wherein the spiral has a spherical shape; and generating an image on a display, of the set of data points, by processing data including the coordinate representing the data point in the second coordinate system. for each data point mapping two of the plurality of coordinates to a single coordinate in a second coordinate system, wherein the second coordinate system is constrained by a parameterization that defines a relationship between two coordinates in two dimensions of the first coordinate system such that values of the two coordinates in two dimensions of the first coordinate system simultaneously vary along one dimension of the second coordinate system according to the relationship, wherein the second coordinate system is a spiral coordinate system and each coordinate representing a data point in the second coordinate system is represented by a data point along a spiral, wherein the spiral has a spherical shape; and generating an image on a display, of the set of data points, by processing data including the coordinate representing the data point in the second coordinate system.
Optical storage medium comprising a substrate layer, a data layer having a pit/land data structure with data arranged in tracks on the substrate layer, and a nonlinear layer with a super-resolution material disposed on the data layer, wherein the data structure comprises diffractive pits and lands having a length above an optical resolution limit of a pickup for reading of the data and super-resolution pits and lands (2TP, 2TL, 3TP, 3TL) having a length below said optical resolution limit, said pits and lands having a defined length with regard to a channel bit length, characterized in that a diffractive land (8TL, DL1) preceding a super-resolution pit is extended by a first length (Δ, Δ') depending on the laser power of the pickup, to compensate a phase shift of said super-resolution pit, and a diffractive pit (8TP, DP1) preceding a super-resolution land is extended by the first length (Δ, Δ') depending on the laser power of the pickup, to compensate a phase shift of said super-resolution land. a substrate layer, a data layer having a pit/land data structure with data arranged in tracks on the substrate layer, and a nonlinear layer with a super-resolution material disposed on the data layer, wherein the data structure comprises diffractive pits and lands having a length above an optical resolution limit of a pickup for reading of the data and super-resolution pits and lands (2TP, 2TL, 3TP, 3TL) having a length below said optical resolution limit, said pits and lands having a defined length with regard to a channel bit length, characterized in that a diffractive land (8TL, DL1) preceding a super-resolution pit is extended by a first length (Δ, Δ') depending on the laser power of the pickup, to compensate a phase shift of said super-resolution pit, and a diffractive pit (8TP, DP1) preceding a super-resolution land is extended by the first length (Δ, Δ') depending on the laser power of the pickup, to compensate a phase shift of said super-resolution land.
A process for applying dry refractory mixes that do not contain cement to a surface using a dry gunnite machine having a nozzle, comprising the steps of: providing dry refractory material containing a setting agent into a storage area for the dry gunnite machine;; introducing the dry refractory material into an air flow generated within the dry gunnite machine; introducing a liquid binder into the air flow generated by the dry gunnite machine, wherein the liquid binder is mixed with the dry refractory material at or proximate the nozzle; and discharging the dry refractory mix through the nozzle for application to the surface to be coated with the refractory mix. providing dry refractory material containing a setting agent into a storage area for the dry gunnite machine;; introducing the dry refractory material into an air flow generated within the dry gunnite machine; introducing a liquid binder into the air flow generated by the dry gunnite machine, wherein the liquid binder is mixed with the dry refractory material at or proximate the nozzle; and discharging the dry refractory mix through the nozzle for application to the surface to be coated with the refractory mix.
A hand-held working machine, comprising: a machine body; a drive source mounted on the machine body; a cutting blade provided at a front portion of the machine body to protrude and driven by the drive source to cut off a cutting target; and a rear handle rotatably connected to a rear portion of the machine body and grasped by an operator, the rear handle including a throttle lever rotated by the operation of the operator and adjusting an output of the drive source, and a lock lever stopping and locking the rotation of the rear handle, characterized in that the rear handle includes a rotation lever being rotatably journaled to a shaft and acting on the lock lever and the throttle lever, and a torsion coil spring providing an urging force to the rotation lever to be located at a lock position, and in that in accordance with the rotation of the rotation lever at a non-lock position, the rotation of the throttle lever is regulated and the locking of the rear handle by the lock lever is released. a machine body; a drive source mounted on the machine body; a cutting blade provided at a front portion of the machine body to protrude and driven by the drive source to cut off a cutting target; and a rear handle rotatably connected to a rear portion of the machine body and grasped by an operator, the rear handle including a throttle lever rotated by the operation of the operator and adjusting an output of the drive source, and a lock lever stopping and locking the rotation of the rear handle, a throttle lever rotated by the operation of the operator and adjusting an output of the drive source, and a lock lever stopping and locking the rotation of the rear handle, the rear handle includes a rotation lever being rotatably journaled to a shaft and acting on the lock lever and the throttle lever, and a torsion coil spring providing an urging force to the rotation lever to be located at a lock position, a rotation lever being rotatably journaled to a shaft and acting on the lock lever and the throttle lever, and a torsion coil spring providing an urging force to the rotation lever to be located at a lock position, and in that in accordance with the rotation of the rotation lever at a non-lock position, the rotation of the throttle lever is regulated and the locking of the rear handle by the lock lever is released.
A method of making a structural fibrous panel having a predefined area, the method comprising: positioning a movable platen (22, 88, 112) having a receiving surface at a first location within the predefined area, the platen (22, 88, 112) and its receiving surface being smaller than the predefined area of said fibrous panel and being configured to define a local shape of the panel appropriate to the first location; placing fibrous material against the receiving surface of said platen (22, 88, 112) and imparting integrity to the fibrous material when against the receiving surface of said platen (22, 88, 112) to create part of the panel at the first location before relative movement of the platen (22, 88, 112) and its receiving surface away from the part of the panel thus created; and then placing fibrous material against the receiving surface of said platen (22, 88, 112) and imparting integrity to the fibrous material to create an adjoining part of the panel when the platen (22, 88, 112) and its receiving surface is at a second location within the predefined area, adjacent to the first location. positioning a movable platen (22, 88, 112) having a receiving surface at a first location within the predefined area, the platen (22, 88, 112) and its receiving surface being smaller than the predefined area of said fibrous panel and being configured to define a local shape of the panel appropriate to the first location; placing fibrous material against the receiving surface of said platen (22, 88, 112) and imparting integrity to the fibrous material when against the receiving surface of said platen (22, 88, 112) to create part of the panel at the first location before relative movement of the platen (22, 88, 112) and its receiving surface away from the part of the panel thus created; and then placing fibrous material against the receiving surface of said platen (22, 88, 112) and imparting integrity to the fibrous material to create an adjoining part of the panel when the platen (22, 88, 112) and its receiving surface is at a second location within the predefined area, adjacent to the first location.