mhurhangee/ep-ind-claims huggingface dataset:
A thermal insulation system comprising: a wall or ceiling for a building structure and a container; a conventional insulation layer and a packaged phase change material positioned within the container adjacent to the wall or ceiling; a support member fabricated of a mesh material for securing the conventional insulation layer and the packaged phase change material within the container such that, in a mounted position, a space is defined below the support member which receives and directs cool air such that the cool air is allowed to act on the phase change material; an air conditioner system for directing cooled air through the space to facilitate a phase change of the packaged phase change material; and a controller configured to cause cooled air to be selectively directed through the space to facilitate a phase change of the packaged phase change material said controller causing said cooled air generated by the air conditioning system to be selectively directed through the space responsive to one or more of the following parameters related to the state of the packaged phase change material; temperature of air adjacent to said packaged phase change material, ambient air temperature, state of said packaged phase change material, time of day. a wall or ceiling for a building structure and a container; a conventional insulation layer and a packaged phase change material positioned within the container adjacent to the wall or ceiling; a support member fabricated of a mesh material for securing the conventional insulation layer and the packaged phase change material within the container such that, in a mounted position, a space is defined below the support member which receives and directs cool air such that the cool air is allowed to act on the phase change material; an air conditioner system for directing cooled air through the space to facilitate a phase change of the packaged phase change material; and a controller configured to cause cooled air to be selectively directed through the space to facilitate a phase change of the packaged phase change material said controller causing said cooled air generated by the air conditioning system to be selectively directed through the space responsive to one or more of the following parameters related to the state of the packaged phase change material; temperature of air adjacent to said packaged phase change material, ambient air temperature, state of said packaged phase change material, time of day.
Computer-implemented method for the monitoring of a plurality of cable-processing machines (1, 1', 2, 2') for the processing of cables, wherein the method comprises the following steps: transmission of production parameters from a cable-processing machine (1, 1', 2, 2'), or a plurality of cable-processing machines (1, 1', 2, 2') to a control server with a central database, wherein the production parameters comprise settings for the cable-processing machine (1, 1', 2, 2') for the processing of the cables by the cable-processing machine in question (1, 1', 2, 2'); and reception of the production parameters by the control server; storage of the production parameters in the central database. transmission of production parameters from a cable-processing machine (1, 1', 2, 2'), or a plurality of cable-processing machines (1, 1', 2, 2') to a control server with a central database, wherein the production parameters comprise settings for the cable-processing machine (1, 1', 2, 2') for the processing of the cables by the cable-processing machine in question (1, 1', 2, 2'); and reception of the production parameters by the control server; storage of the production parameters in the central database.
A method implemented by one or more processors, the method comprising: receiving, at an interface of a client computing device, an input from a user, wherein the input is directed to an automated assistant that is accessible via the client computing device; generating, in response to receiving the input, input data characterizing a portion of the input as the user continues to provide additional input to the automated assistant; providing the portion of the input to a server computing device via a network connection between the client computing device and the server computing device, wherein the server computing device processes the input data to generate content data; receiving, by the client computing device and from the server computing device, the content data that is based on the input data; determining, based on an amount of input data that has been processed by the server computing device, whether to provide additional data to the server computing device for processing; and when the client computing device determines to not provide the additional data to the server computing device: causing the client computing device to at least temporarily cease transmitting the additional data to the server computing device, generating, at the client computing device and using the additional data, additional content data that characterizes another portion of the input, and causing the client computing device to render the content data and the additional content data. receiving, at an interface of a client computing device, an input from a user, wherein the input is directed to an automated assistant that is accessible via the client computing device; generating, in response to receiving the input, input data characterizing a portion of the input as the user continues to provide additional input to the automated assistant; providing the portion of the input to a server computing device via a network connection between the client computing device and the server computing device, receiving, by the client computing device and from the server computing device, the content data that is based on the input data; determining, based on an amount of input data that has been processed by the server computing device, whether to provide additional data to the server computing device for processing; and when the client computing device determines to not provide the additional data to the server computing device: causing the client computing device to at least temporarily cease transmitting the additional data to the server computing device, generating, at the client computing device and using the additional data, additional content data that characterizes another portion of the input, and causing the client computing device to render the content data and the additional content data. causing the client computing device to at least temporarily cease transmitting the additional data to the server computing device, generating, at the client computing device and using the additional data, additional content data that characterizes another portion of the input, and causing the client computing device to render the content data and the additional content data.
A field device comprising: a housing (110, 112) defining a fluid cavity (144, 154) and a sensor cavity, the housing including an isolation barrier to isolate the fluid cavity from the sensor cavity; a pressure sensor disposed within the sensor cavity, the pressure sensor including at least one pressure inlet; and characterized by a capillary tube (148 158) extending from the at least one pressure inlet to the fluid cavity through the isolation barrier, the capillary tube including a lumen (146, 156) having a non-cylindrical shape with a correspondingly shaped opening, wherein said opening is formed between ridges of a plurality of ridges (212, 222) of the fluid cavity. a housing (110, 112) defining a fluid cavity (144, 154) and a sensor cavity, the housing including an isolation barrier to isolate the fluid cavity from the sensor cavity; a pressure sensor disposed within the sensor cavity, the pressure sensor including at least one pressure inlet; and characterized by a capillary tube (148 158) extending from the at least one pressure inlet to the fluid cavity through the isolation barrier, the capillary tube including a lumen (146, 156) having a non-cylindrical shape with a correspondingly shaped opening, wherein said opening is formed between ridges of a plurality of ridges (212, 222) of the fluid cavity.
A method for manufacturing trichlorosilane, the method comprising: reacting metallurgical grade silicon with silicon tetrachloride and hydrogen so as to obtain a reaction gas; condensing the reaction gas so as to obtain a condensate; and distilling the condensate using a distillation system including a first distillation column and a secondary distillation column so as to refine trichlorosilane, wherein a temperature of the condensate is maintained in a range of 40°C or higher so that a concentration of aluminum chloride in the condensate becomes in a range of a saturation solubility or less, and the condensate flows to the first distillation column while maintaining the temperature of the condensate in a range of 40°C or higher, a liquid distilled in the first distillation column is distilled by the secondary distillation column so as to refine trichlorosilane, and a liquid in which aluminum chloride is concentrated is extracted from a bottom portion of the first distillation column, and the extracted liquid is concentrated and dried, and then aluminum chloride is exhausted. reacting metallurgical grade silicon with silicon tetrachloride and hydrogen so as to obtain a reaction gas; condensing the reaction gas so as to obtain a condensate; and distilling the condensate using a distillation system including a first distillation column and a secondary distillation column so as to refine trichlorosilane, wherein a temperature of the condensate is maintained in a range of 40°C or higher so that a concentration of aluminum chloride in the condensate becomes in a range of a saturation solubility or less, and the condensate flows to the first distillation column while maintaining the temperature of the condensate in a range of 40°C or higher, a liquid distilled in the first distillation column is distilled by the secondary distillation column so as to refine trichlorosilane, and a liquid in which aluminum chloride is concentrated is extracted from a bottom portion of the first distillation column, and the extracted liquid is concentrated and dried, and then aluminum chloride is exhausted.
A peroxide reaction method using an extruder, in which a peroxide (50 or 50A) and a raw material constituted by any one of a synthetic resin, a natural resin, and an elastomer are introduced individually into a cylinder of an extruder without being mixed together in advance, the cylinder having a temperature adjustment function, wherein the raw material and the peroxide (50 or 50A) are reacted with each other in the cylinder, wherein the method is characterized by: introducing the raw material from a raw material supply hopper; introducing the peroxide (50 or 50A) from a peroxide introduction portion (31A, 32A, 33A) provided on a downstream side of the raw material supply hopper; and adjusting a temperature of the raw material in the peroxide introduction portion (31A, 32A, 33A) to a temperature lower than a one-minute half-life temperature of the peroxide (50 or 50A) by using at least the temperature adjustment function, wherein at least a solid transportation portion, a plasticization and kneading portion, and a melt transportation portion are formed in the cylinder from an upstream side; and the peroxide introduction portion (31A, 32A, 33A) is positioned on an upstream side of an upstream position of the melt transportation portion. introducing the raw material from a raw material supply hopper; introducing the peroxide (50 or 50A) from a peroxide introduction portion (31A, 32A, 33A) provided on a downstream side of the raw material supply hopper; and adjusting a temperature of the raw material in the peroxide introduction portion (31A, 32A, 33A) to a temperature lower than a one-minute half-life temperature of the peroxide (50 or 50A) by using at least the temperature adjustment function, wherein at least a solid transportation portion, a plasticization and kneading portion, and a melt transportation portion are formed in the cylinder from an upstream side; and the peroxide introduction portion (31A, 32A, 33A) is positioned on an upstream side of an upstream position of the melt transportation portion.
A vessel for removing radionuclides from a liquid, said vessel comprising: a housing defining an ion exchange chamber therein, said housing having a lower portion and an upper portion; a base supporting said housing; a process inlet in fluid communication with said ion exchange chamber; a process outlet in fluid communication with said ion exchange chamber; first shielding surrounding said lower portion of said housing; and second shielding surrounding said upper portion of said housing; wherein said first shielding has a greater thickness than said second shielding. a housing defining an ion exchange chamber therein, said housing having a lower portion and an upper portion; a base supporting said housing; a process inlet in fluid communication with said ion exchange chamber; a process outlet in fluid communication with said ion exchange chamber; first shielding surrounding said lower portion of said housing; and second shielding surrounding said upper portion of said housing; wherein said first shielding has a greater thickness than said second shielding.
An electronic device comprising at least one secure element capable of implementing at least two operating systems, and at least one near field communication unit, characterized in that the said at least one near filed communication unit is coupled to said one secure element by at least two volatile memories (141, 142) or two memory areas of a same volatile memory, wherein the near field communication unit is capable of routing data towards one or the other of the volatile memories (141, 142), the secure element comprising an interface capable of associating each operating system with one of the volatile memories (141, 142).
A hinge assembly for moving a window sash relative to a window frame, the hinge assembly comprising: a track; a slider engaging the track and translatable along the track; a vent bar pivotably coupled to the slider for rotation relative to the slider and movement with the slider relative to the track; a link including a first end coupled to the track for rotation relative to the track about an axis and a second end coupled to the vent bar for rotation relative to the vent bar and the slider; and a stop member engaging the track and configured to limit translational motion of the slider, the stop member being movable between a plurality of positions, each of the plurality of positions corresponding to one of a plurality of ranges of translational motion of the slider; characterized in that the stop member includes first and second ends (112, 114), the first end of the stop member is disposed between the slider and a pin pivotably coupling the link to the track, the second end of the stop member is disposed on an opposite side of the pin from the first end; and wherein the pin extends through a slot formed in the stop member. a track; a slider engaging the track and translatable along the track; a vent bar pivotably coupled to the slider for rotation relative to the slider and movement with the slider relative to the track; a link including a first end coupled to the track for rotation relative to the track about an axis and a second end coupled to the vent bar for rotation relative to the vent bar and the slider; and a stop member engaging the track and configured to limit translational motion of the slider, the stop member being movable between a plurality of positions, each of the plurality of positions corresponding to one of a plurality of ranges of translational motion of the slider; characterized in that the stop member includes first and second ends (112, 114), the first end of the stop member is disposed between the slider and a pin pivotably coupling the link to the track, the second end of the stop member is disposed on an opposite side of the pin from the first end; and wherein the pin extends through a slot formed in the stop member.
A battery apparatus comprising: a case having a width, thickness and length, a bottom surface of the case including a recess portion, the recess portion including a positioning convex portion; said positioning convex portion being positioned on the opposite side of the battery-side terminal in the length direction of the recess portion. a battery cell housed in the inside of the case; and a battery-side terminal disposed at the surface of the case and electrically connected to the battery cell; wherein guide grooves extending in the length direction are formed at portions of the case on both sides in the width direction for positioning the position of the case in the thickness direction within a battery housing chamber by engaging with projections disposed at the battery housing chamber, and wherein, when the battery apparatus is inserted into the battery housing chamber of an electronic device in the direction of the length, the battery-side terminal is adapted to make connection with a housing chamber-side terminal of the battery housing chamber, further comprising: a machine name plate located in the recess portion and including a positioning groove receiving the convex portion of the recess portion. a case having a width, thickness and length, a bottom surface of the case including a recess portion, the recess portion including a positioning convex portion; said positioning convex portion being positioned on the opposite side of the battery-side terminal in the length direction of the recess portion. a battery cell housed in the inside of the case; and a battery-side terminal disposed at the surface of the case and electrically connected to the battery cell; wherein guide grooves extending in the length direction are formed at portions of the case on both sides in the width direction for positioning the position of the case in the thickness direction within a battery housing chamber by engaging with projections disposed at the battery housing chamber, and wherein, when the battery apparatus is inserted into the battery housing chamber of an electronic device in the direction of the length, the battery-side terminal is adapted to make connection with a housing chamber-side terminal of the battery housing chamber, further comprising: a machine name plate located in the recess portion and including a positioning groove receiving the convex portion of the recess portion. a machine name plate located in the recess portion and including a positioning groove receiving the convex portion of the recess portion.
A coated substrate comprising a substrate with a conductive coating over at least a portion of the substrate comprising a fused metal nanostructured network and a crosslinked organic polymer binder and having a sheet resistance of no more than 270 ohms/square, an optical transmittance of at least 90% and a haze of no more than 1%.
A method for control of at least one speed regulator, which regulator regulates an engine system in a vehicle on the basis of a regulating algorithm, so that an actual speed v act of said vehicle is guided towards a target speed v des, said method comprising - identifying a change in said target speed v des, and said method being characterized by further comprising the steps of - determining an absolute amount for a memory term of said algorithm, which memory term is related to a history of the regulation of said engine system by said speed regulator, and which memory term is an integrating term of said speed regulator, and - curtailing the influence of said algorithm upon said engine system if it is determined that said absolute amount of said memory term decreases after said identified change in said target speed v des. - identifying a change in said target speed v des, and said method being characterized by further comprising the steps of - determining an absolute amount for a memory term of said algorithm, which memory term is related to a history of the regulation of said engine system by said speed regulator, and which memory term is an integrating term of said speed regulator, and - curtailing the influence of said algorithm upon said engine system if it is determined that said absolute amount of said memory term decreases after said identified change in said target speed v des.
A method for placing access points, APs, on a digital floor plan map, the method comprising: receiving a floor map plan and location information for a plurality of APs (302, 304, 306, 308, 310, 312), said location information being recorded on said floor plan map, wherein the plurality of APs are placed physically at a venue represented by said floor plan map; and wherein the received location information for the plurality of APs is provided according to two or more of the following conventions: naming conventions, addressing conventions, absolute position conventions and pictorial representation conventions,; automatically placing a first AP of the plurality of APs on said digital floor plan map at a location identified using a first convention among said conventions; and automatically placing a second AP of the plurality of APs on said digital floor plan map at a location identified using a second convention among the conventions, wherein the first AP is different from the second AP and the first convention is different from the second convention. receiving a floor map plan and location information for a plurality of APs (302, 304, 306, 308, 310, 312), said location information being recorded on said floor plan map, wherein the plurality of APs are placed physically at a venue represented by said floor plan map; and wherein the received location information for the plurality of APs is provided according to two or more of the following conventions: naming conventions, addressing conventions, absolute position conventions and pictorial representation conventions,; automatically placing a first AP of the plurality of APs on said digital floor plan map at a location identified using a first convention among said conventions; and automatically placing a second AP of the plurality of APs on said digital floor plan map at a location identified using a second convention among the conventions, wherein the first AP is different from the second AP and the first convention is different from the second convention.
A composition comprising an aqueous solution or dispersion of an associative thickener having a poly(oxyalkylene-urethane) backbone and at least one terminal hydrophobe represented by the following formula: where R is a C 2 -C 20 divalent hydrocarbyl group; R 1 is H or methyl; and R 2 is C 1 -C 18 -alkyl, C 5 -C 8 -cycloalkyl, aryl, C 1 -C 18 -alkylaryl, C 1 -C 3 -dialkylamino-C 1 -C 18 -alkyl, C 1 -C 30 -alkoxy-(CH 2 CH 2 O) z -CH 2 CH 2 -, aryloxy-(CH 2 CH 2 O) z CH 2 CH 2 -, or glycidyl; n is 0 to 20; m is 0 to 20; and m + n is 3 to 20.