mhurhangee/ep-ind-claims huggingface dataset:
A moisture-extendable heat regulating article, the moisture-extendable heat regulating article having reversible thermal regulation properties and at least one chemical function, the chemical function being selected from a group consisting of polar chemical functions, hydrophilic chemical functions and chemical functions capable of forming hydrogen bonds and combinations of the foregoing to interact with water in order to absorb moisture, wherein the moisture adsorbing properties of the chemical function are reversible, the moisture-extendable heat regulating article comprising: a substrate carrying at least one reactive functional group; and a functional polymeric phase change material FP-PCM having a first heat carrying capacity, the FP-PCM comprising a plurality of reactive functional groups, a reactive functional group of the FP-PCM chemically reacting with a functional group of the substrate to form a covalent or an electrovalent bond; and a containment structure bonded to both the FP-PCM and the substrate via functional groups chemically reacting with a functional group of the substrate or a functional group of the FP-PCM, wherein the moisture adsorption and desorption result in extended temperature regulation capacity of the moisture-extendable heat regulating article.. a substrate carrying at least one reactive functional group; and a functional polymeric phase change material FP-PCM having a first heat carrying capacity, the FP-PCM comprising a plurality of reactive functional groups, a reactive functional group of the FP-PCM chemically reacting with a functional group of the substrate to form a covalent or an electrovalent bond; and a containment structure bonded to both the FP-PCM and the substrate via functional groups chemically reacting with a functional group of the substrate or a functional group of the FP-PCM,
A method of making a food composition, comprising: a. providing a stream of uncoated food pieces; b. directing the stream through an enrober to apply a first coating to at least a portion of a surface of each food piece to form a coated stream; c. splitting the coated stream into at least two portions; and d. continuously redirecting a portion of the coated stream back through the enrober along with the stream of uncoated food pieces to apply at least one additional coating to the portion of the coated stream, wherein the portion that is redirected back to the enrober can be selected. a. providing a stream of uncoated food pieces; b. directing the stream through an enrober to apply a first coating to at least a portion of a surface of each food piece to form a coated stream; c. splitting the coated stream into at least two portions; and d. continuously redirecting a portion of the coated stream back through the enrober along with the stream of uncoated food pieces to apply at least one additional coating to the portion of the coated stream, wherein the portion that is redirected back to the enrober can be selected.
A solar heat collecting device comprising: a heat transfer fluid flow path in which a heat transfer fluid that receives solar heat flows; a frame that supports the heat transfer fluid flow path; and a cable that causes a current to flow in the heat transfer fluid flow path, characterized in that the frame has a closed loop including a first member (40, 40a, 40b, 40c, 40d) made of a ferromagnetic material, the cable is routed to penetrate the closed loop, and a second member made of a non-magnetic material is provided in a middle of the closed loop. a heat transfer fluid flow path in which a heat transfer fluid that receives solar heat flows; a frame that supports the heat transfer fluid flow path; and a cable that causes a current to flow in the heat transfer fluid flow path, characterized in that the frame has a closed loop including a first member (40, 40a, 40b, 40c, 40d) made of a ferromagnetic material, the cable is routed to penetrate the closed loop, and a second member made of a non-magnetic material is provided in a middle of the closed loop.
An electronic device for generating a pulse, the device comprising: a plurality of Marx generators (904a, 904b), wherein the plurality of Marx generators are connected in parallel; a control interface, wherein the control interface is configured to send and receive one or more control signals from each Marx generator of the plurality of Marx generators; and a transformer, wherein the transformer comprises a first primary winding configured to receive a first output signal from a first Marx generator of the plurality of Marx generators and a second primary winding configured to receive a second output signal from a second Marx generator of the plurality of Marx generators wherein the transformer is configured to generate an output pulse based on the plurality of received signals. a plurality of Marx generators (904a, 904b), wherein the plurality of Marx generators are connected in parallel; a control interface, wherein the control interface is configured to send and receive one or more control signals from each Marx generator of the plurality of Marx generators; and a transformer, wherein the transformer comprises a first primary winding configured to receive a first output signal from a first Marx generator of the plurality of Marx generators and a second primary winding configured to receive a second output signal from a second Marx generator of the plurality of Marx generators wherein the transformer is configured to generate an output pulse based on the plurality of received signals.
A water absorbent comprising water-absorbing resin particles, which are surface cross-linked and prepared from a water-absorbing resin having a cross-linked structure prepared by polymerizing a monomer including at least acrylic acid and/or its salt, the water absorbent having: - an absorbency against pressure for 0.9wt% saline (AAPs) of 20g/g or more, - a centrifuge retention capacity absorbency for 0.9wt% saline (CRCs) being not less than 29g/g but less than 39g/g, and - 90% by weight or more of the particles having a diameter less than 850μm but not less than 150μm, characterised in that - the water absorbent has a logarithmic standard deviation (σζ) of the particle size distribution in a range of 0.25 to 0.45; the water absorbent has a chemical cross-linking index of 170 or more, the chemical cross-linking index represented by the formula: Chemical Cross-Linking Index = CRCs / CRCdw × 1000, where CRCs(g/g) is an absorbency for 0.9wt% saline, and CRCdw(g/g) is an absorbency for deionized water; and - the surface cross-linking of the water-absorbing resin has been carried out to such an extent that the difference between the water-absorbing resin and the water-absorbing resin particles in terms of CRCs is 3 g/g or more. - an absorbency against pressure for 0.9wt% saline (AAPs) of 20g/g or more, - a centrifuge retention capacity absorbency for 0.9wt% saline (CRCs) being not less than 29g/g but less than 39g/g, and - 90% by weight or more of the particles having a diameter less than 850μm but not less than 150μm, characterised in that - the water absorbent has a logarithmic standard deviation (σζ) of the particle size distribution in a range of 0.25 to 0.45; the water absorbent has a chemical cross-linking index of 170 or more, the chemical cross-linking index represented by the formula: Chemical Cross-Linking Index = CRCs / CRCdw × 1000, where CRCs(g/g) is an absorbency for 0.9wt% saline, and CRCdw(g/g) is an absorbency for deionized water; and - the surface cross-linking of the water-absorbing resin has been carried out to such an extent that the difference between the water-absorbing resin and the water-absorbing resin particles in terms of CRCs is 3 g/g or more.
Apparatus for the analysis of non-ferrous metal alloys, particularly for 'S.T.A.' type analyses, comprising: - a solidification cup inside which a containment compartment, intended to accommodate a metallic material in the molten state, is defined; - heating means, configured to heat said solidification cup, positioned so as to surround said containment compartment; - cooling means, configured to cool the solidification cup; - a protection ferrule, protruding inside said containment compartment, configured to accommodate and cover the end of a thermocouple; - a central thermocouple, inserted into a corresponding through-hole defined at the bottom of said solidification cup, the end of said central thermocouple being positioned in said protection ferrule; - locking means configured to stably lock said central thermocouple in its position; - ejection means configured to permit the ejection of a body of solidified metallic material away from said containment compartment; - a thermocouple of the cup for measuring the temperature of said solidification cup; - an electronic control unit configured to switch on and off said heating means and said cooling means, and to receive and transmit signals from said central thermocouple and from said thermocouple of the cup, characterised in that it comprises; - a device for measuring the shrinkage percentage of the solidified samples. - a solidification cup inside which a containment compartment, intended to accommodate a metallic material in the molten state, is defined; - heating means, configured to heat said solidification cup, positioned so as to surround said containment compartment; - cooling means, configured to cool the solidification cup; - a protection ferrule, protruding inside said containment compartment, configured to accommodate and cover the end of a thermocouple; - a central thermocouple, inserted into a corresponding through-hole defined at the bottom of said solidification cup, the end of said central thermocouple being positioned in said protection ferrule; - locking means configured to stably lock said central thermocouple in its position; - ejection means configured to permit the ejection of a body of solidified metallic material away from said containment compartment; - a thermocouple of the cup for measuring the temperature of said solidification cup; - an electronic control unit configured to switch on and off said heating means and said cooling means, and to receive and transmit signals from said central thermocouple and from said thermocouple of the cup, characterised in that it comprises; - a device for measuring the shrinkage percentage of the solidified samples.
A method of communicating data with a mobile terminal, the method comprising: establishing a communication connection with a mobile terminal; detecting a touch location on a display surface of a display device at which the mobile terminal touches the display device; and designating, at an area of the display surface of the display device, a first region corresponding to the touch location, characterized in that the method further comprises: storing information regarding the designated first region, wherein the information regarding the designated first region includes a location of the designated first region; displaying a graphical representation corresponding to the mobile terminal in the first region on the display surface of the display device; determining that an object displayed on the display surface of the display device is moved into the designated first region where the graphical representation is displayed; and transmitting data, corresponding to the object, to the mobile terminal based on the determination that the object is moved into the designated first region where the graphical representation is displayed; changing the state of the designated first area to an inactive state if the communication connection between the display device and the mobile terminal is ended; maintaining storage of the information regarding the designated first region, if the state of the designated first area is changed to the inactive state; and activating the designated first region if the communication connection between the display device and the mobile terminal is reset. establishing a communication connection with a mobile terminal; detecting a touch location on a display surface of a display device at which the mobile terminal touches the display device; and designating, at an area of the display surface of the display device, a first region corresponding to the touch location, storing information regarding the designated first region, wherein the information regarding the designated first region includes a location of the designated first region; displaying a graphical representation corresponding to the mobile terminal in the first region on the display surface of the display device; determining that an object displayed on the display surface of the display device is moved into the designated first region where the graphical representation is displayed; and transmitting data, corresponding to the object, to the mobile terminal based on the determination that the object is moved into the designated first region where the graphical representation is displayed; changing the state of the designated first area to an inactive state if the communication connection between the display device and the mobile terminal is ended; maintaining storage of the information regarding the designated first region, if the state of the designated first area is changed to the inactive state; and activating the designated first region if the communication connection between the display device and the mobile terminal is reset.
A marine life protection system for use with a water intake system disposed to remove water from a water body through a water inlet, comprising: a decanting wall spaced an effective distance from the water inlet thereby forming a critical intake zone, wherein the decanting wall extends above a surface of the water body; and a gas source capable of generating a bubble curtain comprised of gas bubbles within the water body, wherein the gas source is spaced apart from, and on an opposite side of the decanting wall as the water inlet; wherein the gas bubbles comprise a gas selected from the group consisting of air, oxygen-enriched air, oxygen, nitrogen, and carbon dioxide; characterized in that the decanting wall is spaced an effective distance above a floor of the water body; and the bubble curtain extends vertically at least a distance between the water body floor and a lower edge of the decanting wall; and in that the water inlet abuts a shore or land edge of the water body; wherein the decanting wall is larger than the water inlet such that outer edges of the decanting wall extend beyond an opening formed by the water inlet. a decanting wall spaced an effective distance from the water inlet thereby forming a critical intake zone, wherein the decanting wall extends above a surface of the water body; and a gas source capable of generating a bubble curtain comprised of gas bubbles within the water body, wherein the gas source is spaced apart from, and on an opposite side of the decanting wall as the water inlet; wherein the gas bubbles comprise a gas selected from the group consisting of air, oxygen-enriched air, oxygen, nitrogen, and carbon dioxide; characterized in that the decanting wall is spaced an effective distance above a floor of the water body; and the bubble curtain extends vertically at least a distance between the water body floor and a lower edge of the decanting wall; and in that the water inlet abuts a shore or land edge of the water body; wherein the decanting wall is larger than the water inlet such that outer edges of the decanting wall extend beyond an opening formed by the water inlet.
A method for drying a silica wet-gel blanket, the method comprising: drying the silica wet-gel blanket by irradiating the silica wet-gel blanket with infrared rays, wherein a surface temperature of an infrared ray emitting body is 200 °C to 1,100 °C, wherein in the drying, infrared rays are irradiated so that a first isothermal section of 5 minutes to 30 minutes, a temperature rising section of 5 minutes to 30 minutes, and optionally a second isothermal section of 20 minutes or less are included in a temperature profile over time of the silica wet-gel blanket. drying the silica wet-gel blanket by irradiating the silica wet-gel blanket with infrared rays, wherein a surface temperature of an infrared ray emitting body is 200 °C to 1,100 °C, wherein in the drying, infrared rays are irradiated so that a first isothermal section of 5 minutes to 30 minutes, a temperature rising section of 5 minutes to 30 minutes, and optionally a second isothermal section of 20 minutes or less are included in a temperature profile over time of the silica wet-gel blanket.
A redundant valve system to provide a regulated fluid flow, comprising: a housing having an inlet at an inlet end which receives a pressurized fluid, and an outlet at an outlet end which provides the regulated fluid flow; a first piston assembly arranged in the housing having a first cavity, the first piston assembly configured to regulate the fluid flow; a first fluid connection (124, 125) connected to the first cavity; a second piston assembly arranged in the housing downstream of the first piston assembly having a second cavity, the second cavity having a second fluid connection to a vent, the second piston assembly configured to regulate the fluid flow when the first piston assembly fails; an upstream valve to control the first fluid connection (124, 125) and control a position of the first piston assembly; and a downstream valve to control the second fluid connection and control a position of the second piston assembly, wherein the upstream valve is configured to close the first fluid connection (124, 125), and wherein the downstream valve is configured to close the second fluid connection, characterized in that, the first fluid connection (124, 125) is connected to a point along the housing at the outlet end. a housing having an inlet at an inlet end which receives a pressurized fluid, and an outlet at an outlet end which provides the regulated fluid flow; a first piston assembly arranged in the housing having a first cavity, the first piston assembly configured to regulate the fluid flow; a first fluid connection (124, 125) connected to the first cavity; a second piston assembly arranged in the housing downstream of the first piston assembly having a second cavity, the second cavity having a second fluid connection to a vent, the second piston assembly configured to regulate the fluid flow when the first piston assembly fails; an upstream valve to control the first fluid connection (124, 125) and control a position of the first piston assembly; and a downstream valve to control the second fluid connection and control a position of the second piston assembly, wherein the upstream valve is configured to close the first fluid connection (124, 125), and wherein the downstream valve is configured to close the second fluid connection, characterized in that, the first fluid connection (124, 125) is connected to a point along the housing at the outlet end.
Method for operating, in particular resetting, a film packaging machine for wrapping goods to be packed in an upper film web and a lower film web, wherein the film packaging machine has a cross-cutting welding device and two longitudinal cutting welding devices, wherein the two longitudinal cutting welding devices are arranged to weld film sections of the upper film web and the lower film web on two mutually opposite sides, wherein the goods to be packed run through the film packaging machine in a transport direction, and wherein the cross-cutting welding device is arranged before the longitudinal cutting welding devices in the transport direction, characterized in that the method comprises the following steps: • finishing the longitudinal welding and the conveying out in the transport direction of the packed goods which have passed through the cross-cutting welding device, in particular wherein the packed goods that are located before or in the cross-cutting welding device are stopped in the transport direction; • moving back a front end of the upper film web and the lower film web that have been welded to each other, in such a way that the front end is positioned in an end of the longitudinal cutting welding devices that is upstream with respect to the transport direction; • performing a longitudinal and transverse cutting operation that is needed for a single packed item to produce an empty bag; • again moving back the front end of the upper film web and the lower film web that have been welded to each other, in such a way that the front end is positioned in the end of the longitudinal cutting welding devices that is upstream with respect to the transport direction; and • restarting the film packaging machine. • finishing the longitudinal welding and the conveying out in the transport direction of the packed goods which have passed through the cross-cutting welding device, in particular wherein the packed goods that are located before or in the cross-cutting welding device are stopped in the transport direction; • moving back a front end of the upper film web and the lower film web that have been welded to each other, in such a way that the front end is positioned in an end of the longitudinal cutting welding devices that is upstream with respect to the transport direction; • performing a longitudinal and transverse cutting operation that is needed for a single packed item to produce an empty bag; • again moving back the front end of the upper film web and the lower film web that have been welded to each other, in such a way that the front end is positioned in the end of the longitudinal cutting welding devices that is upstream with respect to the transport direction; and • restarting the film packaging machine.
A hospital bed comprising a height-adjustable mattress support attached to a height-adjustable end panel (15, 16), said panel comprising a lower frame and a movable upper frame to which said mattress support is attached, the bed further comprising two spaced, vertical, telescopic uprights between the two frames, characterized in that the height-adjustable end panel (15, 16) is operated by an actuating cylinder, in that said frames comprise respective articulation points (35, 37), in that said actuating cylinder also comprises two articulation points (35a, 37a), a first articulation point connected to the articulation point of one of said frames and a second articulation point connected to a mechanism for amplifying the travel of the cylinder arranged between the frame to which said actuating cylinder is articulated and the articulation point of the other frame, and in that the second articulation point of the actuating cylinder is capable of being connected directly to said articulation point of the other frame.
A screw for mounting a window or door frame with a screw head with a drive for rotationally actuating the screw, and an opposing screw tip, and a frame portion for arranging in the window or door frame, and a reveal portion for arranging in a reveal, wherein a shaft diameter in the frame portion is larger than a shaft diameter in the reveal portion, and wherein the reveal portion comprises a reveal axis and the frame portion comprises a frame axis, characterized by an axial offset between the reveal axis and the frame axis.