mhurhangee/patent-ind-claim-en huggingface dataset:
Drying method for laundry adapted to be implemented in a drying device comprising at least: - at least a device for the blowing of drying air - a command and control unit at least capable of commanding and controlling the drying operations of said laundry - at least a first sensor means adapted to detect at least the ambient humidity said drying method providing the generation of at least one air flow having suitable drying operating parameters and capable of being guided and directed towards said laundry, characterised in that said method comprises the steps of: - acquiring and determining the ambient humidity - setting and/or modulating said drying operating parameters of said drying air in such a way that the amount of humidity removed from the laundry does not increase the ambient humidity beyond preset threshold values, said preset threshold values being those values which: - ensure at least the thermo-hygrometric wellness of an individual, said thermo-hygrometric wellness being defined according to the Fanger studies and provided in ASHRAE publications, and/or - do not produce the formation of condensation at least on floors and walls of the ambient in which said drying is carried out, it being understood that the existing air changes in the ambient must be sufficient for the maintenance of said preset threshold values. - at least a device for the blowing of drying air - a command and control unit at least capable of commanding and controlling the drying operations of said laundry - at least a first sensor means adapted to detect at least the ambient humidity - acquiring and determining the ambient humidity - setting and/or modulating said drying operating parameters of said drying air in such a way that the amount of humidity removed from the laundry does not increase the ambient humidity beyond preset threshold values, said preset threshold values being those values which: - ensure at least the thermo-hygrometric wellness of an individual, said thermo-hygrometric wellness being defined according to the Fanger studies and provided in ASHRAE publications, and/or - do not produce the formation of condensation at least on floors and walls of the ambient in which said drying is carried out, it being understood that the existing air changes in the ambient must be sufficient for the maintenance of said preset threshold values. - ensure at least the thermo-hygrometric wellness of an individual, said thermo-hygrometric wellness being defined according to the Fanger studies and provided in ASHRAE publications, and/or - do not produce the formation of condensation at least on floors and walls of the ambient in which said drying is carried out,
A fuel cell (FC, FC3 to FC7) comprising: a membrane electrode assembly (M, M2) in which an electrolyte membrane is sandwiched between a pair of electrode layers ; a frame that is arranged on an outer periphery portion of the membrane electrode assembly (M, M2); a separator that defines a gas flow channel (G, G2) between the separator and the membrane electrode assembly (M, M2) and between the separator and the frame ; a power generation portion (E, E2) at a center part of the fuel cell (FC; FC3 to FC7) in which the membrane electrode assembly (M, M2) is arranged; and manifold portions (H, H2) at both sides of the power generation portion (E, E2), wherein each of the electrode layers includes a metal porous body which is an electrode surface layer and has gas permeability, characterized in that a diffuser portion (D, D2), in which flow of reaction gas is controlled and which is a part of the gas flow channel (G, G2), is formed between the separator and the frame , and is arranged between the manifold portions (H, H2) and the power generation portion (E, E2), and both metal porous bodies respectively have, at end portions thereof, extension parts covering a region corresponding to the diffuser portion (D, D2) of the frame . a membrane electrode assembly (M, M2) in which an electrolyte membrane is sandwiched between a pair of electrode layers ; a frame that is arranged on an outer periphery portion of the membrane electrode assembly (M, M2); a separator that defines a gas flow channel (G, G2) between the separator and the membrane electrode assembly (M, M2) and between the separator and the frame ; a power generation portion (E, E2) at a center part of the fuel cell (FC; FC3 to FC7) in which the membrane electrode assembly (M, M2) is arranged; and manifold portions (H, H2) at both sides of the power generation portion (E, E2), wherein each of the electrode layers includes a metal porous body which is an electrode surface layer and has gas permeability, characterized in that a diffuser portion (D, D2), in which flow of reaction gas is controlled and which is a part of the gas flow channel (G, G2), is formed between the separator and the frame , and is arranged between the manifold portions (H, H2) and the power generation portion (E, E2), and both metal porous bodies respectively have, at end portions thereof, extension parts covering a region corresponding to the diffuser portion (D, D2) of the frame .
A method, comprising: selecting , by a processor in a node N within a computer network that utilizes a directed acyclic graph, DAG, to route packets, a parent node P that is a parent to node N in the DAG; determining , by said processor, a grandparent node GP within the computer network that is a parent of the parent node P in the DAG; selecting , by said processor, an alternate parent node P' within the computer network that has connectivity to the grandparent node GP and the node N; and informing, by said processor, the parent node P and the alternate node P' that alternate node P' is an alternate parent node to parent node P to facilitate a sibling connection to be established within the computer network between the parent node P and the alternate parent node P', wherein the sibling connection provides a path for reaching prefixes reachable via the node N. selecting , by a processor in a node N within a computer network that utilizes a directed acyclic graph, DAG, to route packets, a parent node P that is a parent to node N in the DAG; determining , by said processor, a grandparent node GP within the computer network that is a parent of the parent node P in the DAG; selecting , by said processor, an alternate parent node P' within the computer network that has connectivity to the grandparent node GP and the node N; and informing, by said processor, the parent node P and the alternate node P' that alternate node P' is an alternate parent node to parent node P to facilitate a sibling connection to be established within the computer network between the parent node P and the alternate parent node P', wherein the sibling connection provides a path for reaching prefixes reachable via the node N.
A ride vehicle control system for a ride vehicle of an attraction , the ride vehicle control system comprising: a plurality of sensors configured to monitor a guest supported by the ride vehicle ; an actuator system configured to couple to the ride vehicle ; and one or more processors configured to: receive signals from the plurality of sensors, wherein the signals are indicative of a position of the guest , a movement of the guest , or both; determine an intended movement for the ride vehicle based on the signals; and control the actuator system to adjust a resistance to movement of the ride vehicle , to adjust a force applied to the ride vehicle , or both to facilitate the intended movement. an actuator system configured to couple to the ride vehicle ; and one or more processors configured to: receive signals from the plurality of sensors, wherein the signals are indicative of a position of the guest , a movement of the guest , or both; determine an intended movement for the ride vehicle based on the signals; and control the actuator system to adjust a resistance to movement of the ride vehicle , to adjust a force applied to the ride vehicle , or both to facilitate the intended movement. receive signals from the plurality of sensors, wherein the signals are indicative of a position of the guest , a movement of the guest , or both; determine an intended movement for the ride vehicle based on the signals; and control the actuator system to adjust a resistance to movement of the ride vehicle , to adjust a force applied to the ride vehicle , or both to facilitate the intended movement.
A method of manufacturing optoelectronic sensors, preferably miniature sensors, in which a plurality of circuit boards connected in a circuit board panel are automatically mounted with electronic components , wherein, after the mounting of the individual circuit boards of the circuit board panel with electronic components , optical and mechanical components that are overmolded and separated are attached to each circuit board of the circuit board panel for a complete setup of an optoelectronic sensor; wherein, after the mounting of all the circuit boards of the circuit board panel with all the components required for the complete setup, the circuit board panel is fastened to a board-like carrier element ; and wherein a high temperature resistant board or a metal plate is used as the board-like carrier element which is divided into segments and on which the mounted circuit board panel is placed such that every circuit board carrying an optoelectronic sensor fills up a predefined segment of the high temperature resistant board or metal plate, characterized in that the metal plate or the high temperature resistant board is stamped or bent before the overmolding to form at least one side wall of the sensor module .
A support for a mobile device, the support suitable for attachment to a rear surface of a mobile device, the support comprising: a backplate for coupling to a rear surface of a mobile device, an elongate member extending in a longitudinal direction adjacent the backplate , the elongate member having a distal end and a proximal end and comprising at least a first segment at the proximal end and a second segment between the first segment and the distal end, the first segment hingedly attached to the backplate at the proximal end , and longitudinal retention portions for retaining the elongate member , wherein the longitudinal retention portions are formed as thickened portions in longitudinal edges of a retention band , wherein the retention band extends from a rear face of the backplate to define a space for accommodating the elongate member . a backplate for coupling to a rear surface of a mobile device, an elongate member extending in a longitudinal direction adjacent the backplate , the elongate member having a distal end and a proximal end and comprising at least a first segment at the proximal end and a second segment between the first segment and the distal end, the first segment hingedly attached to the backplate at the proximal end , and longitudinal retention portions for retaining the elongate member , wherein the longitudinal retention portions are formed as thickened portions in longitudinal edges of a retention band , wherein the retention band extends from a rear face of the backplate to define a space for accommodating the elongate member .
A system for simultaneously energizing, burning in and testing electronic circuitry embodied on each individual die of an uncut semiconductor wafer having top and bottom surfaces, the system comprising: a housing ; an upper platen assembly and a lower platen assembly disposed inside the housing ; a plenum assembly having an upper plenum assembly and a lower plenum assembly ; an interposer assembly extending transversely between the upper platen assembly and the lower platen assembly and between the upper plenum assembly and the lower plenum assembly ; a pin chuck attached to an underside of the interposer assembly ; a wafer support structure configured to receive, support and selectively position the uncut semiconductor wafer relative to the pin chuck ; a service controller configured to run a control app to initiate burn-in and testing and to set or change parametric limits for the electronic circuitry of each of the plurality of die of the uncut semiconductor wafer during a burn-in and test period; and a temperature control system comprising two independent fluid flowpaths, wherein a first of said two independent fluid flowpaths is configured to circulate a first liquid heat transfer medium through an upper flow section containing the upper platen assembly , and wherein a second of said two independent fluid flowpaths is configured to circulate a second temperature-controlled liquid heat transfer medium through a lower flow section including the lower platen assembly . a housing ; an upper platen assembly and a lower platen assembly disposed inside the housing ; a plenum assembly having an upper plenum assembly and a lower plenum assembly ; an interposer assembly extending transversely between the upper platen assembly and the lower platen assembly and between the upper plenum assembly and the lower plenum assembly ; a pin chuck attached to an underside of the interposer assembly ; a wafer support structure configured to receive, support and selectively position the uncut semiconductor wafer relative to the pin chuck ; a service controller configured to run a control app to initiate burn-in and testing and to set or change parametric limits for the electronic circuitry of each of the plurality of die of the uncut semiconductor wafer during a burn-in and test period; and a temperature control system comprising two independent fluid flowpaths, wherein a first of said two independent fluid flowpaths is configured to circulate a first liquid heat transfer medium through an upper flow section containing the upper platen assembly , and wherein a second of said two independent fluid flowpaths is configured to circulate a second temperature-controlled liquid heat transfer medium through a lower flow section including the lower platen assembly .
A polycarbonate composition, comprising the following components in parts by weight: a. 35 to 75 parts of a PC resin; b. 8 to 35 parts of a rubber-modified graft polymer; c. 5 to 20 parts of a fire retardant; and d. 0 to 10 parts of other aids; wherein the sum of parts by weight of the four components a, b, c, and d is 100, the content of phenols based on a total weight of the polycarbonate composition is less than or equal to 100 ppm; the PC resin consists of one or mixtures of a component I and a component II: component I: a PC resin with a K value of 300000-500000; component II: an aromatic PC resin with the K value less than 300000; wherein a structural formula of the phenols is shown as Formula : wherein, R 1 and R 5 represent a hydrogen group, an alkyl, an alkoxy, a hydroxyl, a carboxyl or a carbonyl, and an ester group, except for a hindered group; and R 2 , R 3 and R 4 represent a substituent containing hydrogen atoms, preferably the hydrogen atom, and wherein in the PC resin, a percentage of the component I accounts for 50wt% to 70wt% of the total weight of the PC resin; and a percentage of the component II accounts for 30wt% to 50wt% of the total weight of the PC resin, wherein K is the ratio of the viscosity-average molecular weight [M V ], obtained by solving the Schnell viscosity equation η = 1.23 x 10 -4 M V 0.83 , to the content of terminal phenolic groups, measured by an in-situ infrared method, wherein intrinsic viscosity (η, measured as dl/g) is determined using an Ubbelohde viscometer with chloromethane as solvent under a temperature of 20°C. a. 35 to 75 parts of a PC resin; b. 8 to 35 parts of a rubber-modified graft polymer; c. 5 to 20 parts of a fire retardant; and d. 0 to 10 parts of other aids; component I: a PC resin with a K value of 300000-500000; component II: an aromatic PC resin with the K value less than 300000; wherein a structural formula of the phenols is shown as Formula : wherein, R 1 and R 5 represent a hydrogen group, an alkyl, an alkoxy, a hydroxyl, a carboxyl or a carbonyl, and an ester group, except for a hindered group; and R 2 , R 3 and R 4 represent a substituent containing hydrogen atoms, preferably the hydrogen atom, and wherein in the PC resin, a percentage of the component I accounts for 50wt% to 70wt% of the total weight of the PC resin; and a percentage of the component II accounts for 30wt% to 50wt% of the total weight of the PC resin, wherein K is the ratio of the viscosity-average molecular weight [M V ], obtained by solving the Schnell viscosity equation η = 1.23 x 10 -4 M V 0.83 , to the content of terminal phenolic groups, measured by an in-situ infrared method, wherein intrinsic viscosity (η, measured as dl/g) is determined using an Ubbelohde viscometer with chloromethane as solvent under a temperature of 20°C.
A liquid blow-molding apparatus provided with: a blow molding die in which is disposed a closed-bottom cylindrical preform (PF), a support block disposed above the blow molding die and having a feed path formed in its interior, a blow nozzle that is provided at a lower end of the support block continuously with the feed path and that engages with a mouth (PFb) of a preform (PF) disposed in the blow molding die , and a pressurized liquid feed unit connected to the feed path , pressurized liquid being fed from the pressurized liquid feed unit through the blow nozzle into the interior of the preform (PF) to liquid blow-mold the preform (PF) into a shape conforming to a cavity of the blow molding die ; the apparatus being characterized in that : the feed path has a shape comprising: - a flow path body having a vertically extending inner diameter that is constant or decreases toward the blow nozzle , - a first port , and - a second port connected to the flow path body ; - a valve mechanism for opening and closing an open-and-closable flow path connecting the flow path body and the blow nozzle is provided in the open-and-closable flow path ; and wherein the apparatus is adapted such that a liquid can circulate between the feed path and the pressurized liquid feed unit when the valve mechanism is in a closed state, and the apparatus is adapted such that a pressurized liquid can be fed from the feed path through the blow nozzle into the interior of the preform (PF) when the valve mechanism is in an open state, characterized in that the apparatus further comprises a dome chamber that is formed in a domed shape and is continuous with an upper end of the flow path body , the first port having the same upper end as the dome chamber and extending horizontally from the dome chamber . the feed path has a shape comprising: - a flow path body having a vertically extending inner diameter that is constant or decreases toward the blow nozzle , - a first port , and - a second port connected to the flow path body ; - a valve mechanism for opening and closing an open-and-closable flow path connecting the flow path body and the blow nozzle is provided in the open-and-closable flow path ; and - a flow path body having a vertically extending inner diameter that is constant or decreases toward the blow nozzle , - a first port , and - a second port connected to the flow path body ; - a valve mechanism for opening and closing an open-and-closable flow path connecting the flow path body and the blow nozzle is provided in the open-and-closable flow path ; and wherein the apparatus is adapted such that a liquid can circulate between the feed path and the pressurized liquid feed unit when the valve mechanism is in a closed state, and the apparatus is adapted such that a pressurized liquid can be fed from the feed path through the blow nozzle into the interior of the preform (PF) when the valve mechanism is in an open state,
A method performed by a wearable device comprising an electrode pad located on a body of a user, wherein the electrode pad is configured to provide feedback to a plurality of body parts of the user, the method comprising: detecting a user motion; when the user has performed a space input operation by touching a virtual object on a virtual screen displayed by an electronic device connected to the wearable device, determining , by a controller of the wearable device, based on the detected user motion, at least one body part, of said plurality of body parts, to which a feedback signal is to be transmitted; generating, by the controller, the feedback signal; and outputting , by an output interface of the wearable device, the feedback signal, via the electrode pad configured to provide feedback to the determined at least one body part, wherein the feedback signal is an electrical signal to stimulate muscles of the determined at least one body part. detecting a user motion; when the user has performed a space input operation by touching a virtual object on a virtual screen displayed by an electronic device connected to the wearable device, determining , by a controller of the wearable device, based on the detected user motion, at least one body part, of said plurality of body parts, to which a feedback signal is to be transmitted; generating, by the controller, the feedback signal; and outputting , by an output interface of the wearable device, the feedback signal, via the electrode pad configured to provide feedback to the determined at least one body part, wherein the feedback signal is an electrical signal to stimulate muscles of the determined at least one body part.
A system for playing an audio and/or video stream having multiple possible paths of consecutive audio clips and/or video scenes, the system comprising: an output unit for outputting the audio and/or video stream, and an interactivity unit coupled to the output unit , wherein the interactivity unit is configured to: receive information relating to an interaction of a user of the system with one or more user interaction devices the user can interact with to provide an input, wherein the one or more user interaction devices are coupled to the system , and select a said path of consecutive audio clips and/or video scenes from the multiple possible paths of the audio and/or video stream, to be output by the output unit , based on the received information; characterized in that the system is configured to prohibit, dependent on one or more predetermined device classes of the user interaction device or devices coupled to the system : one or more predetermined paths of the multiple possible paths of consecutive audio clips and/or video scenes to be selected for output by the output unit . an output unit for outputting the audio and/or video stream, and an interactivity unit coupled to the output unit , wherein the interactivity unit is configured to: receive information relating to an interaction of a user of the system with one or more user interaction devices the user can interact with to provide an input, wherein the one or more user interaction devices are coupled to the system , and select a said path of consecutive audio clips and/or video scenes from the multiple possible paths of the audio and/or video stream, to be output by the output unit , based on the received information; receive information relating to an interaction of a user of the system with one or more user interaction devices the user can interact with to provide an input, wherein the one or more user interaction devices are coupled to the system , and select a said path of consecutive audio clips and/or video scenes from the multiple possible paths of the audio and/or video stream, to be output by the output unit , based on the received information; characterized in that the system is configured to prohibit, dependent on one or more predetermined device classes of the user interaction device or devices coupled to the system : one or more predetermined paths of the multiple possible paths of consecutive audio clips and/or video scenes to be selected for output by the output unit .