mhurhangee/ep-ind-claims huggingface dataset:
Anti-rotation system (1; 1') comprising two fork-ends (230; 230') of a bicycle frame each provided with a respective slot, a hub-motor support shaft inserted inside said slots, and at least one anti-rotation washer (1; 1') for fixing said support shaft to one of said fork ends (230; 230'), said anti-rotation washer (1; 1') being pressed by means of a nut against a side surface of the fork-end (230; 230'), and comprising: a substantially flat washer body which has, formed therein, a shaped hole for engagement in a rotatably fixed manner onto said support shaft and which has two opposite sides, i.e. an outer side and an inner side, the former being pressed against by the locking nut and the latter abutting against a side surface of the fork-end (230; 230'), in a position mounted on the frame; and a stop element integral with the washer body and designed so as to abut against a contact surface integral with the frame, preventing rotation of the anti-rotation washer (1; 1') when in a position mounted on the frame; wherein said anti-rotation washer is configured such that said contact surface is external with respect to the slot of the fork-end (230; 230') that receives the support shaft, said stop element extending protruding beyond the plane defined by the inner side of the washer body; characterized in that said stop element is defined by an end of a peripheral lip, wherein said peripheral lip fits, when the anti-rotation washer (1; 1') is in the mounted position, around an outer profile of the respective fork-end (230; 230'). a substantially flat washer body which has, formed therein, a shaped hole for engagement in a rotatably fixed manner onto said support shaft and which has two opposite sides, i.e. an outer side and an inner side, the former being pressed against by the locking nut and the latter abutting against a side surface of the fork-end (230; 230'), in a position mounted on the frame; and a stop element integral with the washer body and designed so as to abut against a contact surface integral with the frame, preventing rotation of the anti-rotation washer (1; 1') when in a position mounted on the frame; wherein said anti-rotation washer is configured such that said contact surface is external with respect to the slot of the fork-end (230; 230') that receives the support shaft, said stop element extending protruding beyond the plane defined by the inner side of the washer body; characterized in that said stop element is defined by an end of a peripheral lip, wherein said peripheral lip fits, when the anti-rotation washer (1; 1') is in the mounted position, around an outer profile of the respective fork-end (230; 230').
A system for delivering liquid to a negative pressure wound therapy dressing, the system comprising: a wound dressing; a negative pressure source coupled to the wound dressing; a fluid flow device in fluid communication with the wound dressing; a control device configured to control a liquid flow from the fluid flow device; and a pressure sensor coupled to the wound dressing and to the control device, characterized in that the pressure sensor is configured to send a control signal to the control device and control liquid flow from the fluid flow device when the pressure sensor detects a predetermined pressure at the wound dressing, wherein the predetermined pressure is indicative of a desired volume of liquid in the wound dressing. a wound dressing; a negative pressure source coupled to the wound dressing; a fluid flow device in fluid communication with the wound dressing; a control device configured to control a liquid flow from the fluid flow device; and a pressure sensor coupled to the wound dressing and to the control device, characterized in that the pressure sensor is configured to send a control signal to the control device and control liquid flow from the fluid flow device when the pressure sensor detects a predetermined pressure at the wound dressing, wherein the predetermined pressure is indicative of a desired volume of liquid in the wound dressing.
A chemical reaction apparatus, comprising: a horizontal flow-type reactor in which a liquid content horizontally flows with an unfilled space being provided thereabove; a microwave generator that generates microwaves; and a waveguide that transmits the microwaves generated by the microwave generator to the unfilled space in the reactor; wherein a top of the reactor is curved projecting upward with respect to the flow direction of the content; wherein the top of the reactor is flat with respect to the horizontal direction orthogonal to the flow direction of the content. a horizontal flow-type reactor in which a liquid content horizontally flows with an unfilled space being provided thereabove; a microwave generator that generates microwaves; and a waveguide that transmits the microwaves generated by the microwave generator to the unfilled space in the reactor;
A zinc-air secondary battery comprising: an air electrode including a catalyst containing a brownmillerite-type transition metal oxide; a negative electrode containing zinc as a negative electrode active material; and an electrolyte intervening between said air electrode and said negative electrode, wherein said brownmillerite-type transition metal oxide is represented by General Formula below: A 2 B 1 B 2 O 5 where A represents Ca, Sr, Ba, or a rare earth element, B 1 is a metal atom that forms a tetrahedral structure together with oxygen atoms, and is at least one metal atom selected from the group consisting of Fe, Co, Ni, and Zn, B 2 is a metal atom that forms an octahedral structure together with oxygen atoms, and is at least one metal atom selected from the group consisting of Fe, Co, Cr, Ni, Ti, and Cu, and B 2 contains Co. an air electrode including a catalyst containing a brownmillerite-type transition metal oxide; a negative electrode containing zinc as a negative electrode active material; and an electrolyte intervening between said air electrode and said negative electrode, wherein said brownmillerite-type transition metal oxide is represented by General Formula below: A 2 B 1 B 2 O 5 where A represents Ca, Sr, Ba, or a rare earth element, B 1 is a metal atom that forms a tetrahedral structure together with oxygen atoms, and is at least one metal atom selected from the group consisting of Fe, Co, Ni, and Zn, B 2 is a metal atom that forms an octahedral structure together with oxygen atoms, and is at least one metal atom selected from the group consisting of Fe, Co, Cr, Ni, Ti, and Cu, and B 2 contains Co. where A represents Ca, Sr, Ba, or a rare earth element, B 1 is a metal atom that forms a tetrahedral structure together with oxygen atoms, and is at least one metal atom selected from the group consisting of Fe, Co, Ni, and Zn, B 2 is a metal atom that forms an octahedral structure together with oxygen atoms, and is at least one metal atom selected from the group consisting of Fe, Co, Cr, Ni, Ti, and Cu, and B 2 contains Co.
A turbine rotor blade of a plurality of the turbine rotor blades which are arranged at a predetermined interval in a circumferential direction of a rotary shaft, comprising: a blade main body having a proximal end fixed to the rotary shaft; and a tip shroud provided on a tip end of the blade main body so as to constitute a part of an annular shroud, whereby a meridian plane shape on a tip end side of a leading edge of the blade main body is continuous to an outside surface of the tip shroud via a curved portion curved toward a trailing edge of the blade main body, characterised in that a fillet (51a, 51b) is provided between the tip end of the blade main body and an inside surface of the tip shroud, and the curved portion is located closer to the leading edge than the fillet (51a, 51b). a blade main body having a proximal end fixed to the rotary shaft; and a tip shroud provided on a tip end of the blade main body so as to constitute a part of an annular shroud, whereby a meridian plane shape on a tip end side of a leading edge of the blade main body is continuous to an outside surface of the tip shroud via a curved portion curved toward a trailing edge of the blade main body, characterised in that a fillet (51a, 51b) is provided between the tip end of the blade main body and an inside surface of the tip shroud, and the curved portion is located closer to the leading edge than the fillet (51a, 51b).
A method of making a vacuum insulated refrigerator structure, the method comprising: forming a wrapper from a sheet of material whereby the wrapper has a first opening and a first edge extending around the first opening; forming a liner from a sheet of material whereby the liner has a second opening (30a, 30b) and a second edge (34a, 34b) extending around the second opening (30a, 30b); positioning the liner inside of the wrapper with the first and second edges (22, 34a, 34b) being spaced apart to form a gap therebetween, and to form a cavity between the wrapper and the liner; forming an insulating thermal bridge by molding corner portions onto adjacent end portions of one or more elongated rails (50a-50g) in an injection molding device, wherein the insulating thermal bridge includes elongated first and second channels (62, 66); positioning uncured curable sealant in the first and second channels (62, 66); inserting the first and second edges (22, 34a, 34b) into the first and second channels (62, 66), respectively, to couple the insulating thermal bridge across the gap; causing a porous material to at least partially fill the cavity between the wrapper and the liner; forming a vacuum in the cavity; and sealing the cavity to maintain the vacuum, wherein the one or more elongated rails (50a-50g) are co-extruded with one or more flexible locators extending into the elongated first and/or second channels (62, 66) from at least one channel wall and wherein the curable sealant is positioned in the elongated first and second channels (62, 66) before or after the insulating thermal bridge is coupled across the gap. forming a wrapper from a sheet of material whereby the wrapper has a first opening and a first edge extending around the first opening; forming a liner from a sheet of material whereby the liner has a second opening (30a, 30b) and a second edge (34a, 34b) extending around the second opening (30a, 30b); positioning the liner inside of the wrapper with the first and second edges (22, 34a, 34b) being spaced apart to form a gap therebetween, and to form a cavity between the wrapper and the liner; forming an insulating thermal bridge by molding corner portions onto adjacent end portions of one or more elongated rails (50a-50g) in an injection molding device, wherein the insulating thermal bridge includes elongated first and second channels (62, 66); positioning uncured curable sealant in the first and second channels (62, 66); inserting the first and second edges (22, 34a, 34b) into the first and second channels (62, 66), respectively, to couple the insulating thermal bridge across the gap; causing a porous material to at least partially fill the cavity between the wrapper and the liner; forming a vacuum in the cavity; and sealing the cavity to maintain the vacuum,
A method of distributing data from a server, said server having memory storing static data and dynamic data associated with one or more objects within a plurality of tiles, each tile defining a geographic area in digital map data, the method comprising: selecting, by the server, one or more tiles based on the location of a mobile device; synchronising static data on the mobile device with the static data stored in the memory of the server for one or more objects within the selected one or more tiles, wherein the synchronising comprises determining a validity of static data on the mobile device associated with the one or more objects within the selected one or more tiles based upon validity information of the static data, the validity information identifying a period of time for which the static data is valid, and updating invalid static data on the mobile device; and distributing, by the server, dynamic data updates to the mobile device, the dynamic data updates being associated with the one or more objects based upon the location of the mobile device, wherein the distributing comprises communicating dynamic data to the mobile device based on validity information of the dynamic data, the validity information of the dynamic data identifying a period of time for which the dynamic data is valid, wherein the static data comprises data indicative of one or more slowly-varying attributes associated with the one or more objects and the dynamic data comprises data indicative of dynamically variable attributes associated with the one or more objects, such that the static data varies at a slower rate than the dynamic data. selecting, by the server, one or more tiles based on the location of a mobile device; synchronising static data on the mobile device with the static data stored in the memory of the server for one or more objects within the selected one or more tiles, wherein the synchronising comprises determining a validity of static data on the mobile device associated with the one or more objects within the selected one or more tiles based upon validity information of the static data, the validity information identifying a period of time for which the static data is valid, and updating invalid static data on the mobile device; and distributing, by the server, dynamic data updates to the mobile device, the dynamic data updates being associated with the one or more objects based upon the location of the mobile device, wherein the distributing comprises communicating dynamic data to the mobile device based on validity information of the dynamic data, the validity information of the dynamic data identifying a period of time for which the dynamic data is valid, wherein the static data comprises data indicative of one or more slowly-varying attributes associated with the one or more objects and the dynamic data comprises data indicative of dynamically variable attributes associated with the one or more objects, such that the static data varies at a slower rate than the dynamic data.
Thermoforming tool for thermoforming a film, made of a thermoplastic material, into a moulded part, in particular a moulded part of a refrigerator, having an upper tool part, having a lower tool part, and having a holding device for holding the film between the two tool parts (10, 11), wherein a measuring device for measuring at least one wall thickness is provided on the thermoformed film, characterized in that the measuring device or at least individual components (27, 28, 30, 31, 40, 41, 45, 46, 47) thereof are arranged on the holding device and wherein - the holding device is realized as a clamping frame part or clamping frame and/or - a plurality of individual grippers are provided for holding the film. - the holding device is realized as a clamping frame part or clamping frame and/or - a plurality of individual grippers are provided for holding the film.
Hair styling device, comprising: - a hair styling component (11, 13) configured to face hair to be subjected to a styling action by means of the hair styling device, - a heating mechanism configured to heat the hair styling component (11, 13), - a component temperature sensor configured to detect a temperature of the hair styling component (11, 13), - a hair temperature sensor configured to detect a temperature of hair faced by the hair styling component (11, 13) during operation of the hair styling device, and - a controller configured to receive inputs from at least both the component temperature sensor and the hair temperature sensor, and to process the inputs to control operation of the heating mechanism, characterized in that the controller is further configured to obtain a temperature setting of the hair styling component (11, 13) in view of a moisture content of the hair estimated from at least the detected hair temperature and the detected temperature of the hair styling component. - a hair styling component (11, 13) configured to face hair to be subjected to a styling action by means of the hair styling device, - a heating mechanism configured to heat the hair styling component (11, 13), - a component temperature sensor configured to detect a temperature of the hair styling component (11, 13), - a hair temperature sensor configured to detect a temperature of hair faced by the hair styling component (11, 13) during operation of the hair styling device, and - a controller configured to receive inputs from at least both the component temperature sensor and the hair temperature sensor, and to process the inputs to control operation of the heating mechanism, characterized in that the controller is further configured to obtain a temperature setting of the hair styling component (11, 13) in view of a moisture content of the hair estimated from at least the detected hair temperature and the detected temperature of the hair styling component.
A hearing aid, comprising: a hearing aid housing, the hearing aid housing comprising a receiving portion; and a support structure positioned within the hearing aid housing, the support structure comprising a substrate having an electronic circuit; wherein the support structure is being coupled to the receiving portion, wherein the receiving portion comprises a first support slot and a second support slot, wherein the substrate comprises a first contact portion and a second contact portion, characterized by the support structure furthermore comprising a support member coupled to the substrate, the support member being configured to be adhered to the substrate wherein the support member comprises a first support portion and a second support portion, wherein the first support portion is configured to be fitted into the first support slot and the second support portion is configured to be fitted into the second support slot. a hearing aid housing, the hearing aid housing comprising a receiving portion; and a support structure positioned within the hearing aid housing, the support structure comprising a substrate having an electronic circuit;
A method for processing a graph instruction in a directed graphflow computing architecture, wherein the method comprises: detecting whether a first input and a second input of a first graph instruction are in a ready-to-complete state, wherein the first input and/or the second input are or is a dynamic data input or dynamic data inputs of the first graph instruction, wherein the first graph instruction corresponds to a valid bitfield which indicates whether the first input and the second input are in the ready-to-complete state, and wherein the ready-to-complete state indicates that the first input and the second input are ready, and wherein the dynamic data input is a data input that dynamically changes; obtaining static data input information of the first graph instruction from a first register when the first input and the second input are both in the ready-to-complete state, wherein the static data input information is used to indicate at least one input, and wherein the static data input is a data input that does not change in a period of time; and processing the first graph instruction based on the first input, the second input, and the at least one input, to obtain a first processing result. detecting whether a first input and a second input of a first graph instruction are in a ready-to-complete state, wherein the first input and/or the second input are or is a dynamic data input or dynamic data inputs of the first graph instruction, wherein the first graph instruction corresponds to a valid bitfield which indicates whether the first input and the second input are in the ready-to-complete state, and wherein the ready-to-complete state indicates that the first input and the second input are ready, and wherein the dynamic data input is a data input that dynamically changes; obtaining static data input information of the first graph instruction from a first register when the first input and the second input are both in the ready-to-complete state, wherein the static data input information is used to indicate at least one input, and wherein the static data input is a data input that does not change in a period of time; and processing the first graph instruction based on the first input, the second input, and the at least one input, to obtain a first processing result.
A pump, in particular a submersible pump, comprising - a shaft for driving an impeller in a pump chamber; - an electrical motor chamber extending essentially circumferentially around a motor section of the shaft; - a cooling circuit chamber for being filled with a cooling liquid; - a mechanical seal chamber extending essentially circumferentially around a seal section of the shaft, with the mechanical seal chamber adapted for being filled with oil, and - an oil chamber adapted for being filled with oil, wherein the dry electrical motor chamber, the cooling circuit chamber, and the mechanical seal chamber are hermetically sealed from each other, wherein at least part of the cooling circuit chamber extends essentially circumferentially around the electrical motor chamber, wherein the oil chamber extends essentially circumferentially around the mechanical seal chamber, and wherein the oil chamber extends essentially circumferentially around a part of the cooling circuit chamber extending essentially circumferentially around the mechanical seal chamber. - a shaft for driving an impeller in a pump chamber; - an electrical motor chamber extending essentially circumferentially around a motor section of the shaft; - a cooling circuit chamber for being filled with a cooling liquid; - a mechanical seal chamber extending essentially circumferentially around a seal section of the shaft, with the mechanical seal chamber adapted for being filled with oil, and - an oil chamber adapted for being filled with oil,
A security element against counterfeiting security printing, in particular banknotes, comprising at least one graphene quantum dot that is a graphene nanoparticle with a diameter of from 0.5 nm to 60 nm, containing from 1 to 90 layers of graphene disposed in a flexible layer of graphene nanocomposite material, wherein the elastic layer of graphene nanocomposite material comprises at least one graphene layer and two layers of adhesive, wherein the at least one layer of graphene is located directly between the two layers of adhesive.