mhurhangee/patent-ind-claim-en huggingface dataset:
A forced air warming blanket for providing conditioned gas to a subject, the forced air warming blanket comprising: a first blanket portion which comprises a generally U-shaped inflatable region , at least part of the external surface of the inflatable region being air permeable, the inflatable region further comprising an inlet port for receiving temperature conditioned gas; and an inner blanket portion within the generally U-shaped inflatable region of the first blanket portion; wherein the inner blanket portion comprises an inner inflatable region , at least part of the external surface of which is air permeable, and an inlet port for receiving temperature conditioned gas into the inflatable region; characterised in that the forced air warming blanket comprises one or more tear lines between the first blanket portion and the inner blanket portion , which one or more tear lines can be torn to at least partially detach the inner blanket portion from the first blanket portion and wherein the forced air warming blanket further comprises an outer blanket portion outside the first blanket portion . a first blanket portion which comprises a generally U-shaped inflatable region , at least part of the external surface of the inflatable region being air permeable, the inflatable region further comprising an inlet port for receiving temperature conditioned gas; and an inner blanket portion within the generally U-shaped inflatable region of the first blanket portion; wherein the inner blanket portion comprises an inner inflatable region , at least part of the external surface of which is air permeable, and an inlet port for receiving temperature conditioned gas into the inflatable region; characterised in that the forced air warming blanket comprises one or more tear lines between the first blanket portion and the inner blanket portion , which one or more tear lines can be torn to at least partially detach the inner blanket portion from the first blanket portion and wherein the forced air warming blanket further comprises an outer blanket portion outside the first blanket portion .
Installation for vapour deposition of a coating on optical articles , comprising - a source emitting molecules of a material to be deposited on the optical articles , the molecules being emitted according to an evaporation cone, - a rotary support of optical articles comprising individual receptacles intended to receive the optical articles and performing revolutions while the rotary support is rotating, the individual receptacles of optical articles being arranged in concentric tracks , and - a distribution mask arranged on the path of a portion of the molecules emitted by said emitting source towards the rotary support of optical articles , wherein the distribution mask is formed with at least one curved arm extending along an associated track and arranged so as to mask a partial zone of an individual receptacle over a part of the revolution, this masked partial zone including the centre of the individual receptacle , the at least one curved arm being arranged so as to be centred facing the concentric track , and the width of each curved arm at right angles to the associated track is configured such that the projected imprint of the curved arm on the individual receptacles of the associated track has a width at right angles to the associated track which is less than the width of the individual receptacles . - a source emitting molecules of a material to be deposited on the optical articles , the molecules being emitted according to an evaporation cone, - a rotary support of optical articles comprising individual receptacles intended to receive the optical articles and performing revolutions while the rotary support is rotating, the individual receptacles of optical articles being arranged in concentric tracks , and - a distribution mask arranged on the path of a portion of the molecules emitted by said emitting source towards the rotary support of optical articles ,
Method for updating security elements cooperating with telecommunications terminals, said updates being carried out by an OTA platform on the basis of queries made by said security elements , said security elements transmitting PSK-IDs to said OTA platform , characterised in that the identities IDs of the PSK-IDs define an order of priority for taking into account queries made by said security elements to said OTA platform .
A ladder comprising: a first rail, a second rail spaced apart from the first rail, and at least one member extending between and coupled to the first rail and the second rail; at least one brace , wherein the at least one brace includes a first connecting portion coupled with the first rail, a second connecting portion coupled with the at least one member , and a strut portion extending between, and connected to, the first connecting portion and the second connecting portion ; characterized in that the first connecting portion includes a tubular configuration having a closed cross-sectional geometry that encircles a portion of the first rail. a first rail, a second rail spaced apart from the first rail, and at least one member extending between and coupled to the first rail and the second rail; at least one brace , wherein the at least one brace includes a first connecting portion coupled with the first rail, a second connecting portion coupled with the at least one member , and a strut portion extending between, and connected to, the first connecting portion and the second connecting portion ; characterized in that the first connecting portion includes a tubular configuration having a closed cross-sectional geometry that encircles a portion of the first rail.
Mount intended to connect at least mechanically a vehicle to an electric drive unit of a wiping system, the mount comprising a heat sink capable of dissipating a heat flow from the electric drive unit , the heat sink comprising at least one wall forming a body of the mount , said wall being capable of being brought into contact with the electric drive unit , the wall further extending in a plane parallel to and distinct from a plane in which the body extends so as to form a cavity having an orifice , characterized in that it comprises a device for channelling a liquid, in which the orifice forms an outlet for the liquid.
A composite container for products comprising: a tubular body defining a first end and comprising: at least one paperboard body ply having an inner surface ; and a metallized Oriented Polypropylene (mOPP) liner ply adhered to the inner surface of the at least one paperboard body ply , wherein a liner sealant is disposed on an inner surface of the mOPP liner ply , wherein the at least one paperboard body ply and the mOPP liner ply are rolled outwardly to form a rim at the first end of the tubular body , wherein the first end defines an opening providing access to an interior of the tubular body and the products held therein; and a peelable membrane for closing the tubular body to form the container , wherein a membrane sealant is disposed on an inner surface of the membrane and is sealed to the liner sealant on the rim of the tubular body , wherein the mOPP liner ply comprises an outer mOPP layer, a core mOPP layer, and an inner mOPP layer, such that upon peeling of the membrane from the tubular body to access the products via the opening, the membrane sealant and the liner sealant remain sealed to each other and cause separation within the mOPP liner ply to allow the membrane to be removed from the first end of the tubular member . a tubular body defining a first end and comprising: at least one paperboard body ply having an inner surface ; and a metallized Oriented Polypropylene (mOPP) liner ply adhered to the inner surface of the at least one paperboard body ply , wherein a liner sealant is disposed on an inner surface of the mOPP liner ply , wherein the at least one paperboard body ply and the mOPP liner ply are rolled outwardly to form a rim at the first end of the tubular body , wherein the first end defines an opening providing access to an interior of the tubular body and the products held therein; and at least one paperboard body ply having an inner surface ; and a metallized Oriented Polypropylene (mOPP) liner ply adhered to the inner surface of the at least one paperboard body ply , wherein a liner sealant is disposed on an inner surface of the mOPP liner ply , wherein the at least one paperboard body ply and the mOPP liner ply are rolled outwardly to form a rim at the first end of the tubular body , wherein the first end defines an opening providing access to an interior of the tubular body and the products held therein; and a peelable membrane for closing the tubular body to form the container , wherein a membrane sealant is disposed on an inner surface of the membrane and is sealed to the liner sealant on the rim of the tubular body , wherein the mOPP liner ply comprises an outer mOPP layer, a core mOPP layer, and an inner mOPP layer, such that upon peeling of the membrane from the tubular body to access the products via the opening, the membrane sealant and the liner sealant remain sealed to each other and cause separation within the mOPP liner ply to allow the membrane to be removed from the first end of the tubular member .
A bladed rotor wheel for a gas turbine engine comprising at least a rotatable forged disc , the rotatable forged disc comprising: - a front surface and a back surface , - at least one rim surface , the bladed rotor wheel being characterised in that the rotatable forged disc further comprises: - a plurality of projections located on at least a portion of at least one of the front or back surface and/or on the rim surface , wherein the projections are 3D printed features protruding outwards from the front , back and/or rim surface, the projections are arranged forming a pattern so that a heat transfer capability is created at the front , back and/or rim surface; and the ratio of the distance between projections to the forged disc external radius is lower than 0.15. - a front surface and a back surface , - at least one rim surface , - a plurality of projections located on at least a portion of at least one of the front or back surface and/or on the rim surface , the projections are 3D printed features protruding outwards from the front , back and/or rim surface, the projections are arranged forming a pattern so that a heat transfer capability is created at the front , back and/or rim surface; and the ratio of the distance between projections to the forged disc external radius is lower than 0.15.
Process for preparing a copolymer (C) having an agglomerating effect, obtained by i) polymerizing (C1): 80 to 99.9% by weight of one or more hydrophobic C 1 - to C 12 - alkyl acrylates or C 1 - to C 12 - alkyl methacrylates, ii) adding at least one emulsifier (E), iii) adding and polymerizing (C2) : 0.1 to 20% by weight of one or more hydrophilic comonomers selected from the group consisting of acrylamide and methacrylamide, wherein (C1) and (C2) add up to 100% by weight, wherein the addition of (C2) is carried out after the addition of (E) in step ii) . i) polymerizing (C1): 80 to 99.9% by weight of one or more hydrophobic C 1 - to C 12 - alkyl acrylates or C 1 - to C 12 - alkyl methacrylates, ii) adding at least one emulsifier (E), iii) adding and polymerizing (C2) : 0.1 to 20% by weight of one or more hydrophilic comonomers selected from the group consisting of acrylamide and methacrylamide, wherein (C1) and (C2) add up to 100% by weight,
An apparatus for processing a substrate , comprising: a chamber body defining a process volume having sidewalls , wherein a major axis of the process volume is oriented vertically and a minor axis of the process volume is oriented horizontally; a moveable door coupled to the chamber body ; a vacuum chuck coupled to the door ; a sliding seal coupled to sidewalls of the chamber body and at least partially defining a portion of the process volume ; a plurality of moveable electrodes disposed in the process volume opposite the vacuum chuck , the plurality of moveable electrodes adapted to generate an electric field parallel to the major axis of the process volume ; a plurality of shafts extending from the plurality of electrodes , the shafts extending through the sliding seal ; and a motor coupled to the plurality of shafts . a chamber body defining a process volume having sidewalls , wherein a major axis of the process volume is oriented vertically and a minor axis of the process volume is oriented horizontally; a moveable door coupled to the chamber body ; a vacuum chuck coupled to the door ; a sliding seal coupled to sidewalls of the chamber body and at least partially defining a portion of the process volume ; a plurality of moveable electrodes disposed in the process volume opposite the vacuum chuck , the plurality of moveable electrodes adapted to generate an electric field parallel to the major axis of the process volume ; a plurality of shafts extending from the plurality of electrodes , the shafts extending through the sliding seal ; and a motor coupled to the plurality of shafts .
A method performed by an apparatus , the method comprising: providing, in dependence on a first subcarrier spacing of a first subframe structure, a second subcarrier spacing of a second subframe structure, wherein determining the second subcarrier spacing comprises applying a scaling factor n to the first subcarrier spacing, wherein the first subframe structure has a first subframe length and at least one first cyclic prefix length; and providing a second subframe length of the second subframe structure, the second subframe length comprising m symbols, wherein each symbol contains a second cyclic prefix, a second cyclic prefix length being modified by a length variant, wherein the at least one cyclic prefix length of the first subframe comprises multiple cyclic prefix lengths among the symbols in the first subframe, and a total sum of cyclic prefix lengths of M symbols is T N − M Δ ƒ , where Δf is the second subcarrier spacing, T N is a time duration for N subframes, N ∈ [1, 2, ], T N is the first subframe length divided by scaling factor n and multiplied by N, wherein N is the number of subframes, and M is the number of OFDMA symbols corresponding to N subframes, the ratio between different second cyclic prefix lengths among the symbols within the second subframe is the same as in the first subframe. providing, in dependence on a first subcarrier spacing of a first subframe structure, a second subcarrier spacing of a second subframe structure, wherein determining the second subcarrier spacing comprises applying a scaling factor n to the first subcarrier spacing, wherein the first subframe structure has a first subframe length and at least one first cyclic prefix length; and providing a second subframe length of the second subframe structure, the second subframe length comprising m symbols, wherein each symbol contains a second cyclic prefix, a second cyclic prefix length being modified by a length variant, wherein the at least one cyclic prefix length of the first subframe comprises multiple cyclic prefix lengths among the symbols in the first subframe, and a total sum of cyclic prefix lengths of M symbols is T N − M Δ ƒ , where Δf is the second subcarrier spacing, T N is a time duration for N subframes, N ∈ [1, 2, ], T N is the first subframe length divided by scaling factor n and multiplied by N, wherein N is the number of subframes, and M is the number of OFDMA symbols corresponding to N subframes, the ratio between different second cyclic prefix lengths among the symbols within the second subframe is the same as in the first subframe.
A method of wireless communication, comprising: determining , by a base station , a signal configuration for transmitting a tracking reference signal, TRS, to a user equipment, UE , wherein the signal configuration identifies a subset of locations, of a set of locations included in a transmission window, that is to be used to transmit the TRS, wherein the transmission window is a predetermined window comprising multiple slots during which the base station may transmit a TRS, and wherein the signal configuration is selected to assist the UE with one or more measurements; transmitting , by the base station and based on the signal configuration, the TRS in the subset of locations; characterized by : determining, by the base station , an additional signal configuration for transmitting an additional TRS to the UE , wherein the additional signal configuration identifies an additional subset of locations, of the set of locations included in the transmission window, that is to be used to transmit the additional TRS; transmitting control signaling information that identifies the additional subset of locations; and transmitting, by the base station , the additional TRS based on the additional signal configuration, wherein the additional TRS is transmitted in the additional subset of locations. determining , by a base station , a signal configuration for transmitting a tracking reference signal, TRS, to a user equipment, UE , wherein the signal configuration identifies a subset of locations, of a set of locations included in a transmission window, that is to be used to transmit the TRS, wherein the transmission window is a predetermined window comprising multiple slots during which the base station may transmit a TRS, and wherein the signal configuration is selected to assist the UE with one or more measurements; transmitting , by the base station and based on the signal configuration, the TRS in the subset of locations; characterized by : determining, by the base station , an additional signal configuration for transmitting an additional TRS to the UE , wherein the additional signal configuration identifies an additional subset of locations, of the set of locations included in the transmission window, that is to be used to transmit the additional TRS; transmitting control signaling information that identifies the additional subset of locations; and transmitting, by the base station , the additional TRS based on the additional signal configuration, wherein the additional TRS is transmitted in the additional subset of locations. determining, by the base station , an additional signal configuration for transmitting an additional TRS to the UE , wherein the additional signal configuration identifies an additional subset of locations, of the set of locations included in the transmission window, that is to be used to transmit the additional TRS; transmitting control signaling information that identifies the additional subset of locations; and transmitting, by the base station , the additional TRS based on the additional signal configuration, wherein the additional TRS is transmitted in the additional subset of locations.
Assist method for coupling a motor vehicle to a trailer , wherein the motor vehicle is embodied with a trailer coupling , at least one camera , a display and an electronic unit , wherein the trailer is embodied with a tow bar for the trailer coupling , said method comprising the following steps: a) capturing a first image of at least one tow bar of a trailer by means of the camera , b) displaying the first image on the display , c) selecting a first region (I) in the first image in which the tow bar is located, wherein a coordinate-dependent locating accuracy for the tow bar is allocated to the first region (I), d) enlarging the selected first region (I) in order to produce a second image , e) displaying the second image on the display , f) selecting a second region (II) in the second image in which the tow bar is located, wherein an increased coordinate-dependent locating accuracy for the tow bar is allocated to the second region (II) than to the first region, g) determining a trajectory of the motor vehicle for coupling the trailer assuming that the tow bar is located in the second region (II), and wherein in step c) and in step f) a user is prompted to confirm that the tow bar is located within the first region (I) and/or within the second region (II). a) capturing a first image of at least one tow bar of a trailer by means of the camera , b) displaying the first image on the display , c) selecting a first region (I) in the first image in which the tow bar is located, wherein a coordinate-dependent locating accuracy for the tow bar is allocated to the first region (I), d) enlarging the selected first region (I) in order to produce a second image , e) displaying the second image on the display , f) selecting a second region (II) in the second image in which the tow bar is located, wherein an increased coordinate-dependent locating accuracy for the tow bar is allocated to the second region (II) than to the first region, g) determining a trajectory of the motor vehicle for coupling the trailer assuming that the tow bar is located in the second region (II),
A method of operating an agricultural transport wagon which is towed by a towing vehicle or which is self-propelled, wherein a load space of the transport wagon is loaded with crop material from a harvesting vehicle travelling beside the transport wagon , characterised in that during the operation of loading the agricultural transport wagon a mass of the crop material received in the load space of the transport wagon is automatically ascertained and in dependence on the ascertained mass of the crop material received in the load space of the transport wagon at least one signal device of the transport wagon is automatically actuated to signal the end of the loading operation at least to a driver of the harvesting vehicle, wherein the ascertained mass of the crop material received in the load space is automatically compared to a limit value dependent on a maximum permissible load and when the ascertained mass of the crop material received in the load space reaches or exceeds that limit value the respective signal device of the transport wagon is actuated to signal the end of the loading operation at least to the driver of the harvesting vehicle .
A method of defrosting a food item, including: monitoring a temperature of a surface part of a first food item, and a temperature of a core part of the first food item or a second food item; and controlling a surrounding temperature of the first food item in dependence on said monitored temperatures using temperature control data specifying for a plurality of consecutive temperatures of the surface part of the first food item corresponding target surrounding temperatures that decrease as the first food item defrosts, the controlling including: i) decreasing the surrounding temperature of the first food item, using an unheated fluid having a temperature less than the surrounding temperature of the first food item, when the surrounding temperature is greater than the target surrounding temperature for a given temperature of the surface part. monitoring a temperature of a surface part of a first food item, and a temperature of a core part of the first food item or a second food item; and controlling a surrounding temperature of the first food item in dependence on said monitored temperatures using temperature control data specifying for a plurality of consecutive temperatures of the surface part of the first food item corresponding target surrounding temperatures that decrease as the first food item defrosts, the controlling including: i) decreasing the surrounding temperature of the first food item, using an unheated fluid having a temperature less than the surrounding temperature of the first food item, when the surrounding temperature is greater than the target surrounding temperature for a given temperature of the surface part. i) decreasing the surrounding temperature of the first food item, using an unheated fluid having a temperature less than the surrounding temperature of the first food item, when the surrounding temperature is greater than the target surrounding temperature for a given temperature of the surface part.