mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling device, comprising: a magnetocaloric material whose temperature (T) changes when an external magnetic field (H) changes, and whose temperature changes when an applied pressure (P) or a stress changes; a magnetization device for forming the external magnetic field (H); a conversion device for applying the pressure (P) or the stress to the magnetocaloric material ; movement means that are designed to move the magnetocaloric material relative to the magnetization device and the conversion device , so that the magnetocaloric material is exposed in alternation to the external magnetic field (H) and to the change in the pressure (P) or the stress in order to achieve a periodic change in temperature of the magnetocaloric material , wherein periods of reduced temperature are usable for cooling. a magnetocaloric material whose temperature (T) changes when an external magnetic field (H) changes, and whose temperature changes when an applied pressure (P) or a stress changes; a magnetization device for forming the external magnetic field (H); a conversion device for applying the pressure (P) or the stress to the magnetocaloric material ; movement means that are designed to move the magnetocaloric material relative to the magnetization device and the conversion device , so that the magnetocaloric material is exposed in alternation to the external magnetic field (H) and to the change in the pressure (P) or the stress in order to achieve a periodic change in temperature of the magnetocaloric material , wherein periods of reduced temperature are usable for cooling.
Stator for a rotating electric machine, comprising a body equipped with a yoke and with teeth defining, in pairs, slots , and a winding comprising conductors having segment structures that are inserted inside the slots , and a ratio between a slot width (L1) covered with a slot insulator and a segment structure width (L2) covered with enamel is between 0.9 and 2, the slots are trapezoidal and are provided with edges whose directions converge on the shaft (X) of the stator, and characterized in that the following is defined for each slot: - a slot entry clearance equal to the insertion clearance (J); - a slot base clearance, twice the slot base clearance being less than +0.5 mm. - a slot entry clearance equal to the insertion clearance (J); - a slot base clearance, twice the slot base clearance being less than +0.5 mm.
Method for operating a charging device with multiple charging converters (LW1 to LWn) in a number adapted to a required charging power, which charging converters together feed a low-voltage on-board electrical system (NV) of a hybrid or electric vehicle, wherein the charging converters (LW1 to LWn) convert a direct-current voltage (UE1) provided by an energy source (E1) into output-side charging voltages (UA1 to UAn), characterized in that a controller (CU) predefines a common setpoint charging voltage (Us) for all charging converters (LW1 to LWn), and in that each charging converter (LW1 to LWn), in a manner dependent on its output-side charging current (IA1 to IAn), which is measured cyclically by the respective charging converter (LW1 to LWn), applies a corrective voltage value (Uk) to the predefined setpoint charging voltage (Us) and sets this as output-side charging voltage (UA1 to UAn).
A system for processing material, the system comprising: - a compacting device for compacting the material, and - a treatment device for agglomerating, pelletizing, or nozzle-extruding the compacted material, wherein the compacting device comprises a compacting chamber and a compacting element (104, 204, 504a, 504b, 603a, 603b, 703a-703c) moveable in the compacting chamber to reduce volume of the compacting chamber so as to compact the material to be delivered to the treatment device, characterized in that the system comprises a closing element for closing a passage from the compacting chamber to the treatment device when the compacting element is compacting the material and the treatment device is agglomerating, pelletizing, or nozzle-extruding a previous batch of the material. - a compacting device for compacting the material, and - a treatment device for agglomerating, pelletizing, or nozzle-extruding the compacted material,
A method , comprising - upscaling a noisy input image to obtain a noisy High-Resolution, HR, image; - denoising the noisy input image to obtain a denoised Low-Resolution, LR, image; - upscaling the denoised LR image to obtain an upscaled denoised LR image; and characterised by : - combining, by a sequence of non-linear filtering, the noisy HR image and the upscaled denoised LR image to generate a denoised HR image. - upscaling a noisy input image to obtain a noisy High-Resolution, HR, image; - denoising the noisy input image to obtain a denoised Low-Resolution, LR, image; - upscaling the denoised LR image to obtain an upscaled denoised LR image; and characterised by : - combining, by a sequence of non-linear filtering, the noisy HR image and the upscaled denoised LR image to generate a denoised HR image.
A ceramic electric heating element, wherein the ceramic electric heating element is wrapped by an insulating layer, wherein the ceramic electric heating element has six layers, from the inside out, an inner conducting layer , an inner resistive layer , an inner insulating layer , an outer resistive layer , an outer conducting layer , and an outer insulating layer , respectively, wherein the inner conducting layer is located in the centre of the ceramic electric heating element; the inner resistive layer wraps the inner conducting layer on the outside; the inner insulating layer wraps the inner resistive layer on the outside, and the inner insulating layer is divided into two segments, with the peripheral profile of the lower segment being greater than that of the upper segment; the outer resistive layer wraps the upper part of the inner insulating layer on the outside, and the outer resistive layer is divided into two segments, the outer insulating layer wraps the upper segment of the outer resistive layer on the outside and the outer conducting layer wraps the lower segment of the outer resistive layer on the outside, the lower part of the inner conducting layer is a spot where a central electrode is located, the upper end of the inner resistive layer has a connecting hole , characterized in that the outer conducting layer is divided into two segments, with the peripheral profile of the lower segment equalling to that of the lower segment of the inner insulating layer , and the peripheral profile of the upper segment equalling to that of the upper segment of the outer resistive layer ; and the outer insulating layer wraps the upper segment of the outer conducting layer on the outside, with the peripheral profile of the outer insulating layer equalling to that of the lower segment of the outer conducting layer ; and the outside of the lower part of the outer conducting layer is a spot where a side electrode is connectable, the peripheral profile of the lower segment of the outer resistive layer being less than that of the upper segment of the outer resistive layer , and the peripheral profile of the upper segment of the outer resistive layer being less than that of the lower segment of the inner insulating layer .
Method for securing an object, the method comprising: - a step of encoding a first message in a two-dimensional barcode ; - a step of generating an anti-copy mark ; and - a step of marking the object with the first 2D barcode and the anti-copy mark, characterised in that : - the first message comprises at least a header identifying a certification resource and a signature produced by means of this resource; and - the anti-copy mark is fragile and encodes a second message representative of the signature produced, the second message comprising redundancies. - a step of encoding a first message in a two-dimensional barcode ; - a step of generating an anti-copy mark ; and - a step of marking the object with the first 2D barcode and the anti-copy mark, - the first message comprises at least a header identifying a certification resource and a signature produced by means of this resource; and - the anti-copy mark is fragile and encodes a second message representative of the signature produced, the second message comprising redundancies.
Manual device , comprising an open first end suitable for receiving a rear end of a writing instrument in a longitudinal direction, and a second end which is opposite the first end in the longitudinal direction and equipped with an electrically conductive pad , said manual device comprising, between the first and the second end, an outer part made of elastomer and an electrically conductive inner structure , said inner structure forming an electrical connection between said pad and at least one conductive surface of the inner structure , said manual device being characterized in that said conductive surface of the inner structure is exposed through an opening in a gripping surface of said outer part .
A gas phase process to co-polymerize ethylene and at least one co-monomer in the presence of at least one catalyst poison using a combination catalyst to provide a polymer composition comprising a first polymer component and a second polymer component wherein said process comprises: adjusting the ratio of said first polymer component to said second polymer component by altering the amount of scavenger present; wherein said combination catalyst comprises: an inorganic chromium catalyst, a group 4 single site catalyst, one or more activators; and a support; wherein said inorganic chromium catalyst provides said first polymer component and said group 4 single site catalyst provides said second polymer component; wherein said catalyst poison reduces the polymerization activity of said group 4 single site catalyst relative to said inorganic chromium catalyst; and wherein lowering the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first higher level to a second lower level, increases said ratio of said first polymer component to said second polymer component, and raising the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first lower level to a second higher level, decreases said ratio of said first polymer component to said second polymer component. adjusting the ratio of said first polymer component to said second polymer component by altering the amount of scavenger present; wherein said combination catalyst comprises: an inorganic chromium catalyst, a group 4 single site catalyst, one or more activators; and a support; an inorganic chromium catalyst, a group 4 single site catalyst, one or more activators; and a support; wherein said inorganic chromium catalyst provides said first polymer component and said group 4 single site catalyst provides said second polymer component; wherein said catalyst poison reduces the polymerization activity of said group 4 single site catalyst relative to said inorganic chromium catalyst; and wherein lowering the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first higher level to a second lower level, increases said ratio of said first polymer component to said second polymer component, and raising the level of scavenger in ppm (weight of scavenger relative to the weight of polymer produced in parts per million) from a first lower level to a second higher level, decreases said ratio of said first polymer component to said second polymer component.
A synchronization signal reception method, wherein the method comprises: obtaining , by a terminal through detection, a first synchronization signal block, SSB, at a first candidate location; determining , by the terminal, a second candidate location based on the first candidate location, and obtaining, through detection when the terminal is a non-legacy terminal, a second SSB at the second candidate location, wherein there is a correspondence between the first candidate location and the second candidate location; and performing , by the terminal, physical broadcast channel, PBCH, detection or reference signal received power, RSRP, measurement based on the first SSB and/or the second SSB, wherein there is a correspondence between the first SSB and the second SSB, and characterized in that a PSS sequence of the second SSB is different from a PSS sequence of the first SSB, or the second SSB does not comprise a PSS, and a time-frequency structure of a remaining composition of the second SSB is the same as that of a first SSB. obtaining , by a terminal through detection, a first synchronization signal block, SSB, at a first candidate location; determining , by the terminal, a second candidate location based on the first candidate location, and obtaining, through detection when the terminal is a non-legacy terminal, a second SSB at the second candidate location, wherein there is a correspondence between the first candidate location and the second candidate location; and performing , by the terminal, physical broadcast channel, PBCH, detection or reference signal received power, RSRP, measurement based on the first SSB and/or the second SSB, wherein there is a correspondence between the first SSB and the second SSB, and characterized in that a PSS sequence of the second SSB is different from a PSS sequence of the first SSB, or the second SSB does not comprise a PSS, and a time-frequency structure of a remaining composition of the second SSB is the same as that of a first SSB.
Process for cleaning a polymerization reactor for producing aqueous polymer dispersions by means of radically initiated emulsion polymerization of one or more ethylenically unsaturated monomers in the presence of one or more protective colloids and/or emulsifiers, characterized in that an aqueous mixture is initially charged in the polymerization reactor which comprises one or more ethylenically unsaturated monomers, one or more protective colloids and/or emulsifiers and does not comprise an oxidation initiator, wherein the proportion of the ethylenically unsaturated monomers is 20 to 70% by weight, based on the total weight of the aqueous mixture, then the aqueous mixture is heated to a temperature of 50°C to 100°C, and the polymerization reactor is treated with the aqueous mixture for 5 minutes to 3 hours, then one or more initiators and optionally further starting materials are added, then the polymerization is initiated, and the aqueous polymer dispersion thus obtained is removed from the polymerization reactor and is post-treated to remove the wall deposits detached during the treatment.
A method of forming an article comprising: providing a multi-layer article comprising: a substrate with a first major surface and a second major surface; an adhesive layer with a first major surface and a second major surface, wherein the first major surface of the adhesive layer is contacting the second major surface of the substrate ; and a liner with a first major surface and a second major surface, wherein the first major surface of the liner is contacting the second major surface of the adhesive layer ; providing an embossing tool with a structured surface; providing a support surface tool such that the support surface tool does not have the same structured surface as the embossing tool ; placing the multi-layer article between the structured surface of the embossing tool and the surface of the support surface tool to form a construction, such that the first major surface of the substrate is in contact with the surface of the support surface tool ; applying pressure or a combination of pressure and heat to the construction such that at least some of the structures on the surface of the embossing tool distort the liner and the adhesive layer , and simultaneously the support surface tool modifies the surface of the first major surface of the substrate , and wherein the distortion in the liner is retained upon release of the applied pressure. providing a multi-layer article comprising: a substrate with a first major surface and a second major surface; an adhesive layer with a first major surface and a second major surface, wherein the first major surface of the adhesive layer is contacting the second major surface of the substrate ; and a liner with a first major surface and a second major surface, wherein the first major surface of the liner is contacting the second major surface of the adhesive layer ; a substrate with a first major surface and a second major surface; an adhesive layer with a first major surface and a second major surface, wherein the first major surface of the adhesive layer is contacting the second major surface of the substrate ; and a liner with a first major surface and a second major surface, wherein the first major surface of the liner is contacting the second major surface of the adhesive layer ; providing an embossing tool with a structured surface; providing a support surface tool such that the support surface tool does not have the same structured surface as the embossing tool ; placing the multi-layer article between the structured surface of the embossing tool and the surface of the support surface tool to form a construction, such that the first major surface of the substrate is in contact with the surface of the support surface tool ; applying pressure or a combination of pressure and heat to the construction such that at least some of the structures on the surface of the embossing tool distort the liner and the adhesive layer , and simultaneously the support surface tool modifies the surface of the first major surface of the substrate , and wherein the distortion in the liner is retained upon release of the applied pressure.
A container manufacturing method, comprising: a preform feed step (S1) of feeding a preform formed into a bottomed tubular shape by a resin material into a cavity of a batch-type mold for blow molding; a liquid blow step (S2) of filling a pressurized liquid into the preform disposed in the cavity to perform blow molding; and an ejection step (S6) of ejecting a container after blow molding from the cavity , wherein the method further comprises a mold slide step (S3) of sliding the mold for blow molding to a slide position that is different from a position of the mold for blow molding in the liquid blow step (S2), characterized by that the method includes at least one of the following features - a decoration step (S7) of applying a decoration to an outer surface of the container with the mold for blow molding located at the slide position , - a cap attaching step (S4) of attaching a cap to a mouth of the container with the mold for blow molding located at the slide position , and - the ejection step (S6) being performed with the mold for blow molding located at the slide position . a preform feed step (S1) of feeding a preform formed into a bottomed tubular shape by a resin material into a cavity of a batch-type mold for blow molding; a liquid blow step (S2) of filling a pressurized liquid into the preform disposed in the cavity to perform blow molding; and an ejection step (S6) of ejecting a container after blow molding from the cavity , wherein the method further comprises a mold slide step (S3) of sliding the mold for blow molding to a slide position that is different from a position of the mold for blow molding in the liquid blow step (S2), characterized by that - a decoration step (S7) of applying a decoration to an outer surface of the container with the mold for blow molding located at the slide position , - a cap attaching step (S4) of attaching a cap to a mouth of the container with the mold for blow molding located at the slide position , and - the ejection step (S6) being performed with the mold for blow molding located at the slide position .
Routing device for a configurable fluidic coupling of exactly three functional devices (D1, D2, D3) which each comprise a respective heating and/or cooling circuit, with - three connector units for connecting the three functional devices (D1, D2, D3) to the routing device , where each of the connector units comprises an inlet and an outlet for a fluidic coupling of the heating and/or cooling circuit of the respective functional device (D1, D2, D3) with a valve unit of the routing device ; - the valve unit with a plurality of valves (V1-V13); and - a control unit configured to switch the valves (V1-V13) of the valve unit according to a preset control scheme; characterized in that - the routing device comprises exactly three connector units ; - the valve unit is configured for a switchable fluidic coupling of the inlet of any of the connector units with any of the inlets and/or outlets of the other connector units and for a switchable fluidic coupling of the outlet of any of the connector units with any of the inlets and/or outlets of the other connector units ; and in that - the control unit is configured to hold at least one of several different interchangeable preset control schemes, where each preset control scheme is characterized by a scheme-specific combination of preset device-types for the exactly three functional devices (D1, D2, D3) to be connected to the exactly three connector units . - three connector units for connecting the three functional devices (D1, D2, D3) to the routing device , where each of the connector units comprises an inlet and an outlet for a fluidic coupling of the heating and/or cooling circuit of the respective functional device (D1, D2, D3) with a valve unit of the routing device ; - the valve unit with a plurality of valves (V1-V13); and - a control unit configured to switch the valves (V1-V13) of the valve unit according to a preset control scheme; characterized in that - the routing device comprises exactly three connector units ; - the valve unit is configured for a switchable fluidic coupling of the inlet of any of the connector units with any of the inlets and/or outlets of the other connector units and for a switchable fluidic coupling of the outlet of any of the connector units with any of the inlets and/or outlets of the other connector units ; and in that - the control unit is configured to hold at least one of several different interchangeable preset control schemes, where each preset control scheme is characterized by a scheme-specific combination of preset device-types for the exactly three functional devices (D1, D2, D3) to be connected to the exactly three connector units .
An electricity storage device , comprising: a first box ; a second box comprising a side plate and housed in the first box ; a storage battery disposed in the second box while being connected to the side plate ; and a flow path configured to comprise the side plate of the second box inside the first box and outside the second box and vertically penetrating the first box . a first box ; a second box comprising a side plate and housed in the first box ; a storage battery disposed in the second box while being connected to the side plate ; and a flow path configured to comprise the side plate of the second box inside the first box and outside the second box and vertically penetrating the first box .