mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic material constituted by a grain-compacted body comprising: a plurality of metal grains made of a Fe-Si-M soft magnetic alloy, where M is a metal element more easily oxidized than Fe; and an oxide film formed on surfaces of the plurality of metal grains ; wherein the grain-compacted body comprises first bonding portions where some of the metal grains are directly bonded together; second bonding portions where adjacent ones of the metal grains are bonded together via oxide films formed on entire surfaces of the adjacent ones of the metal grains in portions other than the first bonding portions; and voids formed in portions other than the first bonding portions and the second bonding portions and surrounded by the oxide films, characterized in that at least some of the voids are impregnated with a polymer resin , and a B/N ratio is in a range of 0.1 to 0.5, where N represents the number of metal grains in a cross section of the grain-compacted body and B represents the number of bonding portions without the oxide film therebetween. a plurality of metal grains made of a Fe-Si-M soft magnetic alloy, where M is a metal element more easily oxidized than Fe; and an oxide film formed on surfaces of the plurality of metal grains ; wherein the grain-compacted body comprises first bonding portions where some of the metal grains are directly bonded together; second bonding portions where adjacent ones of the metal grains are bonded together via oxide films formed on entire surfaces of the adjacent ones of the metal grains in portions other than the first bonding portions; and voids formed in portions other than the first bonding portions and the second bonding portions and surrounded by the oxide films, characterized in that at least some of the voids are impregnated with a polymer resin , and a B/N ratio is in a range of 0.1 to 0.5, where N represents the number of metal grains in a cross section of the grain-compacted body and B represents the number of bonding portions without the oxide film therebetween.
A gas turbine engine comprising: a compressor section , a combustor , and a turbine section , a rotating element and at least one bearing compartment (150; 274; 190; 200) including a bearing for supporting said rotating element , seals (144; 162; 186; 192) associated with each of two opposed axial ends on either axial side of said bearing for resisting leakage of lubricant outwardly of said bearing compartment (150; 274; 190; 200) and for allowing pressurized air to flow from a chamber (148; 160; 188; 198) across said seals (144; 162; 186; 192) into the bearing compartment (150; 274; 190; 200); and said seals (144; 162; 186; 192) each having a seal face (145; 168; 183; 191) facing a rotating face (147; 170; 185; 193) rotating with said rotating element , and said seals (144; 162; 186; 192) each being a non-contact seal; wherein the gas turbine engine further comprises a fan and a fan drive turbine driving said fan through a gear reduction, and in that the rotating element is driven by the fan drive turbine, and said bearing compartment is associated with said gear reduction and with said fan . a compressor section , a combustor , and a turbine section , a rotating element and at least one bearing compartment (150; 274; 190; 200) including a bearing for supporting said rotating element , seals (144; 162; 186; 192) associated with each of two opposed axial ends on either axial side of said bearing for resisting leakage of lubricant outwardly of said bearing compartment (150; 274; 190; 200) and for allowing pressurized air to flow from a chamber (148; 160; 188; 198) across said seals (144; 162; 186; 192) into the bearing compartment (150; 274; 190; 200); and said seals (144; 162; 186; 192) each having a seal face (145; 168; 183; 191) facing a rotating face (147; 170; 185; 193) rotating with said rotating element , and said seals (144; 162; 186; 192) each being a non-contact seal; wherein the gas turbine engine further comprises a fan and a fan drive turbine driving said fan through a gear reduction, and in that the rotating element is driven by the fan drive turbine, and said bearing compartment is associated with said gear reduction and with said fan .
Capacitive block , notably for an electrical equipment, comprising - a housing , - a capacitive element housed in the housing , - a substance filling the space between the housing and the capacitive element so as to provide the sealing of the capacitive element , - a heat sink on which the capacitive element is directly abutting, in which the heat sink of the capacitive block is different from said filling substance , a face of said heat sink , called free face , forming an outer face of the capacitive block and being without said filling substance . - a housing , - a capacitive element housed in the housing , - a substance filling the space between the housing and the capacitive element so as to provide the sealing of the capacitive element , - a heat sink on which the capacitive element is directly abutting,
A sterilizing apparatus for sterilizing post-consumer absorbent sanitary products, comprising: - a container rotatable about a longitudinal axis (A), having a closed first end and a second end provided with a loading/unloading opening closed by a removable door , wherein the container has a hollow wall including an inner wall , an outer wall , and a hollow space , which extends from said first end to said second end , - a rotary joint located at said first end of the container and having a steam inlet chamber and a condensate discharge chamber , connected to respective portions of said hollow space through respective pipes , - at least one hollow helical blade , which extends between said first end and said second end of the container and protrudes inwardly from said inner wall of the container , wherein said hollow helical blade has a helical cavity having an inlet in fluid communication with said steam inlet chamber at said first end of the container , an outlet in fluid communication with said hollow space at said second end of the container , and is closed between said inlet and said outlet , wherein a portion of said hollow space comprised between the outlet of one of said pipes and the inlet opening of the helical cavity is closed by septa , so that said inlet opening communicates directly with the steam inlet chamber of the rotating connector via a portion of said hollow space and by means of one of said pipes , wherein the condensate discharge chamber of said rotary joint is in fluid communication with said hollow space in said first end of the container , so that the steam coming from said steam inlet chamber flows into said helical cavity from said first end towards said second end and, subsequently, flows into said hollow space from said second end toward said first end . - a container rotatable about a longitudinal axis (A), having a closed first end and a second end provided with a loading/unloading opening closed by a removable door , wherein the container has a hollow wall including an inner wall , an outer wall , and a hollow space , which extends from said first end to said second end , - a rotary joint located at said first end of the container and having a steam inlet chamber and a condensate discharge chamber , connected to respective portions of said hollow space through respective pipes , - at least one hollow helical blade , which extends between said first end and said second end of the container and protrudes inwardly from said inner wall of the container , wherein said hollow helical blade has a helical cavity having an inlet in fluid communication with said steam inlet chamber at said first end of the container , an outlet in fluid communication with said hollow space at said second end of the container , and is closed between said inlet and said outlet , wherein a portion of said hollow space comprised between the outlet of one of said pipes and the inlet opening of the helical cavity is closed by septa , so that said inlet opening communicates directly with the steam inlet chamber of the rotating connector via a portion of said hollow space and by means of one of said pipes ,
A fuel cell stack comprising a plurality of fuel cells, wherein the fuel cell comprises a membrane-electrode assembly having an anode electrode and a cathode electrode; gas diffusion layers each disposed on both sides of the membrane-electrode assembly; a first separating plate having a first surface facing the anode electrode side so as to be in contact with the gas diffusion layer and a second surface opposite to the first surface; and a second separating plate having a first surface facing the cathode electrode side so as to be in contact with the gas diffusion layer and a second surface opposite to the first surface, and at least one of the second surface of the first separating plate and the second surface of the second separating plate is provided with one or more protrusions protruding to the outside, wherein two adjacent fuel cells are stacked so that the second surface of the first separating plate of any one fuel cell and the second surface of the second separating plate of the remaining fuel cell are opposed to each other, and the second surface of the first separating plate and the second surface of the second separating plate are spaced apart from each other by the protrusions, where the cooling water is supplied to the space therebetween, wherein the first separating plate is provided with one or more first protrusions protruding outwardly on the second surface, and the second separating plate is provided with one or more second protrusions protruding outwardly on the second surface so as to be in contact with the first protrusions, wherein the first separating plate has a reaction zone comprising a plurality of first channels, through which a fuel gas flows, on the first surface and comprises a second channel provided between two adjacent first channels on the second surface such that the cooling water flows, wherein the plurality of first protrusions are provided at the edge of the first separating plate so as not to be located in the reaction zone, and wherein upon stacking the fuel cells, the first projections and the second projections are provided to be in contact with each other in a 1:1 corresponding structure.
A filter cartridge , comprising: opposing cartridge outlet and cartridge inlet surfaces ; an entry port for introducing air into the filter cartridge , the entry port being in fluid communication with at least one entry air space formed in the filter cartridge ; an exit port for directing filtered air out of the filter cartridge and, in use, into a respirator or other purified airspace, the exit port being in fluid communication with at least one exit air space formed in the filter cartridge ; and a plurality of planar sorbent beds each having a constant depth of sorbent disposed in the filter cartridge between the entry port and the exit port for filtering air passing through the sorbent beds and the filter cartridge , said plurality of sorbent beds dividing an interior volume of the filter cartridge into said air spaces which alternately fluidly communicate with said entry port and said exit port, each sorbent bed having a flat bed inlet surface adjacent to one entry air space for airflow entry into the sorbent beds , and a flat bed outlet surface adjacent to one exit air space for airflow exit out of the sorbent beds ; wherein the cartridge outlet surface is concavely curved to facilitate positioning of the filter cartridge , in use, adjacent a convexly curved interfacing surface of a user; and in that the sorbent beds are oriented with their bed inlet and bed outlet surfaces perpendicular to said cartridge outlet surface , each sorbent bed having an end which is adjacent to and which is shaped to conform to said concave curvature of the cartridge outlet surface . opposing cartridge outlet and cartridge inlet surfaces ; an entry port for introducing air into the filter cartridge , the entry port being in fluid communication with at least one entry air space formed in the filter cartridge ; an exit port for directing filtered air out of the filter cartridge and, in use, into a respirator or other purified airspace, the exit port being in fluid communication with at least one exit air space formed in the filter cartridge ; and a plurality of planar sorbent beds each having a constant depth of sorbent disposed in the filter cartridge between the entry port and the exit port for filtering air passing through the sorbent beds and the filter cartridge , said plurality of sorbent beds dividing an interior volume of the filter cartridge into said air spaces which alternately fluidly communicate with said entry port and said exit port, each sorbent bed having a flat bed inlet surface adjacent to one entry air space for airflow entry into the sorbent beds , and a flat bed outlet surface adjacent to one exit air space for airflow exit out of the sorbent beds ; wherein the cartridge outlet surface is concavely curved to facilitate positioning of the filter cartridge , in use, adjacent a convexly curved interfacing surface of a user; and in that the sorbent beds are oriented with their bed inlet and bed outlet surfaces perpendicular to said cartridge outlet surface , each sorbent bed having an end which is adjacent to and which is shaped to conform to said concave curvature of the cartridge outlet surface .
A multipath transmission based packet traffic control method, comprising: configuring (S201) a mapping relationship between traffic ranges and forwarding paths, wherein the traffic ranges do not overlap between each other, and path forwarding quality of a forwarding path corresponding to a traffic range with a small value is higher than that of a forwarding path corresponding to a traffic range with a large value; monitoring (S101) egress traffic of a data packet set sent by a source node; determining (S102), according to the mapping relationship between traffic ranges and forwarding paths, a target forwarding path set, wherein if there are multiple target forwarding paths in the target forwarding path set, the egress traffic is transferred by a target forwarding path of high path forwarding quality, further determining (S102), according to the mapping relationship between traffic ranges and forwarding paths, weight parameter of the egress traffic borne on each target forwarding path in the target forwarding path; and distributing (S103) the data packet set according to the weight parameter, and transferring the data packet set to a destination node by the target forwarding path. configuring (S201) a mapping relationship between traffic ranges and forwarding paths, wherein the traffic ranges do not overlap between each other, and path forwarding quality of a forwarding path corresponding to a traffic range with a small value is higher than that of a forwarding path corresponding to a traffic range with a large value; monitoring (S101) egress traffic of a data packet set sent by a source node; determining (S102), according to the mapping relationship between traffic ranges and forwarding paths, a target forwarding path set, wherein if there are multiple target forwarding paths in the target forwarding path set, the egress traffic is transferred by a target forwarding path of high path forwarding quality, further determining (S102), according to the mapping relationship between traffic ranges and forwarding paths, weight parameter of the egress traffic borne on each target forwarding path in the target forwarding path; and distributing (S103) the data packet set according to the weight parameter, and transferring the data packet set to a destination node by the target forwarding path.
A display panel comprising: a first display area (DA1) in which first light-emitting diodes (OLED1) are arranged; a second display (DA2) area at least partially surrounded by the first display area (DA1) and in which display element groups (PG) including second light-emitting diodes (OLED2) and a transmission area (TA) are arranged; a light-shielding insulating layer defining a light-emitting area of each of the first light-emitting diodes and the second light-emitting diodes; and an anti-reflection layer on the light-shielding insulating layer and comprising a light-shielding layer and color filters , wherein, in a plan view, an outermost edge (OL) of the transmission area (TA) is defined by a curved edge of at least one of the light-shielding layer and the light-shielding insulating layer . a first display area (DA1) in which first light-emitting diodes (OLED1) are arranged; a second display (DA2) area at least partially surrounded by the first display area (DA1) and in which display element groups (PG) including second light-emitting diodes (OLED2) and a transmission area (TA) are arranged; a light-shielding insulating layer defining a light-emitting area of each of the first light-emitting diodes and the second light-emitting diodes; and an anti-reflection layer on the light-shielding insulating layer and comprising a light-shielding layer and color filters , wherein, in a plan view, an outermost edge (OL) of the transmission area (TA) is defined by a curved edge of at least one of the light-shielding layer and the light-shielding insulating layer .
An image generation device comprising: a camera that is configured to capture an image including light emitted from an instruction device ; and a processor that is configured to generate a drawing image based on a detection status in which the light is detected from the captured image, wherein, to generate the drawing image, the processor is configured to cause the camera to reduce an exposure of an entire imaging surface to capture the captured image, by a predetermined amount, from a standard exposure specified for imaging according to an imagining environment of the camera, detect the light from the captured image, which is captured in a state in which the exposure is reduced by the predetermined amount, and record the drawing image, which is generated based on the detection status of the light, by correcting a brightness of a background region, which is a background of the detected light. a camera that is configured to capture an image including light emitted from an instruction device ; and a processor that is configured to generate a drawing image based on a detection status in which the light is detected from the captured image, wherein, to generate the drawing image, the processor is configured to cause the camera to reduce an exposure of an entire imaging surface to capture the captured image, by a predetermined amount, from a standard exposure specified for imaging according to an imagining environment of the camera, detect the light from the captured image, which is captured in a state in which the exposure is reduced by the predetermined amount, and record the drawing image, which is generated based on the detection status of the light, by correcting a brightness of a background region, which is a background of the detected light. cause the camera to reduce an exposure of an entire imaging surface to capture the captured image, by a predetermined amount, from a standard exposure specified for imaging according to an imagining environment of the camera, detect the light from the captured image, which is captured in a state in which the exposure is reduced by the predetermined amount, and record the drawing image, which is generated based on the detection status of the light, by correcting a brightness of a background region, which is a background of the detected light.
A soap bar composition comprising: a) 25 to 85%, preferably 35 to 75% by weight of C 8 to C 24 fatty acid soap comprising: (i) C 10 soap at 7% or 15% or greater, more preferably 16 to 32% by weight of total bar composition; and, (ii) unsaturated C 18 soap, wherein weight ratio of said unsaturated C 18 soap to C 10 (caprate) soap is 0.8 to 0.1. b) 1 to 45 % organic and inorganic adjuvant materials by weight of the composition; and, c) 5 to 30%, preferably 13 to 28% water by weight of the composition, wherein excess of C10 soap to unsaturated C 18 soap is at least 6%; wherein the unsaturated C 18 soap includes their hydroxy derivatives, wherein the hydroxy derivatives are hydroxyoleate and soaps of ricinoleic acid. a) 25 to 85%, preferably 35 to 75% by weight of C 8 to C 24 fatty acid soap comprising: (i) C 10 soap at 7% or 15% or greater, more preferably 16 to 32% by weight of total bar composition; and, (ii) unsaturated C 18 soap, wherein weight ratio of said unsaturated C 18 soap to C 10 (caprate) soap is 0.8 to 0.1. (i) C 10 soap at 7% or 15% or greater, more preferably 16 to 32% by weight of total bar composition; and, (ii) unsaturated C 18 soap, wherein weight ratio of said unsaturated C 18 soap to C 10 (caprate) soap is 0.8 to 0.1. b) 1 to 45 % organic and inorganic adjuvant materials by weight of the composition; and, c) 5 to 30%, preferably 13 to 28% water by weight of the composition, wherein excess of C10 soap to unsaturated C 18 soap is at least 6%;
A rotary vessel for a filter assembly , wherein the rotary vessel is self-powerable in that the rotor body has a drive nozzle for emitting a pressurised working fluid therefrom to cause rotation of the rotor body by a reactive force, the rotary vessel comprising: a rotor body rotatable about an axis of rotation ; an upper spigot ; and a lower spigot integral or coupled to the rotor body and extending therefrom along the axis of rotation , the lower spigot having an abutment surface against which, in use, a cooperating surface abuts to inhibit a movement of the rotary vessel relative to the cooperating surface and parallel to the axis of rotation, characterized in that the lower spigot comprises one or more elastically deformable portions upon which the abutment surface is provided on or coupled to such that the abutment surface is radially moveable relative to axis of rotation by deformation of the one or more elastically deformable portions. a rotor body rotatable about an axis of rotation ; an upper spigot ; and a lower spigot integral or coupled to the rotor body and extending therefrom along the axis of rotation , the lower spigot having an abutment surface against which, in use, a cooperating surface abuts to inhibit a movement of the rotary vessel relative to the cooperating surface and parallel to the axis of rotation, characterized in that the lower spigot comprises one or more elastically deformable portions upon which the abutment surface is provided on or coupled to such that the abutment surface is radially moveable relative to axis of rotation by deformation of the one or more elastically deformable portions.
Grinding worm , having a first worm stage and a second worm stage , wherein the outer diameter (AD2) of the second worm stage is 50 to 70% of the outer diameter (AD1) of the first worm stage (AD1), characterised in that several substantially trapezoidal first abrasion plates are arranged on a surface of the second worm stage of the grinding worm in such a way that a gap is maintained between two adjacent first abrasion plates in each case, and in each case there is an offset (VBV) ranging from 0.1 to 0.7% of the outer diameter (AD1) of the first worm stage between two adjacent first abrasion plates .