mhurhangee/patent-ind-claim-en huggingface dataset:
A protective vest comprising: a front panel to cover substantially a torso region of a user; a back panel substantially matching the front panel ; two shoulder straps ; two or more side straps to adjustably connect the front and back panels to fit the protective vest (100, 100a-100c) on a user; a cold spreader and a hot spreader attached to the front panel or the back panel or to both the front and back panels such that part of the attachment at each of the front or back panel has a vent or a plurality of vents leading to a space in between the cold and hot spreaders ; and a thermoelectric module (TEM) with a cold junction being mounted on the cold spreader whilst a hot junction is mounted on the hot spreader ; and a thermal insulation separating the cold spreader from parts associated with the hot junction , the protective vest being characterised in that the thermal insulation is sculptured to form plenums through which air in contact with the parts associated with the hot junction is moved by a blower and exhausted through the vent or plurality of vents . a front panel to cover substantially a torso region of a user; a back panel substantially matching the front panel ; two shoulder straps ; two or more side straps to adjustably connect the front and back panels to fit the protective vest (100, 100a-100c) on a user; a cold spreader and a hot spreader attached to the front panel or the back panel or to both the front and back panels such that part of the attachment at each of the front or back panel has a vent or a plurality of vents leading to a space in between the cold and hot spreaders ; and a thermoelectric module (TEM) with a cold junction being mounted on the cold spreader whilst a hot junction is mounted on the hot spreader ; and a thermal insulation separating the cold spreader from parts associated with the hot junction , the protective vest being characterised in that the thermal insulation is sculptured to form plenums through which air in contact with the parts associated with the hot junction is moved by a blower and exhausted through the vent or plurality of vents .
A casing for an electric motor , the casing comprising a plurality of first rings , stacked over one another along a longitudinal axis (A-A) of the casing and joined together to form a central body of the casing, inside the central body a space for housing a rotor and a stator of the electric motor being defined; wherein: each of the first rings comprises at least a first slot passing through the thickness of the respective ring ; the first rings are stacked over one another along the longitudinal axis (A-A), so that the first slots of the first rings form, in sequence, a first cooling channel extending along the longitudinal extension of the casing ; and the first cooling channel is fluidly connected to an inlet connection and to an outlet connection for a coolant. each of the first rings comprises at least a first slot passing through the thickness of the respective ring ; the first rings are stacked over one another along the longitudinal axis (A-A), so that the first slots of the first rings form, in sequence, a first cooling channel extending along the longitudinal extension of the casing ; and the first cooling channel is fluidly connected to an inlet connection and to an outlet connection for a coolant.
A dolly comprising a platform having an upper surface , a lower surface , a peripheral edge , a torus-shaped pocket dimensioned to receive a wheel from an adjacent dolly and a plurality of wheels extending from the lower surface and attached thereto characterized in that : a circular shaped disk is centrally disposed in the torus-shaped pocket, and the circular shaped disk is mounted for rotational movement about an axis generally perpendicular to the upper surface .
Electron beam sterilization equipment for containers having a plurality of revolving devices (M1 to M3), the electron beam sterilization equipment comprising: a plurality of shield chambers (R1 to R3) containing revolving transport devices (M1 to M3) forming a plurality of circular paths (L1 to L3) connected in series; an outer-surface sterilization zone (Z2) for sterilizing an outer surface of the container (B) by emitting electron beams from outside of the container by a first electron beam irradiator (E1) for emitting electron beams to one outer half surface of the container, and a second electron beam irradiator (E2) for emitting electron beams to the other outer half surface of the container (B); and an inner-surface sterilization zone (Z3) for sterilizing an inner surface of the container (B) by emitting electron beams from an electron beam irradiation nozzle (En) inserted into the container (B) when the container is transported downstream along the plurality of circular paths (L3), characterized in that each of the shield chambers (R1 to R3) contains one revolving transport device (M1 to M3); the first electron beam irradiator (E1) is located near an upstream side of a joint (J1-2) of two circular paths (L1, L2) formed by the revolving transport devices (M1, M2); and the second electron beam irradiator (E2) is located near a downstream side of said joint (J1-2), wherein the first and second electron beam irradiator (E1, E2) are disposed on the respective outer peripheries of the two adjacent circular paths (L1, L2) to emit electron beams to the outer half surfaces of the container (B). a plurality of shield chambers (R1 to R3) containing revolving transport devices (M1 to M3) forming a plurality of circular paths (L1 to L3) connected in series; an outer-surface sterilization zone (Z2) for sterilizing an outer surface of the container (B) by emitting electron beams from outside of the container by a first electron beam irradiator (E1) for emitting electron beams to one outer half surface of the container, and a second electron beam irradiator (E2) for emitting electron beams to the other outer half surface of the container (B); and an inner-surface sterilization zone (Z3) for sterilizing an inner surface of the container (B) by emitting electron beams from an electron beam irradiation nozzle (En) inserted into the container (B) when the container is transported downstream along the plurality of circular paths (L3), characterized in that each of the shield chambers (R1 to R3) contains one revolving transport device (M1 to M3); the first electron beam irradiator (E1) is located near an upstream side of a joint (J1-2) of two circular paths (L1, L2) formed by the revolving transport devices (M1, M2); and the second electron beam irradiator (E2) is located near a downstream side of said joint (J1-2), wherein the first and second electron beam irradiator (E1, E2) are disposed on the respective outer peripheries of the two adjacent circular paths (L1, L2) to emit electron beams to the outer half surfaces of the container (B).
A turbo fan for an air conditioner comprising: a shroud ; a suction port formed at a center of the shroud ; a hub plate spaced apart in a vertical direction from the shroud and having a diameter (D1) smaller than a diameter (D2) of the suction port; and a plurality of blades provided between the hub plate and the shroud in a circumferential direction, wherein each of the plurality of blades comprises an inner portion located on the hub plate, and an outer portion which extends beyond the hub plate, wherein the inner portion of each blade comprises: a first portion (31-2) which extends perpendicularly from the hub plate, the hub plate being connected to one end of the first portion; and a second portion (31-1) which extends from an opposite end of the first portion, the second portion being inclined in a direction away from a center of the hub plate with respect to the first portion, and wherein the second portion is curved, and wherein an outer circumference of the hub plate is provided with a plurality of notches , each of which is formed between adjacent two blades among the plurality of blades. a shroud ; a suction port formed at a center of the shroud ; a hub plate spaced apart in a vertical direction from the shroud and having a diameter (D1) smaller than a diameter (D2) of the suction port; and a plurality of blades provided between the hub plate and the shroud in a circumferential direction, wherein each of the plurality of blades comprises an inner portion located on the hub plate, and an outer portion which extends beyond the hub plate, wherein the inner portion of each blade comprises: a first portion (31-2) which extends perpendicularly from the hub plate, the hub plate being connected to one end of the first portion; and a second portion (31-1) which extends from an opposite end of the first portion, the second portion being inclined in a direction away from a center of the hub plate with respect to the first portion, and wherein the second portion is curved, and a first portion (31-2) which extends perpendicularly from the hub plate, the hub plate being connected to one end of the first portion; and a second portion (31-1) which extends from an opposite end of the first portion, the second portion being inclined in a direction away from a center of the hub plate with respect to the first portion, and wherein the second portion is curved, and wherein an outer circumference of the hub plate is provided with a plurality of notches , each of which is formed between adjacent two blades among the plurality of blades.
Process for the separation of a feed gas containing at least 87 mol% of CO 2 and between 5 mol% and 11 mol% of methane in order to produce liquid CO 2 purified of methane by distillation in a column in which: i. a gas flow of the feed gas at a pressure between 6 barg and 25 barg is sent to heat the bottom liquid of the distillation column by indirect heat exchange in a boiler , the bottom liquid being vaporized in the boiler and sent into the bottom of the column and the gas flow being cooled while remaining gaseous, ii. the cooled gas flow is mixed with a top gas originating from the top of the column to form a gas mixture and the gas mixture is cooled to a temperature equal to or less than -35°C by means of a condenser separate from the distillation column and cooled by means of a closed refrigeration cycle in order to partially condense the gas mixture, forming a gas enriched in methane and depleted in CO 2 , compared to the mixture sent to the condenser, and a liquid enriched in CO 2 and depleted in methane, compared to the mixture sent to the condenser, iii. the liquid enriched in CO 2 is sent into the top of the column to constitute a reflux liquid and iv. a liquid containing at least 99 mol%, preferably at least 99.5 mol%, indeed even at least 99.7 mol%, of CO 2 is withdrawn at the bottom of the column as final product, this liquid preferably containing less than 50 ppm of methane. i. a gas flow of the feed gas at a pressure between 6 barg and 25 barg is sent to heat the bottom liquid of the distillation column by indirect heat exchange in a boiler , the bottom liquid being vaporized in the boiler and sent into the bottom of the column and the gas flow being cooled while remaining gaseous, ii. the cooled gas flow is mixed with a top gas originating from the top of the column to form a gas mixture and the gas mixture is cooled to a temperature equal to or less than -35°C by means of a condenser separate from the distillation column and cooled by means of a closed refrigeration cycle in order to partially condense the gas mixture, forming a gas enriched in methane and depleted in CO 2 , compared to the mixture sent to the condenser, and a liquid enriched in CO 2 and depleted in methane, compared to the mixture sent to the condenser, iii. the liquid enriched in CO 2 is sent into the top of the column to constitute a reflux liquid and iv. a liquid containing at least 99 mol%, preferably at least 99.5 mol%, indeed even at least 99.7 mol%, of CO 2 is withdrawn at the bottom of the column as final product, this liquid preferably containing less than 50 ppm of methane.
Evaporator unit for an inhaler with an evaporator comprising a heating element for vaporizing a liquid fed through said evaporator , wherein said evaporator unit comprises a circulation line in which said evaporator is arranged, a circulation device being arranged in said circulation line for circulating the liquid through said circulation line , characterized in that a capillary feed, a feed pump or a pressurizing device is provided for feeding vaporized liquid.
A computing system configured for development tool user assistance, the system comprising: a digital memory ; a processor in operable communication with the digital memory; a development tool configured to operate using the digital memory and the processor; and wherein the processor is configured to perform development tool user assistance steps which include (a) obtaining development problem information comprising metadata values for a current user at a particular point in the current development tool usage session and a full or partial history of interactions of the current user and/or internal development tool actions from the development tool, (b) mapping the development problem information to a problem matching node in a mitigation graph which has multiple nodes , the mitigation graph nodes collectively representing interactions with a user interface of the development tool by other users during other development tool sessions , the mitigation graph also containing action metadata which indicates action cost or action desirability or both, (c) based at least in part on the problem matching node and the action metadata, identifying at least one action sequence for mitigating the development problem , and (d) visually presenting the at least one action sequence to a current user of the development tool. a digital memory ; a processor in operable communication with the digital memory; a development tool configured to operate using the digital memory and the processor; and wherein the processor is configured to perform development tool user assistance steps which include (a) obtaining development problem information comprising metadata values for a current user at a particular point in the current development tool usage session and a full or partial history of interactions of the current user and/or internal development tool actions from the development tool, (b) mapping the development problem information to a problem matching node in a mitigation graph which has multiple nodes , the mitigation graph nodes collectively representing interactions with a user interface of the development tool by other users during other development tool sessions , the mitigation graph also containing action metadata which indicates action cost or action desirability or both, (c) based at least in part on the problem matching node and the action metadata, identifying at least one action sequence for mitigating the development problem , and (d) visually presenting the at least one action sequence to a current user of the development tool.
A driver state determining method, the method comprising: obtaining, by at least one sensor , a touch sensing value corresponding to a touch input by a driver of a vehicle, and a steering torque sensing value corresponding to a steering torque input from the driver; and determining a state of the driver as one of a hand-off state (S110), a normal grip state (S120), an abnormal grip state (S130), or a hand-off determination pending state (S150) based on at least one of the touch sensing value or the steering torque sensing value, wherein the determining of the state of the driver includes: determining, by a controller , that the state of the driver is changed from the normal grip state (S120) to the abnormal grip state (S130) when a deviation of the touch sensing value in the normal grip state (S120) is less than a reference value, and determining the state of the driver as the hand-off determination pending state (S150) when the deviation of the touch sensing value in the hand-off state (S110) is not less than a reference value. obtaining, by at least one sensor , a touch sensing value corresponding to a touch input by a driver of a vehicle, and a steering torque sensing value corresponding to a steering torque input from the driver; and determining a state of the driver as one of a hand-off state (S110), a normal grip state (S120), an abnormal grip state (S130), or a hand-off determination pending state (S150) based on at least one of the touch sensing value or the steering torque sensing value, wherein the determining of the state of the driver includes: determining, by a controller , that the state of the driver is changed from the normal grip state (S120) to the abnormal grip state (S130) when a deviation of the touch sensing value in the normal grip state (S120) is less than a reference value, and determining the state of the driver as the hand-off determination pending state (S150) when the deviation of the touch sensing value in the hand-off state (S110) is not less than a reference value. determining, by a controller , that the state of the driver is changed from the normal grip state (S120) to the abnormal grip state (S130) when a deviation of the touch sensing value in the normal grip state (S120) is less than a reference value, and determining the state of the driver as the hand-off determination pending state (S150) when the deviation of the touch sensing value in the hand-off state (S110) is not less than a reference value.
A vehicle , comprising: a system including a shell structure and a buoyant material molded in the shape of the shell structure; and a plurality of instruments , wherein the buoyant material includes a plurality of cutouts , wherein the plurality of instruments are placed inside the plurality of cutouts , and wherein the plurality of instruments are supported by bracketry that flexes with increased pressure. a system including a shell structure and a buoyant material molded in the shape of the shell structure; and a plurality of instruments , wherein the buoyant material includes a plurality of cutouts , wherein the plurality of instruments are placed inside the plurality of cutouts , and wherein the plurality of instruments are supported by bracketry that flexes with increased pressure.
An augment for implantation of an orthopedic implant device in a bone, the augment comprising: an augment wall having an outer portion and an inner portion , the inner portion defining an inner region of the augment, the inner region sized to receive placement of one or more components of the orthopedic implant device, a distal end of the outer portion having a first shape configured to generally conform to the shape of a metaphyseal-diaphyseal junction of a canal of the bone, a proximal end of the outer portion having a second shape configured to generally conform to a shape of the metaphyseal region of the canal of the bone, the first shape having a different shape and size than the second shape wherein a portion of the outer portion includes a relief that is configured to accommodate rotational displacement of the augment relative to a component of the orthopedic implant device, and characterised in that the relief comprises at least one sidewall that tapers outwardly as the at least one sidewall extends from the proximal end and toward the distal end .
Thermoplastic polymer body with a surface structure that contains in a smooth surface a regular pattern of micro-scale or smaller pillars , wherein the regular pattern of micro-scale or smaller pillars comprises two types of pillars that differ in height and cross-section , wherein all neighboring pillars are separated by a separation distance d ≤ 1 μm, wherein the pillars are prisms having a rectangular cross-section , characterised in that a cross-section ratio C 1 /C 2 between prisms of a first type with a height H 1 and prisms of a second type with a height H 2 is above 50.
A reactor for performing an endothermic reaction, in particular high-temperature reaction, wherein a product gas (P) is obtained from an input gas (E), wherein the reactor encompasses a reactor interior , wherein the reactor is configured for providing a gravity-fed moving bed comprising a multiplicity of solids particles (F), which are conducted at a velocity of 0.1 m/h to 2 m/h, in a reaction zone of the reactor interior , wherein the reactor is further configured for passing the input gas (E) into the reaction zone , wherein for heating the input gas (E) the reactor is configured for heating the solids particles (F) in the reaction zone by generating an electric current in the solids particles so that for heating the solids particles (F) of the reactor bed the reactor comprises a first and a second electrode , wherein the first electrode is arranged above the second electrode in the reactor interior , so that by transfer of heat from the solids particles (F) to the input gas (E) the input gas (E) is heatable in the reaction zone to a reaction temperature allowing it to take part as a reactant in the endothermic reaction to produce the product gas (P), and wherein the reactor interior further comprises a first heat integration zone in which heat from the product gas (P) produced in the reaction zone is transferable to solids particles (F) of the reactor bed to be passed into the reaction zone , and wherein the reactor interior further comprises a second heat integration zone in which heat from solids particles (F) of the reactor bed exiting the reaction zone is transferable to the input gas (E) for preheating the input gas (E) so that the reaction zone is arranged between the two electrodes , wherein the first heat integration zone is arranged above the first electrode , and wherein the second heat integration zone is arranged below the second electrode.
A fluid collection device, comprising: a collection pad ; a device body ; and a collection container , wherein the collection pad is secured to a first end of the device body, wherein the device is configured such that once sample collection has taken place, compression of the collection pad forces sample collected by the collection pad to move through the device body and into the collection container, characterized in that the collection container is removably positioned at a second end of the device body, and wherein the collection container is configured to be removable from the device body to allow separation of the collected sample from the collection pad and the device body. a collection pad ; a device body ; and a collection container , wherein the collection pad is secured to a first end of the device body, wherein the device is configured such that once sample collection has taken place, compression of the collection pad forces sample collected by the collection pad to move through the device body and into the collection container, characterized in that the collection container is removably positioned at a second end of the device body, and wherein the collection container is configured to be removable from the device body to allow separation of the collected sample from the collection pad and the device body.
An assembly component for providing a gas tight seal, the assembly component being of an alloy based on iron, nickel and/or cobalt containing at least 10%(w/w) chromium, the assembly component having a cylindrical shape or a frustoconical annular shape defining a narrow end and a wide end, the assembly component having an inner surface and an outer surface and a thickness between the inner surface and the outer surface in the range of 0.1 mm to 5 mm, the alloy having a content of nitrogen in solid solution providing a microhardness in the range of 250 HV 0.05 to 370 HV 0.05 at a depth from the surface in the range of 0 μm to 100 μm.