mhurhangee/patent-ind-claim-en huggingface dataset:
A ventilation member to be attached to a through hole of a housing , comprising: a main body unit provided with a ventilation path that forms a flow path for gas between an interior and an exterior of the housing ; a sealing unit that seals between the main body unit and the housing ; a ventilation membrane unit provided on the ventilation path to prevent passage of a liquid and a solid and to allow passage of gas; and a surrounding unit that is provided in the main body unit and surrounds an end portion opening of the ventilation path having a height uniformly formed, wherein an end portion opening forms a termination of the ventilation path on the outside of the housing, and the end portion opening opens while facing toward an intersecting direction that intersects an attachment surface on which the through hole is formed in the housing for attaching the ventilation member , wherein the surrounding unit is protruded in the intersecting direction and most towards the outside of the end portion opening , characterised in that the sealing unit includes an opening portion inside thereof, at least a part of the ventilation membrane unit is provided inside the opening portion, and the ventilation membrane unit is disposed within a range of a width region of the sealing unit in the intersecting direction. a main body unit provided with a ventilation path that forms a flow path for gas between an interior and an exterior of the housing ; a sealing unit that seals between the main body unit and the housing ; a ventilation membrane unit provided on the ventilation path to prevent passage of a liquid and a solid and to allow passage of gas; and a surrounding unit that is provided in the main body unit and surrounds an end portion opening of the ventilation path having a height uniformly formed, wherein an end portion opening forms a termination of the ventilation path on the outside of the housing, and the end portion opening opens while facing toward an intersecting direction that intersects an attachment surface on which the through hole is formed in the housing for attaching the ventilation member , wherein the surrounding unit is protruded in the intersecting direction and most towards the outside of the end portion opening , characterised in that the sealing unit includes an opening portion inside thereof, at least a part of the ventilation membrane unit is provided inside the opening portion, and the ventilation membrane unit is disposed within a range of a width region of the sealing unit in the intersecting direction.
A data collection device , characterized by comprising: an acquisition unit configured to acquire, for a plurality of data transmission requests, first predicted values of a delay from transmission of the respective data transmission requests to a start of reception of the respective data transmitted by a respective target of the respective data transmission requests and second predicted values of a throughput regarding the reception of the respective data transmitted by a respective target of the respective data transmission requests; a classification unit configured to classify the plurality of data transmission requests into groups based on first dispersion of the first predicted values and second dispersion of the second predicted values; a determination unit configured to determine transmission timings of each of the groups wherein the transmission timings of the respective data transmission requests belonging to the same group are the same; and a vehicle data request unit configured to transmit the data transmission requests to their respective target on the basis of the determined transmission timings of the respective group to which a respective data transmission request belongs. an acquisition unit configured to acquire, for a plurality of data transmission requests, first predicted values of a delay from transmission of the respective data transmission requests to a start of reception of the respective data transmitted by a respective target of the respective data transmission requests and second predicted values of a throughput regarding the reception of the respective data transmitted by a respective target of the respective data transmission requests; a classification unit configured to classify the plurality of data transmission requests into groups based on first dispersion of the first predicted values and second dispersion of the second predicted values; a determination unit configured to determine transmission timings of each of the groups wherein the transmission timings of the respective data transmission requests belonging to the same group are the same; and a vehicle data request unit configured to transmit the data transmission requests to their respective target on the basis of the determined transmission timings of the respective group to which a respective data transmission request belongs.
A method of coating a field joint of a pipeline, comprising: positioning a mould tool around the field joint to define a mould cavity ; injecting thermoplastics material into the mould cavity to form a field joint coating that will set in the mould cavity ; introducing a compacting fluid into the mould cavity between the mould tool and the field joint coating to apply compacting pressure within the mould cavity radially inwardly against a radially outer side of the field joint coating, other than by continued injection of the thermoplastics material; and forcing the compacting fluid along an interface between the mould tool and the field joint coating to separate the field joint coating from the mould tool , and bringing the compacting fluid into contact with the field joint coating in the mould cavity . positioning a mould tool around the field joint to define a mould cavity ; injecting thermoplastics material into the mould cavity to form a field joint coating that will set in the mould cavity ; introducing a compacting fluid into the mould cavity between the mould tool and the field joint coating to apply compacting pressure within the mould cavity radially inwardly against a radially outer side of the field joint coating, other than by continued injection of the thermoplastics material; and forcing the compacting fluid along an interface between the mould tool and the field joint coating to separate the field joint coating from the mould tool , and bringing the compacting fluid into contact with the field joint coating in the mould cavity .
A wing for an aircraft , comprising a main wing , and a leading edge high lift assembly comprising a high lift body , and a connection assembly connecting the high lift body to the main wing in such a way that the high lift body is movable relative to the main wing between a stowed position and a deployed position, wherein the connection assembly comprises at least one rotation element that is mounted to the high lift body and that is mounted to the main wing rotatably about an axis of rotation , wherein the main wing comprises an upper skin panel and a lower skin panel , wherein the upper skin panel has a leading edge portion , wherein the high lift body extends between a leading edge and a trailing edge , wherein the trailing edge of the high lift body is configured to move along the leading edge portion of the upper skin panel of the main wing , when the high lift body is moved between the stowed position and the deployed position, wherein the leading edge portion of the upper skin panel is configured to be elastically deformed, when the high lift body is moved from the stowed position to the deployed position, characterized in that the wing comprises a rotating actuator for driving the rotation element about the axis of rotation , the rotating actuator comprises a first rotating arm and a second rotating arm rotating in opposite directions about a common axis , the first rotating arm is rotatably mounted to the main wing , and the second rotating arm is rotatably mounted to the rotation element or to the high lift body . a main wing , and a leading edge high lift assembly comprising a high lift body , and a connection assembly connecting the high lift body to the main wing in such a way that the high lift body is movable relative to the main wing between a stowed position and a deployed position, wherein the connection assembly comprises at least one rotation element that is mounted to the high lift body and that is mounted to the main wing rotatably about an axis of rotation , wherein the main wing comprises an upper skin panel and a lower skin panel , wherein the upper skin panel has a leading edge portion , wherein the high lift body extends between a leading edge and a trailing edge , wherein the trailing edge of the high lift body is configured to move along the leading edge portion of the upper skin panel of the main wing , when the high lift body is moved between the stowed position and the deployed position, wherein the leading edge portion of the upper skin panel is configured to be elastically deformed, when the high lift body is moved from the stowed position to the deployed position, characterized in that the wing comprises a rotating actuator for driving the rotation element about the axis of rotation , the rotating actuator comprises a first rotating arm and a second rotating arm rotating in opposite directions about a common axis , the first rotating arm is rotatably mounted to the main wing , and the second rotating arm is rotatably mounted to the rotation element or to the high lift body .
Seat system for a motor vehicle, comprising at least one vehicle seat which can be adjusted between a first position (S1) in the forward direction of travel (V) of the motor vehicle and a second position (S2) counter to the forward direction of travel (V) of the motor vehicle, and comprising a safety belt device which is provided for securing an occupant seated in the vehicle seat in the first and the second position (S1, S2), characterized in that the safety belt device for the first and the second position (S1, S2) of the vehicle seat comprises a respective belt system which is held at corresponding holding points (17, 18; 19, 20) on the motor vehicle bodyshell.
A bio-ink composition comprising 0.05-60 x 10 6 /mL of cell, 0.1 to 10 w/v % of gelatin as a cell carrier material, 0.01 to 1 w/v % of hyaluronic acid as a viscosity enhancer, 1 to 30 v/v % of glycerol as a lubricant and 0.1 to 10 w/v % of a structural material, wherein the structural material is gelatin methacrylate.
Installation for the pickling and metallic coating of a continuously running metal strip, successively comprising, along the run direction, at least a pickling unit , a furnace and a metallic coating unit , and for which the metal strip entering the pickling unit is by default a hot-rolled product, - a rolling device for elongation/limited reduction of strip thickness is positioned between the pickling unit and the furnace, and exhibits a factor of reduction of thickness of 0.1% to at least 30%; characterized in that : - the furnace imposes a heat cycle on the strip which makes it possible to control a restoration of strip structure and, at the outlet of the furnace, adjusts the temperature of the strip to the temperature required at the inlet of the metallic coating unit; - a section of the furnace comprises means for heating the strip which ensure that the temperature of the strip is kept below a threshold temperature for at least partial recrystallization of the strip, ideally below a temperature stationary phase between 300°C and 700°C, for less than two minutes. - a rolling device for elongation/limited reduction of strip thickness is positioned between the pickling unit and the furnace, and exhibits a factor of reduction of thickness of 0.1% to at least 30%; - the furnace imposes a heat cycle on the strip which makes it possible to control a restoration of strip structure and, at the outlet of the furnace, adjusts the temperature of the strip to the temperature required at the inlet of the metallic coating unit; - a section of the furnace comprises means for heating the strip which ensure that the temperature of the strip is kept below a threshold temperature for at least partial recrystallization of the strip, ideally below a temperature stationary phase between 300°C and 700°C, for less than two minutes.
Device for laterally positioning a plate element , in a plate element processing machine, characterised in that it comprises a detector lever , articulated with respect to a horizonal axis, and capable of carrying out a descent movement from a high position to a low position, a first end of the detector lever being arranged to come into a low position in contact with an upper face of the plate element , and a second end of the detector lever being provided with a target engaging with a position detector to generate a signal depending on the thickness of the plate element and on the number of plate elements present at the level of the first end of the detector lever .
A non-aqueous electrolyte secondary battery comprising an electrode comprising: a current collector, and an electrode active material layer arranged on a surface of the current collector and including an electrode active material and a binder formed of polyvinylidene fluoride (PVdF); wherein the polyvinylidene fluoride (PVdF) is in a non-crystallized state and is included in the range of 0.5 to 3.3% by volume with respect to the total volume of the electrode in the electrode active material layer, a non-crystallized state defining a state where a spherical crystal is not confirmed when PVdF is observed with a scanning electron microscope (SEM); and wherein the non-aqueous electrolyte secondary battery has a liquid volume coefficient of 1.4 or more, the liquid volume coefficient being defined a ratio of the volume of the electrolyte solution injected into the battery to the volume of the electrolyte solution that can be absorbed by the power generating element of the battery. a current collector, and an electrode active material layer arranged on a surface of the current collector and including an electrode active material and a binder formed of polyvinylidene fluoride (PVdF); wherein the polyvinylidene fluoride (PVdF) is in a non-crystallized state and is included in the range of 0.5 to 3.3% by volume with respect to the total volume of the electrode in the electrode active material layer, a non-crystallized state defining a state where a spherical crystal is not confirmed when PVdF is observed with a scanning electron microscope (SEM); and wherein the non-aqueous electrolyte secondary battery has a liquid volume coefficient of 1.4 or more, the liquid volume coefficient being defined a ratio of the volume of the electrolyte solution injected into the battery to the volume of the electrolyte solution that can be absorbed by the power generating element of the battery.
An imaging support device configured to support maging of a structure performed using an imaging device , the imaging support device comprising: a required pixel density information-acquisition unit that acquires required pixel density information of a surface to be imaged of the structure required for recognition of a damage state of the structure; an imaging performance information-acquisition unit that acquires imaging performance information of the imaging device including information on the number of pixels of an imaging element of the imaging device , size information of the imaging element of the imaging device , and information on a focal length of an imaging lens of the imaging device; a distance information-acquisition unit that acquires distance information (L) on a distance between the imaging device and the surface (Sp) to be imaged of the structure; an inclination angle information-acquisition unit that acquires inclination angle information on an inclination angle of the surface to be imaged of the structure with respect to a direction orthogonal to an imaging direction of the imaging device ; an actual pixel density-calculation unit that calculates actual pixel density of the surface (Sp) to be imaged of the structure on the basis of the acquired imaging performance information, the acquired distance information, and the acquired inclination angle information; and a pixel density-determination unit that determines whether or not the calculated actual pixel density matches the required pixel density information. a required pixel density information-acquisition unit that acquires required pixel density information of a surface to be imaged of the structure required for recognition of a damage state of the structure; an imaging performance information-acquisition unit that acquires imaging performance information of the imaging device including information on the number of pixels of an imaging element of the imaging device , size information of the imaging element of the imaging device , and information on a focal length of an imaging lens of the imaging device; a distance information-acquisition unit that acquires distance information (L) on a distance between the imaging device and the surface (Sp) to be imaged of the structure; an inclination angle information-acquisition unit that acquires inclination angle information on an inclination angle of the surface to be imaged of the structure with respect to a direction orthogonal to an imaging direction of the imaging device ; an actual pixel density-calculation unit that calculates actual pixel density of the surface (Sp) to be imaged of the structure on the basis of the acquired imaging performance information, the acquired distance information, and the acquired inclination angle information; and a pixel density-determination unit that determines whether or not the calculated actual pixel density matches the required pixel density information.
A liquid ejection head comprising: an ejection opening for ejecting a liquid; a passage including a pressure chamber in which an energy generation element for generating energy used to eject the liquid is disposed; an ejection opening portion that allows communication between the ejection opening and the passage; a supply passage for allowing the liquid to flow into the passage from an outside; and an outflow passage for allowing the liquid to flow out to the outside from the passage; the liquid ejection head being configured such that a differential pressure causes liquid circulation by causing a flow of liquid supplied from the supply passage to pass through the passage , the pressure chamber , and the passage 24 to the outflow passage ; wherein an expression of H -0.34 × P -0.66 × W > 1 .5 is satisfied when a height of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is set to H, a length of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is set to P, and a length of the ejection opening portion in the flow direction of the liquid inside the passage is set to W. an ejection opening for ejecting a liquid; a passage including a pressure chamber in which an energy generation element for generating energy used to eject the liquid is disposed; an ejection opening portion that allows communication between the ejection opening and the passage; a supply passage for allowing the liquid to flow into the passage from an outside; and an outflow passage for allowing the liquid to flow out to the outside from the passage; the liquid ejection head being configured such that a differential pressure causes liquid circulation by causing a flow of liquid supplied from the supply passage to pass through the passage , the pressure chamber , and the passage 24 to the outflow passage ; wherein an expression of H -0.34 × P -0.66 × W > 1 .5 is satisfied when a height of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is set to H, a length of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is set to P, and a length of the ejection opening portion in the flow direction of the liquid inside the passage is set to W.
A fuel cell unit comprising: a fuel cell stack in which a plurality of single fuel cells is stacked; an electrical component that is electrically connected to the fuel cell stack ; and a case housing the fuel cell stack and the electrical component , wherein the case is provided with an intermediate plate that partitions a space inside the case into an upper space and a lower space , wherein the fuel cell stack is housed in the lower space , with a predetermined clearance provided between the intermediate plate and the fuel cell stack , wherein the electrical component is housed in the upper space above the fuel cell stack , with an upper portion of the electrical component fixed to the case , wherein a through-hole that is large enough for a lower portion of the electrical component to pass through is provided in the intermediate plate at a position below the electrical component , and wherein the lower portion of the electrical component faces the through-hole , characterized in that the electrical component is a reactor of a voltage converter configured to change an output voltage of the fuel cell stack . a fuel cell stack in which a plurality of single fuel cells is stacked; an electrical component that is electrically connected to the fuel cell stack ; and a case housing the fuel cell stack and the electrical component , wherein the case is provided with an intermediate plate that partitions a space inside the case into an upper space and a lower space , wherein the fuel cell stack is housed in the lower space , with a predetermined clearance provided between the intermediate plate and the fuel cell stack , wherein the electrical component is housed in the upper space above the fuel cell stack , with an upper portion of the electrical component fixed to the case , wherein a through-hole that is large enough for a lower portion of the electrical component to pass through is provided in the intermediate plate at a position below the electrical component , and wherein the lower portion of the electrical component faces the through-hole , characterized in that the electrical component is a reactor of a voltage converter configured to change an output voltage of the fuel cell stack .