mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a mechanical clinched joint component, the method sequentially comprising: heating two or more steel sheets to an Ac3 temperature or above, the steel sheets having a tensile strength of 1180 MPa or more; and performing mechanical clinch joining so that a carbon equivalent Ceq of the steel sheets, and a bottom-dead-center holding time t and a joining start temperature T during mechanical clinch joining satisfy relationships of equation below and of equation below: Ceq × 0.00209 × t + 0.000731 × T − 0.0365 ≥ 0.200 Ceq ≥ − 0.00071 × T + 0.993 where Ceq represents the carbon equivalent (mass%) of the steel sheets calculated by equation below, t represents the bottom-dead-center holding time (second), and T represents the joining start temperature (°C), wherein, if a value of Ceq differs in the two or more steel sheets, a lowest value of Ceq is used, Ceq = C + 1 / 6 × Mn + 1 / 24 × Si + 1 / 40 × Ni + 1 / 5 × Cr + 1 / 4 × Mo + 1 / 14 × V where each of element names represents a content in mass% in the steel sheets, and represents zero if that element is not contained, and wherein the mechanical clinched joint component includes at least one joint portion, Ac3 transformation point (°C) = 910 - 203 × 0.5 - 15.2 × [Ni] + 44.7 × [Si] + 104 × + 31.5 × [Mo] + 13.1 × - 30 × [Mn] - 11 × [Cr] - 20 × [Cu] + 700 × + 400 × [Al] + 400 [Ti], and hot press forming is also performed in the step of performing mechanical clinch joining. heating two or more steel sheets to an Ac3 temperature or above, the steel sheets having a tensile strength of 1180 MPa or more; and performing mechanical clinch joining so that a carbon equivalent Ceq of the steel sheets, and a bottom-dead-center holding time t and a joining start temperature T during mechanical clinch joining satisfy relationships of equation below and of equation below: Ceq × 0.00209 × t + 0.000731 × T − 0.0365 ≥ 0.200 Ceq ≥ − 0.00071 × T + 0.993 where Ceq represents the carbon equivalent (mass%) of the steel sheets calculated by equation below, t represents the bottom-dead-center holding time (second), and T represents the joining start temperature (°C), wherein, if a value of Ceq differs in the two or more steel sheets, a lowest value of Ceq is used, Ceq = C + 1 / 6 × Mn + 1 / 24 × Si + 1 / 40 × Ni + 1 / 5 × Cr + 1 / 4 × Mo + 1 / 14 × V where each of element names represents a content in mass% in the steel sheets, and represents zero if that element is not contained, and wherein the mechanical clinched joint component includes at least one joint portion, Ac3 transformation point (°C) = 910 - 203 × 0.5 - 15.2 × [Ni] + 44.7 × [Si] + 104 × + 31.5 × [Mo] + 13.1 × - 30 × [Mn] - 11 × [Cr] - 20 × [Cu] + 700 × + 400 × [Al] + 400 [Ti], and hot press forming is also performed in the step of performing mechanical clinch joining.
Compositions characterized in that these comprise A) polybutylene terephthalate, B) polycarbonate and C) at least one secondary alkanesulfonate. A) polybutylene terephthalate, B) polycarbonate and C) at least one secondary alkanesulfonate.
A computer-implemented method for estimating faults in a three-dimensional seismic image block representing a subsurface region, the method being characterized in generating directrices (4,7,8), wherein each directrix is within a respective first cross-section of the seismic image block and generated based on points (30-33; 501-504;511-513) graphically selected by a user on the respective first cross-section; generating generatrices, wherein each generatrix is within a respective second cross-section of the seismic image block and generated based on points (6,60,72) graphically selected by the user on the respective second cross-section; obtaining relationships from the user, wherein each relationship is between a directrix and a generatrix; estimating a fault within the seismic image block as a surface including at least one directrix and at least one generatrix having the relationship therebetween. generating directrices (4,7,8), wherein each directrix is within a respective first cross-section of the seismic image block and generated based on points (30-33; 501-504;511-513) graphically selected by a user on the respective first cross-section; generating generatrices, wherein each generatrix is within a respective second cross-section of the seismic image block and generated based on points (6,60,72) graphically selected by the user on the respective second cross-section; obtaining relationships from the user, wherein each relationship is between a directrix and a generatrix; estimating a fault within the seismic image block as a surface including at least one directrix and at least one generatrix having the relationship therebetween.
Seal arrangement for a gap with a gap width in the gap transverse direction and a gap length in the gap longitudinal direction between a first and a second surface (1a, 6), wherein a strip-shaped sealing element is arranged on the first surface across the gap length in the gap longitudinal direction and pressed against the first surface by at least one attachment element for sealing and that a planar sealing element for bridging the gap width in the gap transverse direction is connected to the strip-shaped sealing element on one side and to the second surface on the other side, characterised in that the planar sealing element is produced as a tensioned cover that is stretched across and bridges the gap width in the gap transverse direction using at least one tensioning element, wherein the strip-shaped sealing element forms the highest point of the seal arrangement geodetically on the first surface and the planar sealing element is aligned such that it is inclined downwards to the second surface, so that rainwater in the area of the gap is channelled from the first surface, via both the strip-shaped sealing element and the planar sealing element to the second surface and is then drained away on this surface.
Tweezers for cosmetic use, comprising two branches having one metallic extremity for seizing small objects, wherein the maximum width of said two branches is greater than half the average width of the resting surface of the thumb of an adult user of average corpulence when said tweezers are actuated, wherein the maximum length of said two branches is less than the average length of the thumb of an adult of average corpulence, characterized in that the maximum width of said two branches is greater than the average width of the resting surface of the thumb of an adult user of average corpulence when actuating said tweezers.
A method of operating a network cache, the method comprising: in response to an information request from a user agent for a first information object that itself includes an identifier for a second information object, obtaining both the first and the second information objects; and supplying the user agent an information encoding of the first information object with the second information object embedded therein, the method being characterized in that the second information object is literally encoded in the first information object. in response to an information request from a user agent for a first information object that itself includes an identifier for a second information object, obtaining both the first and the second information objects; and supplying the user agent an information encoding of the first information object with the second information object embedded therein, the method being characterized in that the second information object is literally encoded in the first information object.
A method of preparing a compression bandage comprising: i) a fibrous matrix of a pulp based, airlaid, non-woven or absorbent open-cell elastomer network of greater than or equal to 70% void volume; and ii) an interpenetrating network of PVA disposed within the elastomer network, wherein said method comprises; (a) preparing a PVA gelling solution; (b) immersing the fibrous matrix in the gelling solution, (c) adding a crosslinking solution comprising tetra-borohydrate, Borax or Boron decahydrate; and (d) removing excess water. i) a fibrous matrix of a pulp based, airlaid, non-woven or absorbent open-cell elastomer network of greater than or equal to 70% void volume; and ii) an interpenetrating network of PVA disposed within the elastomer network, wherein said method comprises; (a) preparing a PVA gelling solution; (b) immersing the fibrous matrix in the gelling solution, (c) adding a crosslinking solution comprising tetra-borohydrate, Borax or Boron decahydrate; and (d) removing excess water. (a) preparing a PVA gelling solution; (b) immersing the fibrous matrix in the gelling solution, (c) adding a crosslinking solution comprising tetra-borohydrate, Borax or Boron decahydrate; and (d) removing excess water.
Method for obtaining rule sets (32, 34) for a motor vehicle to be automated, wherein each rule set (32, 34) defines an activation condition and a vehicle function to be activated when the activation condition is satisfied, and wherein the motor vehicle is configured to determine, for an actual situation, a data set comprising situation-dependent vehicle data captured by the motor vehicle, and to check whether the data set satisfies one of the activation conditions, and, where appropriate, to autonomously activate, or to propose for activation, the corresponding vehicle function, characterised in that in the method a) a stationary, central server arrangement receives from a plurality of other motor vehicles at least one item of activation information regarding a vehicle function activated in an actual respective situation of the respective other motor vehicle; b) the stationary, central server arrangement receives a data set determined in the current respective situation from vehicle data determined by the respective other motor vehicle and c) on the basis of the received data sets and the corresponding activation information, the rule sets (32, 42) are generated and transmitted to the motor vehicle to be automated. a) a stationary, central server arrangement receives from a plurality of other motor vehicles at least one item of activation information regarding a vehicle function activated in an actual respective situation of the respective other motor vehicle; b) the stationary, central server arrangement receives a data set determined in the current respective situation from vehicle data determined by the respective other motor vehicle and c) on the basis of the received data sets and the corresponding activation information, the rule sets (32, 42) are generated and transmitted to the motor vehicle to be automated.
A plurality of interchangeable sensor tiles for use in a detector block in a medical imaging system, each interchangeable sensor tile comprising: an array of sensor dies coupled to the interchangeable sensor tile, each sensor die having a plurality of scintillator crystals coupled thereto; wherein each interchangeable sensor tile is one of a plurality of interchangeable sensor tile types and the plurality of interchangeable sensor tiles include a plurality of sensor tile types, each interchangeable sensor tile type having outer dimensions configured to mate with a universal mechanical interface; and wherein each interchangeable sensor tile type has a different fill factor of sensor dies over the sensor tile (10;12;14), wherein a lower fill factor correlates to lower timing resolution and to lower manufacture cost. an array of sensor dies coupled to the interchangeable sensor tile, each sensor die having a plurality of scintillator crystals coupled thereto; wherein each interchangeable sensor tile is one of a plurality of interchangeable sensor tile types and the plurality of interchangeable sensor tiles include a plurality of sensor tile types, each interchangeable sensor tile type having outer dimensions configured to mate with a universal mechanical interface; and wherein each interchangeable sensor tile type has a different fill factor of sensor dies over the sensor tile (10;12;14), wherein a lower fill factor correlates to lower timing resolution and to lower manufacture cost.
A device for controlling the use of sensors of a system, the system being equipped with at least two sensors, the system being able to execute one or more system functions, characterised in that the device comprises: - a unit for pre-selecting alternatives for uses of sensors configured to pre-select a set of sensors use alternatives from sensors use alternatives stored in a database of alternatives, in response to receiving a request indicating a type of function of the system and at least one quality metric, each alternative being stored in the database of alternatives in correspondence with a system function, each alternative being associated with at least one sensor and comprising, for each associated sensor, a rate of use of the sensor and a duration of use of the sensor at said rate of use, the pre-selection unit being configured to extract the sensors use alternatives associated with said system function from the database; - a unit for computing an alternative impact indicator configured to compute an alternative impact indicator for each pre-selected alternative, said impact indicator representing the impact of the use of each sensor of the alternative, at the rate of use and for the duration associated with the sensor in the sensors use alternative, in order to respond to the system function specified in the request; and - a unit for selecting an alternative configured to select an alternative from among said alternatives as a function of the impact indicator determined for each alternative. - a unit for pre-selecting alternatives for uses of sensors configured to pre-select a set of sensors use alternatives from sensors use alternatives stored in a database of alternatives, in response to receiving a request indicating a type of function of the system and at least one quality metric, each alternative being stored in the database of alternatives in correspondence with a system function, each alternative being associated with at least one sensor and comprising, for each associated sensor, a rate of use of the sensor and a duration of use of the sensor at said rate of use, the pre-selection unit being configured to extract the sensors use alternatives associated with said system function from the database; - a unit for computing an alternative impact indicator configured to compute an alternative impact indicator for each pre-selected alternative, said impact indicator representing the impact of the use of each sensor of the alternative, at the rate of use and for the duration associated with the sensor in the sensors use alternative, in order to respond to the system function specified in the request; and - a unit for selecting an alternative configured to select an alternative from among said alternatives as a function of the impact indicator determined for each alternative.
A pixel structure comprising: a substrate; an epitaxial layer of a first conductivity type formed on the substrate; a photo-sensitive element formed in the epitaxial layer comprising a first region of a second conductivity type and a second region of the first conductivity type positioned between the epitaxial layer and the first region; a charge storage node which is arranged to store charges acquired by the photo-sensitive element, wherein the charge storage node comprises a gate on the epitaxial layer; a third region of the second conductivity type positioned between the charge storage node and the epitaxial layer; a charge-to-voltage conversion element for converting charges from the charge storage node to a voltage signal, wherein the charge-to-voltage conversion element is a region of the first conductivity type within the third region; and, an output circuit (21, 22) for selectively outputting the voltage signal from the charge-to-voltage conversion element, characterized in that the substrate is of the second conductivity type and the charge storage node is configured to store charges in an inversion layer in the third region beneath the gate (Ø2). a substrate; an epitaxial layer of a first conductivity type formed on the substrate; a photo-sensitive element formed in the epitaxial layer comprising a first region of a second conductivity type and a second region of the first conductivity type positioned between the epitaxial layer and the first region; a charge storage node which is arranged to store charges acquired by the photo-sensitive element, wherein the charge storage node comprises a gate on the epitaxial layer; a third region of the second conductivity type positioned between the charge storage node and the epitaxial layer; a charge-to-voltage conversion element for converting charges from the charge storage node to a voltage signal, wherein the charge-to-voltage conversion element is a region of the first conductivity type within the third region; and, an output circuit (21, 22) for selectively outputting the voltage signal from the charge-to-voltage conversion element, characterized in that
A method of preparing a porous composite of an anode active material, the method comprising: mechanical alloying after mixing (semi) metal particles and (semi) metal oxide particles; making the (semi) metal particles surrounded by the (semi) metal oxide particles, contacting the alloyed mixed particles with the electrodeposit solution made by mixing of a fluorinated solution and a metal precursor solution to electrodeposit metal particles on the surface of the mixed particles, wherein the amount of the contacted mixed particles is in a range of 0.001 parts by weight to 50 parts by weight based on 100 parts by weight of a mixed solution of the fluorinated solution and the metal precursor solution; etching the mixed particles having the metal particles electrodeposited thereon by contacting the mixed particles with an etching solution; contacting the etched mixed particles with a metal removing solution to remove the electrodeposited metal particles; and forming a porous structure having a honeycomb shape at least on the surfaces of the mixed particles, wherein the (semi) metal is selected from the group consisting of silicon (Si), tin (Sn), aluminum (Al), antimony (Sb), bismuth (Bi), arsenic (As), germanium (Ge), lead (Pb), zinc (Zn), cadmium (Cd), indium (In), titanium (Ti), and gallium (Ga), and an alloy thereof. mechanical alloying after mixing (semi) metal particles and (semi) metal oxide particles; making the (semi) metal particles surrounded by the (semi) metal oxide particles, contacting the alloyed mixed particles with the electrodeposit solution made by mixing of a fluorinated solution and a metal precursor solution to electrodeposit metal particles on the surface of the mixed particles, wherein the amount of the contacted mixed particles is in a range of 0.001 parts by weight to 50 parts by weight based on 100 parts by weight of a mixed solution of the fluorinated solution and the metal precursor solution; etching the mixed particles having the metal particles electrodeposited thereon by contacting the mixed particles with an etching solution; contacting the etched mixed particles with a metal removing solution to remove the electrodeposited metal particles; and forming a porous structure having a honeycomb shape at least on the surfaces of the mixed particles, wherein the (semi) metal is selected from the group consisting of silicon (Si), tin (Sn), aluminum (Al), antimony (Sb), bismuth (Bi), arsenic (As), germanium (Ge), lead (Pb), zinc (Zn), cadmium (Cd), indium (In), titanium (Ti), and gallium (Ga), and an alloy thereof.
A portable dunnage bag inflator comprising: (a) a pressurized air generator defining one or more air inlet openings and an air outlet, the pressurized air generator having a housing and being configured to cause air at a first pressure to be drawn through the one or more air inlet openings into the pressurized air generator and to be expelled at a second higher pressure through the air outlet; (b) a cargo mover mounting bracket attached to the pressurized air generator and configured to be attached to a frame of a cargo mover; and (c) an inflation hose assembly fluidly connected to the air outlet of the pressurized air generator characterized in that, the pressurized air generator further includes an impellor and an electric motor within the housing, wherein the electric motor is connected to the impellor such that the electric motor is configured to drive the impellor such that the impellor causes air at the first pressure to be drawn through the one or more air inlet openings into the impellor and to be expelled at the second higher pressure through the air outlet. (a) a pressurized air generator defining one or more air inlet openings and an air outlet, the pressurized air generator having a housing and being configured to cause air at a first pressure to be drawn through the one or more air inlet openings into the pressurized air generator and to be expelled at a second higher pressure through the air outlet; (b) a cargo mover mounting bracket attached to the pressurized air generator and configured to be attached to a frame of a cargo mover; and (c) an inflation hose assembly fluidly connected to the air outlet of the pressurized air generator
A datacenter module (102 -102) configured for submersion in water, the datacenter module comprising a sealed hull and a heat transfer subsystem configured to transfer heat away from the sealed hull, characterized in that: the sealed hull comprises a first hull portion and a second hull portion; the second hull portion surrounding the first hull portion with a space between the first hull portion and the second hull portion; wherein the datacenter module further comprises: a sensor set located within the space between the first hull portion and the second hull portion to detect any water intrusion; a dielectric fluid located within the space between the first hull portion and the second hull portion; and a plurality of electrical components located within the first hull portion. the sealed hull comprises a first hull portion and a second hull portion; the second hull portion surrounding the first hull portion with a space between the first hull portion and the second hull portion; wherein the datacenter module further comprises: a sensor set located within the space between the first hull portion and the second hull portion to detect any water intrusion; a dielectric fluid located within the space between the first hull portion and the second hull portion; and a plurality of electrical components located within the first hull portion. a sensor set located within the space between the first hull portion and the second hull portion to detect any water intrusion; a dielectric fluid located within the space between the first hull portion and the second hull portion; and a plurality of electrical components located within the first hull portion.