mhurhangee/ep-ind-claims huggingface dataset:
An asymmetric tape, comprising: a polymer resin; and a plurality of fibers embedded in the polymer resin to form a fiber reinforced polymer material, the fiber reinforced polymer material comprising a first surface and an opposing second surface, wherein the fibers are disposed in the fiber reinforced polymer material to form a resin rich portion and a fiber rich portion, the resin rich portion including the first surface, the fiber rich portion including the second surface, the resin rich portion including more resin than fibers by volume, the fiber rich portion including more fibers than resin by volume, wherein the asymmetric tape is formed by a method comprising: flowing the polymer resin through a manifold assembly of a die, the manifold assembly comprising a plurality of branched runners; coating at least one fiber roving with the resin; and traversing the coated fiber roving through an impregnation zone of the die to impregnate the roving with the resin, wherein the tape exits the die, the tape comprising the impregnated roving and having the resin rich portion and the fiber rich portion. a polymer resin; and a plurality of fibers embedded in the polymer resin to form a fiber reinforced polymer material, the fiber reinforced polymer material comprising a first surface and an opposing second surface, wherein the fibers are disposed in the fiber reinforced polymer material to form a resin rich portion and a fiber rich portion, the resin rich portion including the first surface, the fiber rich portion including the second surface, the resin rich portion including more resin than fibers by volume, the fiber rich portion including more fibers than resin by volume, wherein the asymmetric tape is formed by a method comprising: flowing the polymer resin through a manifold assembly of a die, the manifold assembly comprising a plurality of branched runners; coating at least one fiber roving with the resin; and traversing the coated fiber roving through an impregnation zone of the die to impregnate the roving with the resin, flowing the polymer resin through a manifold assembly of a die, the manifold assembly comprising a plurality of branched runners; coating at least one fiber roving with the resin; and traversing the coated fiber roving through an impregnation zone of the die to impregnate the roving with the resin, wherein the tape exits the die, the tape comprising the impregnated roving and having the resin rich portion and the fiber rich portion.
A method of constructing a modular multi-storey building including: assembling first and second building modules (20, 120) in a vertical arrangement at an installation location to form a multi-storey building structure; constructing the first and second building modules (20, 120) at a first location before transporting the first and second building modules (20, 120) to be assembled at the installation location, wherein the building modules are constructed at the first location to each comprise a base having a concrete floor and a facade wall structure attached to the base; vertically supporting at least part of the second building module above the first building module on temporary support members between the first and second building modules (20, 120); which temporary support members are attached to the first building module; after assembling the second building module above the first building module, installing a permanent support structure between, and connecting it to, the first and second building modules (20, 120) to vertically support the second building module above the first building module; and removing the temporary support members. assembling first and second building modules (20, 120) in a vertical arrangement at an installation location to form a multi-storey building structure; constructing the first and second building modules (20, 120) at a first location before transporting the first and second building modules (20, 120) to be assembled at the installation location, wherein the building modules are constructed at the first location to each comprise a base having a concrete floor and a facade wall structure attached to the base; vertically supporting at least part of the second building module above the first building module on temporary support members between the first and second building modules (20, 120); which temporary support members are attached to the first building module; after assembling the second building module above the first building module, installing a permanent support structure between, and connecting it to, the first and second building modules (20, 120) to vertically support the second building module above the first building module; and removing the temporary support members.
A power generation system comprising: a medium circuit through which a medium is circulated; a circulation pump configured to pressurize the medium so as to have the medium circulating through the medium circuit; an evaporator configured to evaporate the medium pressurized by the circulation pump, using heat from a heat source; an expander configured to be driven using the medium evaporated by the evaporator; a condenser configured to condense the medium discharged from the expander; and a generator configured to be driven by the expander to generate power, characterized by further comprising: a cooling system configured to cool the generator using the medium taken out from the medium circuit at a downstream side of the condenser; and a gas-liquid separator configured to separate the medium heated as a consequence of cooling the generator by the cooling system into gas and liquid phases, wherein the gas phase of the medium is flowed into the medium circuit at an upstream side of the condenser, and the liquid phase of the medium is flowed into the medium circuit at a downstream side of the condenser. a medium circuit through which a medium is circulated; a circulation pump configured to pressurize the medium so as to have the medium circulating through the medium circuit; an evaporator configured to evaporate the medium pressurized by the circulation pump, using heat from a heat source; an expander configured to be driven using the medium evaporated by the evaporator; a condenser configured to condense the medium discharged from the expander; and a generator configured to be driven by the expander to generate power, characterized by further comprising: a cooling system configured to cool the generator using the medium taken out from the medium circuit at a downstream side of the condenser; and a gas-liquid separator configured to separate the medium heated as a consequence of cooling the generator by the cooling system into gas and liquid phases, wherein the gas phase of the medium is flowed into the medium circuit at an upstream side of the condenser, and the liquid phase of the medium is flowed into the medium circuit at a downstream side of the condenser. a cooling system configured to cool the generator using the medium taken out from the medium circuit at a downstream side of the condenser; and a gas-liquid separator configured to separate the medium heated as a consequence of cooling the generator by the cooling system into gas and liquid phases, wherein the gas phase of the medium is flowed into the medium circuit at an upstream side of the condenser, and the liquid phase of the medium is flowed into the medium circuit at a downstream side of the condenser.
A compound according to Formula or pharmaceutically acceptable salt, tautomer, or stereoisomer thereof, wherein: Z 1 is hydroxyl or primary amine; q is 0, 1, 2, 3 or 4; p is 1, 2, 3, 4 or 5; each m is, independently, 1, 2, 3, 4 or 5; R 1 is -L 1 N[L 2 F 1 R A] 2 or -L 3 F 2 R B and R 2 is -L 4 F 3 R C, wherein: each L 1, L 2, L 3 and L 4 are, independently, C2-C10 alkylene, each F 1, F 2 and F 3 are, independently, ester or amide functional group and each R A, R B and R C are, independently, branched C4-C30 alkyl. Z 1 is hydroxyl or primary amine; q is 0, 1, 2, 3 or 4; p is 1, 2, 3, 4 or 5; each m is, independently, 1, 2, 3, 4 or 5; R 1 is -L 1 N[L 2 F 1 R A] 2 or -L 3 F 2 R B and R 2 is -L 4 F 3 R C, wherein: each L 1, L 2, L 3 and L 4 are, independently, C2-C10 alkylene, each F 1, F 2 and F 3 are, independently, ester or amide functional group and each R A, R B and R C are, independently, branched C4-C30 alkyl.
Detection device comprising: - a body comprising an electric contact having at least a first and a second electric operating state, - a mobile control member able to move between at least a first operating position in which the electric contact is in its first electric state, and a second operating position in which the electric contact is in its second electric state, movement of the control member between the first and second operating positions actuating the electric contact from its first electric state to its second electric state and the control member being connected to the body by a sliding connection that allows for the mobile control member a translational movement between its first and second operating positions with respect to the body along an axis of travel, and the change in position of the mobile control member being able to actuate the electric contact device by pressing directly against a contact surface of the said electric contact, and the mobile control member comprising a control means at which one end is intended to collaborate with the contact surface in a contact region to bring about the change in electric operating state of the said electric contact by pressing directly on the said contact surface, characterized in that the control member is also connected to the body by at least a pivot connection that allows the control member to pivot between its first and second operating positions with respect to the body about at least one support, the said support of the said at least one pivot connection being off-centred with respect to the axis of travel and positioned between the mobile control member and the body. - a body comprising an electric contact having at least a first and a second electric operating state, - a mobile control member able to move between at least a first operating position in which the electric contact is in its first electric state, and a second operating position in which the electric contact is in its second electric state, movement of the control member between the first and second operating positions actuating the electric contact from its first electric state to its second electric state and the control member being connected to the body by a sliding connection that allows for the mobile control member a translational movement between its first and second operating positions with respect to the body along an axis of travel, and
A method of implanting a pattern into a substrate, comprising: placing a mask, having at least one aperture between said substrate and an ion source; exposing said substrate to said ion source, thereby implanting ions in a first region of said substrate aligned with said aperture, characterised by moving said mask in a first direction relative to said substrate such that said aperture is aligned to a second region of said substrate; and exposing said substrate to said ion source, thereby implanting ions in said second region of said substrate, whereby a portion of said first region and a portion of said second region overlap, creating a heavily implanted region. placing a mask, having at least one aperture between said substrate and an ion source; exposing said substrate to said ion source, thereby implanting ions in a first region of said substrate aligned with said aperture, characterised by moving said mask in a first direction relative to said substrate such that said aperture is aligned to a second region of said substrate; and exposing said substrate to said ion source, thereby implanting ions in said second region of said substrate, whereby a portion of said first region and a portion of said second region overlap, creating a heavily implanted region.
A connection, having a shaft, at least partially inserted in a hollow shaft, and a ring part, placed onto the hollow shaft, wherein the ring part is axially bounded by a collar formed on the shaft and radially projecting or the ring part rests against a collar of the shaft, wherein the hollow shaft has slots, namely axial slots, spaced apart from the collar, wherein the ring part has a bevel, so that the inner diameter of the ring part is greater in the axial region covered by the bevel than the inner diameter in that axial region in which the ring part contacts the hollow shaft, wherein the ring part has thickening regions (4, 5), wherein the ring part has a greater radial width in the circumferential angular region covered by the thickening regions (4, 5) than in the other circumferential angular regions, characterised in that the ring part has a radially and axially through-passing slot at its circumference, wherein the slot width of the slot increases radially outwards, wherein a screw is passed through the slot and the screw head of the screw is supported on a surface, wherein the threaded region of the screw is screwed into a tapped bore arranged on the slot side remote from the surface, wherein the screw axis of the screw is at a not insignificant angle to the normal direction of that plane which comprises the ring axis and passes through the middle of the slot viewed in the circumferential direction, wherein the ring part is thickened in the circumferential angular region covered by the threaded region, therefore is widened in a radial direction.
A process for preparing acrylic acid, in which heterogeneously catalyzed gas phase partial oxidation of at least one C 3 precursor of acrylic acid with molecular oxygen over catalysts in the solid state of matter at elevated temperature affords a product gas mixture comprising acrylic acid, water vapor and secondary components, then the product gas mixture is directed into a condensation column equipped with separating internals, the product gas mixture is allowed to ascend into itself within the condensation column and undergoes fractional condensation, separating the product gas mixture into a bottoms liquid comprising conversion products and secondary components that are higher-boiling than acrylic acid, a crude acrylic acid comprising water and secondary components that have been depleted overall as target product, an acid water still comprising acrylic acid and secondary components, and a residual gas mixture comprising secondary components that are lower-boiling than water, the target product is conducted out of the condensation column via a side draw and the side draw is above the feed point of the product gas mixture into the condensation column, wherein the parts of the condensation column that are in contact with product are made of stainless steel, at least one of the streams of matter fed to the condensation column comprises a source for halide ions, and halide ions are removed in the region of the separating internals of the condensation column above the side draw.
Method for authentication of a terminal equipped with a web browser, by a gateway of a so-called internal network that is protected by a secure access entity, this method comprising: - following the reception of a request from the web browser of the terminal comprising a user identifier (ID-U), a step of acquiring authentication data (PWD-U) associated with said user identifier and stored in a database of the internal network; - a step (E50,E51) of configuring a proxy server authorizing a determined set of connection parameters to access said internal network through the secure access entity; - a step of generating a first application from parameters of said determined set of connection parameters, said first application being protected using at least one determined portion of said authentication data and able to establish, when it is executed by the web browser of the terminal, a connection between said terminal and said proxy server using said parameters, in response to the provision of said at least one determined portion of the authentication data if said first application determines that data that are provided to it by a user via said terminal match said at least one determined portion of the authentication data; and - a step of transmitting said first application to the web browser of the terminal. - following the reception of a request from the web browser of the terminal comprising a user identifier (ID-U), a step of acquiring authentication data (PWD-U) associated with said user identifier and stored in a database of the internal network; - a step (E50,E51) of configuring a proxy server authorizing a determined set of connection parameters to access said internal network through the secure access entity; - a step of generating a first application from parameters of said determined set of connection parameters, said first application being protected using at least one determined portion of said authentication data and able to establish, when it is executed by the web browser of the terminal, a connection between said terminal and said proxy server using said parameters, in response to the provision of said at least one determined portion of the authentication data if said first application determines that data that are provided to it by a user via said terminal match said at least one determined portion of the authentication data; and - a step of transmitting said first application to the web browser of the terminal.
A camera module comprising: a housing; a lens assembly, at least a part of which is received in the housing, the lens assembly including at least one lens; an iris diaphragm disposed over the at least one lens and configured to adjust an amount of external light incident on the at least one lens; an iris diaphragm magnet member disposed on a surface of the lens assembly and associated with adjusting a movement of the iris diaphragm; a coil disposed on a surface of the housing and configured to face the iris diaphragm magnet member; at least one sensor disposed on the surface of the housing and configured to sense a magnetic force of the iris diaphragm magnet member; a lens driving unit configured to move the lens assembly; and control circuitry operatively connected to the at least one sensor and the lens driving unit, wherein the control circuitry is configured to: detect the magnetic force between the lens assembly moved by the lens driving unit and the surface of the housing by using the sensor, determine the position of the lens assembly relative to the surface of the housing, based on the magnetic force, correct a signal for controlling the coil according to the position of the lens assembly, and adjust the iris diaphragm through the magnet, by using an electromagnetic force output through the coil according to the corrected signal. a housing; a lens assembly, at least a part of which is received in the housing, the lens assembly including at least one lens; an iris diaphragm disposed over the at least one lens and configured to adjust an amount of external light incident on the at least one lens; an iris diaphragm magnet member disposed on a surface of the lens assembly and associated with adjusting a movement of the iris diaphragm; a coil disposed on a surface of the housing and configured to face the iris diaphragm magnet member; at least one sensor disposed on the surface of the housing and configured to sense a magnetic force of the iris diaphragm magnet member; a lens driving unit configured to move the lens assembly; and control circuitry operatively connected to the at least one sensor and the lens driving unit, wherein the control circuitry is configured to: detect the magnetic force between the lens assembly moved by the lens driving unit and the surface of the housing by using the sensor, determine the position of the lens assembly relative to the surface of the housing, based on the magnetic force, correct a signal for controlling the coil according to the position of the lens assembly, and adjust the iris diaphragm through the magnet, by using an electromagnetic force output through the coil according to the corrected signal.
An object transportation apparatus for transferring articles from a supply device to a take-away device comprising: at least two, preferably three, transportation belts that are arranged above one another in their width directions and that each have a separate drive; a plurality of reception elements of which at least one is arranged at each of the transportation belts and which serve to pick up the articles to be transported; and - a screw element that is configured to cooperate with the plurality of reception elements to transfer an article to be transported to one of the plurality of reception elements in a transfer region or to take them over from one of the plurality of reception elements, wherein the screw element has a first section having an unchanging diameter and a second section having a diameter larger in comparison therewith at which the screw element cooperates with the plurality of reception elements; wherein the second section of the screw element cooperating with the plurality of reception elements has a continuously increasing diameter starting from the diameter of the first section toward the transfer region and; the first section and the second section of the screw element are separate from one another and have a respective separate drive. at least two, preferably three, transportation belts that are arranged above one another in their width directions and that each have a separate drive; a plurality of reception elements of which at least one is arranged at each of the transportation belts and which serve to pick up the articles to be transported; and - a screw element that is configured to cooperate with the plurality of reception elements to transfer an article to be transported to one of the plurality of reception elements in a transfer region or to take them over from one of the plurality of reception elements, wherein - a screw element that is configured to cooperate with the plurality of reception elements to transfer an article to be transported to one of the plurality of reception elements in a transfer region or to take them over from one of the plurality of reception elements, wherein the screw element has a first section having an unchanging diameter and a second section having a diameter larger in comparison therewith at which the screw element cooperates with the plurality of reception elements; wherein the second section of the screw element cooperating with the plurality of reception elements has a continuously increasing diameter starting from the diameter of the first section toward the transfer region and; the first section and the second section of the screw element are separate from one another and have a respective separate drive.
Handle for a sports equipment, comprising a force measurement device which is attached to the handle and which is suitable for measuring a force acting on the handle which is applied by a hand of a player enclosing the handle, wherein the forces transmitted by individual fingers of the hand of the player can each be measured independently of one another; and an electronic evaluation unit which is electrically connected to the force measurement device; wherein the force measurement device comprises multiple force sensors of flat configuration which are positioned in such a way that the respective fingers of the hand of the player come to lie on the individual sensors when the sports equipment is gripped normally, and which are attached to the handle in such a way that the force transmitted by the hand of the player can be measured by the force sensors, wherein the handle further comprises a handle shell (4a, 4b) and the force sensors are arranged below the handle shell (4a, 4b).