mhurhangee/ep-ind-claims huggingface dataset:
Cooling system for an internal combustion engine, said internal combustion engine comprising two gas circulation lines (7, 9), said cooling system comprising two heat exchangers (17, 35), respectively connected to the two gas circulation lines (7, 9), and a circuit, in which a heat transfer fluid circulates and which comprises: - a heat exchange section, which serves the two heat exchangers (17, 35), said heat exchange section having two ends, each of the two ends being connected to a valve (79, 81); - a main branch connected to the two valves (79, 81) and serving the engine; - a bypass branch connected to the two valves (79, 81) parallel to the heat exchange section and separate from the main branch; and said cooling system further comprising: - a controller capable of controlling the two valves (79, 81), between a normal operating state, in which the two valves (79, 81) leave the heat transfer fluid to circulate in the main branch and the heat exchange section, and a preheating state, in which the two valves (79, 81) leave the heat transfer fluid to circulate in the main branch and the bypass branch. - a heat exchange section, which serves the two heat exchangers (17, 35), said heat exchange section having two ends, each of the two ends being connected to a valve (79, 81); - a main branch connected to the two valves (79, 81) and serving the engine; - a bypass branch connected to the two valves (79, 81) parallel to the heat exchange section and separate from the main branch; and - a controller capable of controlling the two valves (79, 81), between a normal operating state, in which the two valves (79, 81) leave the heat transfer fluid to circulate in the main branch and the heat exchange section, and a preheating state, in which the two valves (79, 81) leave the heat transfer fluid to circulate in the main branch and the bypass branch.
Protective net formed of individual loops (12, 12', 12") of plastics material threaded into each other, wherein each loop (12, 12', 12") is formed by a thread of plastics material wrapped repeatedly over itself, said protective net being characterized in that ends of the thread of each loop (12, 12', 12") are secured by welding.
Use of a flat-laid film bag in an automated filling system, in which the film bag is opened, wherein the film bag is formed with a front wall, a rear wall, side folds (3, 3') laid between the front wall and the rear wall and a reclosure consisting of a reclosure strip on the inside of the bag, wherein the reclosure strip is disposed on the inner surface of a side fold and adjoining this on the inner surfaces of the front wall and the rear wall and extends into a two-ply bag section formed by the front wall and the rear wall, characterized in that the front wall, the rear wall and the side fold provided with the reclosure form a four-ply bag section in the delivery state, whose plies are releasably connected by the reclosure strip and that the sections of the reclosure strip arranged on the front wall and the rear wall are not connected in the region of the two-ply bag section in the delivery state.
An LED package mounting board mounted with a surface mount LED package having multiple terminals (13, 14, 15), the LED package mounting board comprising multiple pads (2, 3, 4) to which the terminals (13, 14, 15) are respectively soldered, wherein at least one pad, other than a heat dissipation pad having a highest heat dissipation function with respect to the LED package among the multiple pads (2, 3, 4), forms a shape different from a shape of a terminal corresponding to the differently-shaped pad, wherein, in a proper position where the LED package is mounted, the terminal corresponding to the differently-shaped pad and the differently-shaped pad have a non-overlapping part (16, 16A, 16B), and a joint surface of the terminal corresponding to the differently-shaped pad protrudes from the differently-shaped pad, and wherein the non-overlapping part (16, 16A, 16B) is provided such that only in the proper position where the LED package is mounted, a resultant force of forces acting on boundaries of a part where the differently-shaped pad and the terminal corresponding to the differently-shaped pad are overlapped is balanced due to surface tension of molten solder.
Apparatus for supporting the movement of a human shoulder joint, with a first rotary bearing for executing a rotation of a first bearing part about a first axis of rotation, a second rotary bearing for executing a rotation of a second bearing part about a second axis of rotation, wherein the second axis of rotation is connected indirectly or directly to the first bearing part, a third rotary bearing for executing a rotation of a third bearing part about a third axis of rotation, wherein the third axis of rotation is connected indirectly or directly to the second bearing part, a fourth rotary bearing for executing a rotation of a fourth bearing part about a fourth axis of rotation, wherein the fourth axis of rotation is connected indirectly or directly to the third bearing part, and a fifth rotary bearing for executing a rotation of the fourth bearing part about a fifth axis of rotation, wherein a) the first axis of rotation is connected in a spatially fixed manner to a first fastening means which is suitable for a detachably secure mounting and orientation of the first rotary bearing on the shoulder area of a person, b) the fifth axis of rotation is connected in a spatially fixed manner to a second fastening means which is suitable for a detachably secure mounting and orientation of the fifth rotary bearing on the upper arm area of the person's scapula, such that the fifth axis of rotation traverses the head of the person's humerus of the person during use, c) the second and third axes of rotation (D2, D3) are orientated parallel to each other and span a plane relative to which the fourth axis of rotation is in parallel orientation, d) at least one of the first and/or fifth rotary bearings have/has an actuator system that supports the rotation, and e) when used with their assigned axes of rotation, no three rotary bearings of the five rotary bearings (D1, D2, D3, D4, D5) span an x-y-z coordinate system which intersects in the humerus head. a) the first axis of rotation is connected in a spatially fixed manner to a first fastening means which is suitable for a detachably secure mounting and orientation of the first rotary bearing on the shoulder area of a person, b) the fifth axis of rotation is connected in a spatially fixed manner to a second fastening means which is suitable for a detachably secure mounting and orientation of the fifth rotary bearing on the upper arm area of the person's scapula, such that the fifth axis of rotation traverses the head of the person's humerus of the person during use, c) the second and third axes of rotation (D2, D3) are orientated parallel to each other and span a plane relative to which the fourth axis of rotation is in parallel orientation, d) at least one of the first and/or fifth rotary bearings have/has an actuator system that supports the rotation, and e) when used with their assigned axes of rotation, no three rotary bearings of the five rotary bearings (D1, D2, D3, D4, D5) span an x-y-z coordinate system which intersects in the humerus head.
On-load tap changer, comprising a load changeover switch insert with a switching tube; an oil suction pipe arranged centrally and coaxially along an axis within the switching tube; and a kerosene drain screw which is so mounted in a base of the on-load tap changer that it is coaxial with an axis of the oil suction pipe, the axis of the switching tube and an axis of the on-load tap changer; wherein a bearing ring is so acted on by a resilient element at one side and radially with respect to the axis of the on-load tap changer that the switching tube and the oil suction pipe both mechanically positively co-operate with the bearing ring and are centred about the axis of the on-load tap changer.
An impeller for a centrifugal compressor having a plurality of full blades provided extending from an entrance portion to an exit portion of a fluid on a hub surface so as to stand at a regular interval in a circumferential direction and a splitter blade provided from a midpoint in a flow path, formed between the full blades (5F,5R) provided adjacent to each other, to the exit portion, wherein a shroud side of a front edge portion of the splitter blade is disposed so as to be displaced toward a negative-pressure surface (Sb) of the full blade from a position equidistant from the adjacent full blades (5F,5R) in the circumferential direction such that a blade-end leakage vortex generated during a high flow rate, which occurs from a blade-end clearance formed between a tip of the full blade and a shroud toward the front edge portion of the splitter blade, gets over the front edge portion of the splitter blade or such that the shroud side of the front edge portion of the splitter blade matches a direction of the blade-end leakage vortex, and characterized in that a hub side of a rear edge portion of the splitter blade is disposed so as to be displaced toward the positive-pressure surface (Sa) of the full blade from the position equidistant from the full blades (5F,5R) in the circumferential direction in the centrifugal compressor.
A molecularly imprinted polymer selective for: (a) a Hoffmann analyte selected from the group consisting of methyl ethyl ketone, acetaldehyde, acetone, acrolein, butyraldehyde, crotonaldehyde, formaldehyde, priopionaldehyde, catechol, hydroquinone, m-cresol, p-cresol, o-cresol, phenol, resorcinol, ammonia, hydrogen cyanide, nitric oxide, carbon monoxide, acrylonitrile, 1,3-butadiene, benzene, isoprene, toluene, styrene, pyridine, arsenic, cadmium, chromium, lead, mercury, nickel, selenium, and precursors thereto; or (b) an organoleptic compound found naturally in one or more Nicotiana species.
A composition comprising minimally processed, uncultured microvascular tissue, wherein the tissue has been dissociated and then dried or cryopreserved, wherein the tissue has been dissociated using enzymatic digestion, wherein the tissue includes a mixture of stem and/or progenitor cells produced from the dissociation, wherein the viability of the included stem or progenitor cells is less than 50% and wherein said composition has tissue healing activity, wherein the tissue healing activity comprises improved repair or regeneration of a tissue.
A fastening element for connecting a first component to a second component, wherein the fastening element has: - a pin-like connecting element with a first fastening region (5.4) and a second fastening region (5.5), - a sleeve (1.1) which is configured for insertion into a receiving opening (4.1) of the first component, - a compensation element (1.4) which is provided with a receptacle (1.2) for receiving the first fastening region (5.4) and which is configured for insertion and adjustment in a longitudinal direction (y) in the sleeve (1.1), wherein at least one drive interface (1.12, 1.13) is provided on the compensating element (1.4), by means of which the compensating element (1.4) can be adjusted in the longitudinal direction (y) in the sleeve (1.1). - a pin-like connecting element with a first fastening region (5.4) and a second fastening region (5.5), - a sleeve (1.1) which is configured for insertion into a receiving opening (4.1) of the first component, - a compensation element (1.4) which is provided with a receptacle (1.2) for receiving the first fastening region (5.4) and which is configured for insertion and adjustment in a longitudinal direction (y) in the sleeve (1.1),
Method for mixing a first and second component (502, 504) by means of a mixing chamber, wherein the mixing chamber comprises a container for receiving the first and the second component (502, 504), an obstacle structure which is configured to be movable with respect to the container and intended for mixing the first component with the second component under the effect of a centrifugal force, and a connection piece connected to the container and the obstacle structure, wherein the connection piece is formed integrally with the container and/or the obstacle structure, comprising the following steps: filling the container of the mixing chamber with the first and the second component (502, 504); and generating the centrifugal force, wherein the obstacle structure is moved in the first and the second component (502, 504) and mixes the first and second component with one another. filling the container of the mixing chamber with the first and the second component (502, 504); and generating the centrifugal force, wherein the obstacle structure is moved in the first and the second component (502, 504) and mixes the first and second component with one another.
A dental milling machine for producing a dental object, comprising: - a sensor unit for detecting signals caused by a machining tool; and - an electronic control unit for controlling a feed rate, a path distance and/or a rotational speed of the machining tool on the basis of the detected signals. - a sensor unit for detecting signals caused by a machining tool; and - an electronic control unit for controlling a feed rate, a path distance and/or a rotational speed of the machining tool on the basis of the detected signals.
An optical filter (10, 10A, 20A) having a value of L* measured by an SCE method of 20 or larger, wherein the optical filter (10, 10A, 20A) comprises a matrix and fine particles dispersed in the matrix, wherein the optical filter (10, 10A, 20A) has a regular transmittance of 60% or higher for light having a wavelength in at least a part of a wavelength range not shorter than 760 nm and not longer than 2000 nm, wherein in the case where a light resistance test of irradiating the optical filter (10, 10A, 20A) with light from a xenon arc lamp (having an average total illuminance of light, having a wavelength not shorter than 300 nm and not longer than 400 nm, of 120 W/m 2) for 300 hours is performed, the optical filter (10, 10A, 20A) exhibits a change in C* having an absolute value of 6 or smaller between before and after the light resistance test, the C* being measured by an SCE method by use of a spectrophotometer, wherein the fine particles form at least a colloidal amorphous array so as not to cause Bragg reflection and so that a transmittance curve of the filter in a visible light wavelength region includes a curved portion where the regular transmittance is decreased monotonically from a longer wavelength side to a shorter wavelength side, and the curved portion is shifted to the longer wavelength side as an angle of incidence is increased, and wherein the fine particles have an average value of inter-gravitational center distances of 200 nm or longer on a cross-section vertical to a planar direction of the filter. wherein the optical filter (10, 10A, 20A) comprises a matrix and fine particles dispersed in the matrix, wherein the optical filter (10, 10A, 20A) has a regular transmittance of 60% or higher for light having a wavelength in at least a part of a wavelength range not shorter than 760 nm and not longer than 2000 nm, wherein in the case where a light resistance test of irradiating the optical filter (10, 10A, 20A) with light from a xenon arc lamp (having an average total illuminance of light, having a wavelength not shorter than 300 nm and not longer than 400 nm, of 120 W/m 2) for 300 hours is performed, the optical filter (10, 10A, 20A) exhibits a change in C* having an absolute value of 6 or smaller between before and after the light resistance test, the C* being measured by an SCE method by use of a spectrophotometer, wherein the fine particles form at least a colloidal amorphous array so as not to cause Bragg reflection and so that a transmittance curve of the filter in a visible light wavelength region includes a curved portion where the regular transmittance is decreased monotonically from a longer wavelength side to a shorter wavelength side, and the curved portion is shifted to the longer wavelength side as an angle of incidence is increased, and wherein the fine particles have an average value of inter-gravitational center distances of 200 nm or longer on a cross-section vertical to a planar direction of the filter.
A method for loading polymerase-nucleic acid complexes onto a substrate comprising: providing a solution of beads, individual beads having bound thereto a plurality of polymerase-nucleic acid complexes; exposing the solution to a substrate, wherein the substrate comprises an array of cylindrical zero mode waveguides, and wherein the beads have diameters that are 2 times greater or more than the diameter of the zero mode waveguides, the substrate comprising coupling groups for coupling the polymerase-nucleic acid complexes to the substrate within the zero mode waveguides; and applying a field to draw the particles to the substrate, whereby polymerase-nucleic acid complexes become bound to the substrate through the coupling groups. providing a solution of beads, individual beads having bound thereto a plurality of polymerase-nucleic acid complexes; exposing the solution to a substrate, wherein the substrate comprises an array of cylindrical zero mode waveguides, and wherein the beads have diameters that are 2 times greater or more than the diameter of the zero mode waveguides, the substrate comprising coupling groups for coupling the polymerase-nucleic acid complexes to the substrate within the zero mode waveguides; and applying a field to draw the particles to the substrate, whereby polymerase-nucleic acid complexes become bound to the substrate through the coupling groups.
A system comprising: at least one tube; a bearing housing; a fitting configured to couple a portion of a frame of a turbine and a bearing housing on an aircraft engine, the fitting comprising: a first receptacle configured to seat the at least one tube that is configured to convey fluid; and at least a second receptacle configured to seat a corresponding at least two bolts associated with the bearing housing, characterized in that the fitting comprises sections between the first receptacle and the at least a second receptacle that have a material thickness in a range of 3.175 millimeters and 6.35 millimeters; and the system further comprises: a seal groove that is substantially located around the perimeter of the fitting and configured to ensure that the fitting maintains contact with the bearing housing within a threshold amount and leakage past the at least two bolts is contained. at least one tube; a bearing housing; a fitting configured to couple a portion of a frame of a turbine and a bearing housing on an aircraft engine, the fitting comprising: a first receptacle configured to seat the at least one tube that is configured to convey fluid; and at least a second receptacle configured to seat a corresponding at least two bolts associated with the bearing housing, a first receptacle configured to seat the at least one tube that is configured to convey fluid; and at least a second receptacle configured to seat a corresponding at least two bolts associated with the bearing housing, characterized in that the fitting comprises sections between the first receptacle and the at least a second receptacle that have a material thickness in a range of 3.175 millimeters and 6.35 millimeters; and the system further comprises: a seal groove that is substantially located around the perimeter of the fitting and configured to ensure that the fitting maintains contact with the bearing housing within a threshold amount and leakage past the at least two bolts is contained.
A contact switch structure in which a movable contact is opened and closed with respect to a fixed contact disposed in a position opposite to the movable contact, by operating a movable touch piece provided with the movable contact, the contact switch structure comprising a guide unit that is provided in a region at a first side of an operating range of the movable touch piece, characterised in that the guide unit is located at a linear distance which is less than or equal to 0.8 mm, to an operating locus of the movable touch piece at said first side and a gap that exceeds the linear distance is formed in a region at a second side of said operating range, which second side is opposite to said first side, in order to control an air flow such that, when the movable contact is opened to form a predetermined gap between the fixed contact and the movable contact, a negative pressure is generated at said first side so that a flow of air is generated in the predetermined gap from the second side to the first side.
A system of modular vehicle occupant supports[Figs 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da], wherein said modular occupant supports are in two or more tiers and wherein each tier comprises a plurality of modular occupant supports, and wherein the modular occupant supports in the second tier are offset with regard to the modular occupant supports in the first tier, and wherein the first tier of modular occupant support have direct egress and ingress access to occupants, and wherein egress and ingress to each of the modular occupant supports in the second tier requires a means for elevating the occupant, and wherein means for such elevation for each of said modular occupant supports on the second tier is a set of stairs, characterized by: - said offset of said second tier occupant supports with regard to the first tier occupant supports is lateral with regard to the facing direction of the occupant supports [Figs 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da]; - said stairs being located along a side wall of one of said modular occupant supports on the first tier [Fig 2-2, 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da], thereby providing means for egress and ingress of an occupant in the second tier without limiting space egress and ingress of the occupant in the first tier, said limiting of space being determined by one of both of the extent of offset of the second tier relative to the first tier and the width of the stairs. - said offset of said second tier occupant supports with regard to the first tier occupant supports is lateral with regard to the facing direction of the occupant supports [Figs 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da]; - said stairs being located along a side wall of one of said modular occupant supports on the first tier [Fig 2-2, 1-6D, Fig 1-7D, 1-8D, 1-8Da, 1-9D, 1-9Da, 1-10D, 1-11D, 1-11Da], thereby providing means for egress and ingress of an occupant in the second tier without limiting space egress and ingress of the occupant in the first tier, said limiting of space being determined by one of both of the extent of offset of the second tier relative to the first tier and the width of the stairs.
Container for plant material, comprising a row of at least two cells, wherein the cell defines a plant position and is formed by at least one wall largely enclosing the plant position for filling with plant material (5, 6) during use, wherein this wall comprises biodegradable material, wherein a connection connects adjacent cells of one row to each other, wherein the connection is adapted to be broken for subsequent transfer of the cell with wall to a larger cell, wherein two adjacent cells in one row are mutually connected via the connection, wherein the connection is adapted to be broken, wherein each of the at least two cells with plant material (5, 6) in the row of the container is configured to be gripped, placed in the larger cell and released, CHARACTERISED IN THAT the container comprises a guide directed toward the connection for guiding an external separator such as a saw to the connection.