mhurhangee/ep-ind-claims huggingface dataset:
An alignment tool for aligning a bore extending through a first structural member with a bore extending through a second structural member, the alignment tool comprising: - a first shaft portion having a cylindrical or cylindrical like configuration defining a first cylinder axis, a first diameter and a first surface, - a second shaft portion having a cylindrical or cylindrical like configuration defining a second cylinder axis, a second diameter and a second surface, the second shaft portion being arranged adjacent to the first shaft portion along a direction defined by the first cylinder axis, the second cylinder axis extending in parallel to the first cylinder axis, the second diameter being smaller than the first diameter and a portion of the second surface forming a continuation of a portion of the first surface, - a first bushing arranged along the first shaft portion and substantially covering the first surface, and - a second bushing arranged along the second shaft portion and substantially covering the second surface, wherein the first bushing and/or the second bushing has/have a cylindrical shape, characterized in that mutual rotational movements are allowed between the first shaft portion and the first bushing and between the second shaft portion and the second bushing. - a first shaft portion having a cylindrical or cylindrical like configuration defining a first cylinder axis, a first diameter and a first surface, - a second shaft portion having a cylindrical or cylindrical like configuration defining a second cylinder axis, a second diameter and a second surface, the second shaft portion being arranged adjacent to the first shaft portion along a direction defined by the first cylinder axis, the second cylinder axis extending in parallel to the first cylinder axis, the second diameter being smaller than the first diameter and a portion of the second surface forming a continuation of a portion of the first surface, - a first bushing arranged along the first shaft portion and substantially covering the first surface, and - a second bushing arranged along the second shaft portion and substantially covering the second surface,
A shaftless motor-compressor, comprising a casing and at least one compressor stage (9A, 9B) arranged in said casing, each compressor stage being comprised of a respective impeller (11A, 11B) arranged for rotation in said casing around a rotation axis; wherein each impeller (11A, 11B) is combined with an embedded electric motor (13A, 13B) housed in said casing and comprised of a motor stator (15A, 15B) and a motor rotor; wherein the motor stator circumferentially surrounds the impeller and the motor rotor is integral with the impeller (11A, 11B), the motor rotor (17A, 17B) of each compressor stage (9A, 9B) being arranged radially inside the respective motor stator and wherein each impeller further comprises a plurality of blades (29A,29B) arranged around the rotation axis and a diffuser arrangement (33A, 33B) surrounding the blades and rotating therewith.
A slider for a slide fastener including a slider body (20,40) and a tab held by the slider body (20, 40), in which the slider body (20, 40) at least includes an upper wing plate from which a tab attaching post for holding the tab stands, a lower wing plate placed such that it is opposed to the upper wing plate, a diamond connecting a shoulder-opening-side tip portion of the upper wing plate and a shoulder-opening-side tip portion of the lower wing plate to each other, and left and right lower flanges extending from left and right side outer edges of the lower wing plate toward the upper wing plate, each of the lower flanges includes a downwardly inclined surface portion which is placed on the shoulder-opening-side tip portion on a side of an upper wing plate-opposed surface and on an outer side in a width direction of the slider, wherein each of the downwardly inclined surface portions is placed such that it is adjacent, through ridge lines, to a tip surface on the side of the shoulder, the upper wing plate-opposed surface, and an outer surface of the slider, which stands along an outer edge of the lower wing plate and intersects with the upper wing plate-opposed surface at right angles through a ridge line, characterized in that the inclined surface portion downwardly inclines toward a shoulder and downwardly inclines toward the outer side in the width direction of the slider.
The use of a catalyst for the reforming of hydrocarbons in the presence of CO 2, wherein said catalyst comprises at least nickel-magnesium mixed oxide and magnesium spinel, wherein the nickel-magnesium mixed oxide has an average crystallite size of ≤ 100 nm, the magnesium spinel phase has an average crystallite size of ≤ 100 nm, the proportion of nickel is in the range 7-28 mol%, the proportion of magnesium is in the range 8-38 mol%, and the proportion of aluminium is in the range 50-70 mol%, the BET surface area is in the range from 10 to 200 m 2 /g and the intensity of the diffraction reflection of the catalyst at 43.15 ± 0.15°2θ and the intensity of the diffraction reflection at 44.83 ± 0.20 °2θ as measured at a wave length of 0.154 nm is characterised in that the intensity ratio of the two reflections I (43.15°) /I (44.83°) is in the range from 0.3 to 1.0.
A display apparatus comprising: a display comprising a plurality of display modules, each of which comprises a plurality of light emitting devices; a plurality of wireless power transmitters configured to wirelessly transmit power; and a plurality of wireless power receivers configured to receive the power from the plurality of wireless power transmitters, each of the plurality of wireless power receivers comprising output terminals configured to output the power to the plurality of display modules; characterized by: a connector configured to connect the output terminals of the plurality of wireless power receivers to each other. a display comprising a plurality of display modules, each of which comprises a plurality of light emitting devices; a plurality of wireless power transmitters configured to wirelessly transmit power; and a plurality of wireless power receivers configured to receive the power from the plurality of wireless power transmitters, each of the plurality of wireless power receivers comprising output terminals configured to output the power to the plurality of display modules; characterized by: a connector configured to connect the output terminals of the plurality of wireless power receivers to each other.
A compound of formula or or wherein each R 6 and R 7 is the same or different and is selected from hydrogen, optionally substituted alkyl, optionally substituted alkenyl, optionally substituted cycloalkyl, and optionally substituted aryl, R 5' is alkyl, R 12 is selected from hydrogen, alkyl, alkenyl, cycloalkyl, alkoxy, aryl, aryloxy, heteroaryl, hydroxyalkyl, thioalkyl, thioalkoxy, thioaryl, and an amino acid-containing group, wherein each group other than hydrogen is optionally substituted, and n is an integer selected from 5-7. each R 6 and R 7 is the same or different and is selected from hydrogen, optionally substituted alkyl, optionally substituted alkenyl, optionally substituted cycloalkyl, and optionally substituted aryl, R 5' is alkyl, R 12 is selected from hydrogen, alkyl, alkenyl, cycloalkyl, alkoxy, aryl, aryloxy, heteroaryl, hydroxyalkyl, thioalkyl, thioalkoxy, thioaryl, and an amino acid-containing group, wherein each group other than hydrogen is optionally substituted, and n is an integer selected from 5-7.
A navigation device comprising: at least one monocular camera configured to capture at least a first image frame; an inertial measurement unit integrated with the at least one monocular camera, wherein the inertial measurement unit is configured to take inertial measurements; and a processor coupled to the at least one monocular camera and the inertial measurement unit, wherein the processor is configured to determine a position of at least one feature in the first image frame based on an output from processing the inertial measurements with a position of the at least one feature in a previous frame captured by the at least one monocular camera; wherein the processor is configured to determine a set of 3D coordinates in the camera coordinate system comprising bias elements and a range that uniquely represent the at least one feature from the position of the at least one feature in the first image frame, and store the set of 3D coordinates in a landmark database; wherein the processor is configured to execute a recursive filter comprising state vectors including position, velocity, and attitude of the moving navigation device, and representations comprising the 3D coordinates of the at least one feature in the landmark database; and wherein the recursive filter is configured to further compensate the inertial measurements based on the position of the at least one feature in the first image characterized in that the state vectors further include a focal length f of the at least one monocular camera. at least one monocular camera configured to capture at least a first image frame; an inertial measurement unit integrated with the at least one monocular camera, wherein the inertial measurement unit is configured to take inertial measurements; and a processor coupled to the at least one monocular camera and the inertial measurement unit, wherein the processor is configured to determine a position of at least one feature in the first image frame based on an output from processing the inertial measurements with a position of the at least one feature in a previous frame captured by the at least one monocular camera;
Lamp, in particular pendant light, having: - a holding device for holding the lamp; - at least one lighting means for emitting light; and - a flat light guide plate, wherein the light guide plate directs and radiates the emitted light of the at least one lighting means; - wherein a flat side (30, 31) of the light guide plate has a cavity, wherein the lighting means is positioned in such a way that it radiates inside or into said cavity, and wherein the holding device is disposed on or in said cavity, wherein the at least one lighting means is disposed in or in the vicinity of the cavity such that the main radiation direction thereof is substantially parallel to an end face of said light guide plate or substantially orthogonal to a flat side (30, 31), wherein a light deflecting element is provided in the cavity, as a result of which the emitted light is coupled into the light guide plate in a defined manner, characterized in that the light deflecting element has at least one curvature and is formed as an integral component of the holding device. - a holding device for holding the lamp; - at least one lighting means for emitting light; and - a flat light guide plate, wherein the light guide plate directs and radiates the emitted light of the at least one lighting means; - wherein a flat side (30, 31) of the light guide plate has a cavity,
Mouldable mass, containing graphite, binder and microcapsules containing phase change material, characterized in that the binder is a binder from the group consisting of geopolymers such as water-soluble sodium or potassium silicates, epoxy resins, phenolic resins, silicone resins, polyester resins, polypropylene or fluoropolymers, and any combination thereof.
A skylight assembly for securing to a curb, the assembly comprising: an upper frame, the upper frame comprising a first surface and a first and a second downwardly extending leg (34, 36) from the first surface, the first and second downwardly extending legs (34, 36) of the upper frame defining an upper channel therebetween; a lower frame, the lower frame comprising a second surface and a first and a second upwardly extending leg (44, 46) from the second surface, the first and second upwardly extending legs (44, 46) of the lower frame defining a lower channel therebetween, the lower frame further comprising a downwardly extending leg from the second surface; a connector clip for securing the upper frame to the lower frame by any one of insertion within the lower channel of the lower frame and insertion within the upper channel of the upper frame; a gasket, the gasket secured to the first surface of the lower frame; and a first lens (100; 102), the first lens (100; 102) secured between the upper frame and the gasket, wherein the connector clip forms a generally U-shape and includes at least two extenders (64; 66) angled downward towards each other into the generally U-shape of the connector clip. an upper frame, the upper frame comprising a first surface and a first and a second downwardly extending leg (34, 36) from the first surface, the first and second downwardly extending legs (34, 36) of the upper frame defining an upper channel therebetween; a lower frame, the lower frame comprising a second surface and a first and a second upwardly extending leg (44, 46) from the second surface, the first and second upwardly extending legs (44, 46) of the lower frame defining a lower channel therebetween, the lower frame further comprising a downwardly extending leg from the second surface; a connector clip for securing the upper frame to the lower frame by any one of insertion within the lower channel of the lower frame and insertion within the upper channel of the upper frame; a gasket, the gasket secured to the first surface of the lower frame; and a first lens (100; 102), the first lens (100; 102) secured between the upper frame and the gasket, wherein the connector clip forms a generally U-shape and includes at least two extenders (64; 66) angled downward towards each other into the generally U-shape of the connector clip.
Pharmaceutical comprising isopropyl myristate and at least one catechol of the formula characterized in that in formula R 3 is -H or -OH and R 4 is -H or a group of the formula wherein the pharmaceutical comprises at least 10% - 60% (w/w), in particular at least 25% - 55% (w/w), and especially at least 35% - 50% (w/w) isopropyl myristate.
A vehicle body structure, comprising: left and right front side frames positioned at a front portion of a vehicle body and extending in a front-rear direction of the vehicle body; a dashboard lower positioned at a rear side of the left and right front side frames and dividing the vehicle body into front and rear portions; a floor panel extending in a vehicle width direction of the vehicle body and also extending rearward from a lower portion of the dashboard lower; and a tunnel section extending from a center of the vehicle width and a lower end of the dashboard lower to a rear portion of the floor panel, and bulging upward from the floor panel, wherein the floor panel includes: left and right bulging sections (51, 52) disposed on left and right sides of the tunnel section for installation of seats of the vehicle body; and a rear tunnel cross member disposed on rear ends of the left and right bulging sections (51, 52) and extending in the vehicle width direction, the vehicle body includes: left and right floor extensions deflected toward the tunnel section along a lower surface of the dashboard lower from rear ends of the left and right front side frames; and left and right floor frames (31, 32) extending so as to span between the left and right floor extensions and the rear tunnel cross member, and having a predetermined distance in a vehicle body vertical direction from a rear floor panel; characterized by an energy container disposed below the bulging sections (51, 52) and supported by the floor frames (31, 32), wherein the floor frames (31, 32) are detachably fixed to the vehicle body from the lower side of the vehicle body. left and right front side frames positioned at a front portion of a vehicle body and extending in a front-rear direction of the vehicle body; a dashboard lower positioned at a rear side of the left and right front side frames and dividing the vehicle body into front and rear portions; a floor panel extending in a vehicle width direction of the vehicle body and also extending rearward from a lower portion of the dashboard lower; and a tunnel section extending from a center of the vehicle width and a lower end of the dashboard lower to a rear portion of the floor panel, and bulging upward from the floor panel, left and right bulging sections (51, 52) disposed on left and right sides of the tunnel section for installation of seats of the vehicle body; and a rear tunnel cross member disposed on rear ends of the left and right bulging sections (51, 52) and extending in the vehicle width direction, left and right floor extensions deflected toward the tunnel section along a lower surface of the dashboard lower from rear ends of the left and right front side frames; and left and right floor frames (31, 32) extending so as to span between the left and right floor extensions and the rear tunnel cross member, and having a predetermined distance in a vehicle body vertical direction from a rear floor panel; an energy container disposed below the bulging sections (51, 52) and supported by the floor frames (31, 32), wherein the floor frames (31, 32) are detachably fixed to the vehicle body from the lower side of the vehicle body.
A hydration state detection apparatus (100, 200, 300, 400) adapted to detect the hydration state of a body of a human or a mammal: - a first sensor arrangement (110, 304, 406) adapted to emit microwaves into the body via the skin and is adapted to detect microwaves transmitted by the body and/or microwaves reflected by the body, wherein the first sensor arrangement is adapted to be arranged on the skin of the body and wherein the first sensor arrangement outputs at least one first measurement variable which is based on the transmitted and/or reflected microwaves; - a second sensor arrangement (104, 106, 110, 112, 114, 116, 118, 120, 122, 124) adapted to measure at least one second physical variable of the body and to output a second measured variable which is based on the second physical variable; and - an evaluation device adapted to determine the hydration state of the body based on the first measurement variable and the second measurement variable, wherein the first sensor arrangement is adapted to measure the phase shift and/or the attenuation of the microwaves at a resonance frequency of the region of the body in which the microwaves emitted by the first sensor arrangement propagate. - a first sensor arrangement (110, 304, 406) adapted to emit microwaves into the body via the skin and is adapted to detect microwaves transmitted by the body and/or microwaves reflected by the body, wherein the first sensor arrangement is adapted to be arranged on the skin of the body and wherein the first sensor arrangement outputs at least one first measurement variable which is based on the transmitted and/or reflected microwaves; - a second sensor arrangement (104, 106, 110, 112, 114, 116, 118, 120, 122, 124) adapted to measure at least one second physical variable of the body and to output a second measured variable which is based on the second physical variable; and - an evaluation device adapted to determine the hydration state of the body based on the first measurement variable and the second measurement variable,
A process control method for maintaining a preselected developed mass per unit area of black solid area in a xerographic printer, the method comprising: generating a first test patch having a first DMA and a first test patch voltage; sensing said first DMA; generating a second test patch having a second DMA and a second test patch voltage; sensing said second DMA; generating a black solid area control patch and sensing the control patch voltage associated therewith; characterized in that sensing further comprises sensing said first test patch voltage; sensing further comprises sensing said second test patch voltage; the method further comprising: calculating a developability curve from the sensed DMA readings and the sensed test patch voltages; projecting said developability curve into a region where DMA cannot be sensed by a toner density sensor; estimating the DMA of the black solid area control patch using the projected developability curve and the sensed control patch voltage; comparing the estimated DMA with the preselected DMA; and adjusting a development field of the xerographic printer during run-time operation such that black solid area is returned to the preselected DMA. generating a first test patch having a first DMA and a first test patch voltage; sensing said first DMA; generating a second test patch having a second DMA and a second test patch voltage; sensing said second DMA; generating a black solid area control patch and sensing the control patch voltage associated therewith; characterized in that sensing further comprises sensing said first test patch voltage; sensing further comprises sensing said second test patch voltage; the method further comprising: calculating a developability curve from the sensed DMA readings and the sensed test patch voltages; projecting said developability curve into a region where DMA cannot be sensed by a toner density sensor; estimating the DMA of the black solid area control patch using the projected developability curve and the sensed control patch voltage; comparing the estimated DMA with the preselected DMA; and adjusting a development field of the xerographic printer during run-time operation such that black solid area is returned to the preselected DMA.
Tyre with a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers (41, 43) each formed of reinforcing elements inserted between two skim layers of rubber compound, which reinforcing elements are crossed from one layer to the other making with the circumferential direction angles comprised between 10° and 45°, a first layer of polymer compound being in contact with at least one working crown layer and in contact with the carcass reinforcement, the said first layer of polymer compound extending axially as far as at least the axial end of the tread, the said tread radially capping the crown reinforcement and being connected to two beads by two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, characterized in that the elastic modulus under tension at 10% elongation of at least one skim layer of at least one working crown layer (41, 43) is less than 8.5 MPa, in that the maximum value of tan(δ), denoted tan(δ) max, of the said at least one skim layer of at least one working crown layer (41, 43) is less than 0.100, in that the said first layer of polymer compound is made up of a filled elastomeric compound having a macro dispersion coefficient Z greater than or equal to 65 and a maximum tan (δ) value, denoted tan(δ)max, less than 0.100 and in that the complex dynamic shear modulus G*, measured at 10% and 60°C on the return cycle, of the said first layer of polymer compound is greater than 1.35 MPa.