mhurhangee/ep-ind-claims huggingface dataset:
A starter element for stackable inter-engaging bricks for building mortarless walls along a structure, each of said bricks having a tongue interlock element and a mortise interlock element configured in such way that they are in a mutual engagement when bricks are stacked one of top of the other, said bricks having an inner surface facing said structure, said starter element comprising: a. a tab customized to be adjustably attached to said structure such as to be adjacent to said structure when attached thereto; b. a portion to support and retain said bricks along said structure, said portion having an interlock element projecting upwardly therefrom to be in a mutual engagement with said mortise interlock element of said brick, c. a front portion sloping downwardly from said interlock element to be in at least partial contact with said inner surface of said brick, d. a lower portion extending rearwardly from said front portion and towards said structure, said lower portion being lower than said portion; and e. a second back portion extending vertically between said lower portion and said portion f. a first back portion extending vertically between said fourth portion and said portion whereby said first back portion is generally located between said second back portion and said third portion characterized in that said starter element extends generally laterally along the structure and wherein said starter element comprises laterally extending sections where said second back portion is present and laterally extending sections where said second back portion is absent, said laterally extending section where said second back portion is absent defining a drainage/ventilation channel. a. a tab customized to be adjustably attached to said structure such as to be adjacent to said structure when attached thereto; b. a portion to support and retain said bricks along said structure, said portion having an interlock element projecting upwardly therefrom to be in a mutual engagement with said mortise interlock element of said brick, c. a front portion sloping downwardly from said interlock element to be in at least partial contact with said inner surface of said brick, d. a lower portion extending rearwardly from said front portion and towards said structure, said lower portion being lower than said portion; and e. a second back portion extending vertically between said lower portion and said portion f. a first back portion extending vertically between said fourth portion and said portion whereby said first back portion is generally located between said second back portion and said third portion said starter element extends generally laterally along the structure and wherein said starter element comprises laterally extending sections where said second back portion is present and laterally extending sections where said second back portion is absent, said laterally extending section where said second back portion is absent defining a drainage/ventilation channel.
A tube-shaped Adhesive Printing Form Attachment Layer comprising a permanently sticky layer and an elastic support layer, wherein the tube is seamless, and the permanently sticky layer forms the exterior of the tube.
An optical unit for directing a laser beam to selectively solidify areas of powder layers in a selective laser solidification apparatus for building objects by layerwise solidification of powder material, the apparatus comprising a build chamber containing a build platform, a device for depositing layers of powder material on to the build platform, the optical unit comprising titlable mirrors for steering the laser beam onto the powder layer and focussing optics (176, 177) for focussing the laser beam on the powder layer as a deflection angle of the laser beam changes, and a photodetector (173, 187) arranged for detecting characteristic radiation generated by interaction of material in the layer with the or a further laser beam, characterised in that the focussing optics (176, 177) comprises movable focussing optics, wherein movement of the movable focussing optics is controlled synchronously with movement of the tiltable mirrors, and the photodetector (173. 187) is arranged to detect characteristic radiation that is collected by the tiltable mirrors and movable focussing optics (176, 177).
A foam composition comprising: a polylactic acid polymer in an amount of at least 10 weight percent and no greater than 90 weight percent, based on the total weight of the foam composition; a second polymer in an amount of at least 10 weight percent and no greater than 50 weight percent, based on the total weight of the foam composition, the second polymer having a T g of at least 25°C as determined by Differential Scanning Calorimetry, wherein the second polymer is polyvinyl acetate; and a plasticizer in an amount of 5 weight percent to 50 weight percent, based on the total weight of the foam composition; wherein the foam composition comprises a closed cell foam. a polylactic acid polymer in an amount of at least 10 weight percent and no greater than 90 weight percent, based on the total weight of the foam composition; a second polymer in an amount of at least 10 weight percent and no greater than 50 weight percent, based on the total weight of the foam composition, the second polymer having a T g of at least 25°C as determined by Differential Scanning Calorimetry, wherein the second polymer is polyvinyl acetate; and a plasticizer in an amount of 5 weight percent to 50 weight percent, based on the total weight of the foam composition;
Vehicle seat for forklift trucks which comprise a lifting mast having a load bearing means which is attached thereto and can move upwards and downwards, the vehicle seat comprising a seat plate and an inclinable backrest, the vehicle seat comprising a frame which can be removed from the forklift truck and has a first portion which extends substantially vertically behind the backrest and a second portion which extends substantially horizontally below the seat plate, a connection element arranged in the upper region of the backrest being shiftably mounted on the first portion in the extension direction thereof to incline the backrest, and the second portion of the frame comprising two tubular frame portions which extend in parallel with one another and are slidably connected to second sliding rails arranged on the forklift truck, characterised in that the seat plate can be shifted in a horizontal direction, by means of first sliding rails connected to the second portion, simultaneously to the backrest inclining, and the first sliding rails are arranged on an underside of the seat plate and can slidably move on the second tubular frame portions of the frame, the second tubular frame portions together with the vehicle seat as a whole being supported by a plate-like element which is formed at its left-hand and right-hand edge regions and in such a way that the second sliding rails, which are fastened to the forklift truck, are enclosed, and the plate-like element resting on the second sliding rails in the edge regions (20a, 20b) and the first sliding rails resting on the plate-like element outside the edge regions (20a, 20b).
A wheel suspension adapted for the suspensions of the rear wheels of a motor vehicle having a vehicle body and an engine-transmission system, the wheel suspension defining a longitudinal direction adapted to be parallel with the normal driving direction of the motor vehicle, a vertical direction being perpendicular to the longitudinal direction, and adapted to be vertical when the motor vehicle is in a normal driving state, and a transversal direction being perpendicular to the longitudinal direction and the vertical direction, the wheel suspension comprising a first suspension device for a right rear wheel and a second suspension device for a left rear wheel, each of the first and second suspension devices comprising a wheel spindle housing, adapted to support a wheel spindle on which the rear wheel is mountable and defining a wheel center, a frame structure adapted to be connected to the vehicle body or the engine-transmission system (2,3), a vehicle spring arranged to carry the weight of the vehicle body,and a plurality of control links, each extending between and connecting the frame structure and the wheel spindle housing, wherein the plurality of control links comprises - a lower rear link, - a trailing link, - a toe link, - a first upper camber link, and - a second upper camber link, wherein the first upper camber link and the second upper camber link intersect each other seen in the vertical direction, wherein the trailing link and the lower rear link together form a virtual lower triangular link swingable about a lower swing axis, and wherein the first camber link and the second camber link together form a virtual upper triangular link swingable about an upper swing axis, wherein the lower swing axis and the upper swing axis form a first angle (α) to each other in a plane of the longitudinal direction and the transversal direction, the first angle (α) lying in the interval 0-5°, characterized in that the lower swing axis and the upper swing axis form a second angle (β) to each other in a plane of the longitudinal direction and the vertical direction, the second angle (β) lying in the interval 1-8°, and that the lower swing axis (S1 and the upper swing axis both slope downwardly and rearwardly in relation to the longitudinal direction in the plane of the longitudinal direction and the vertical direction. - a lower rear link, - a trailing link, - a toe link, - a first upper camber link, and - a second upper camber link,
A self-retracting lifeline comprising: a housing; a drum received in the housing; a lifeline; an activation assembly received in the housing, wherein the activation assembly includes a drum bias and a braking device and is operationally coupled to the drum to selectively pay out, retract and stop a pay out of the lifeline; and a connector coupled proximate an end of the lifeline; and a fastener, characterised in that the connector has a connector passage and in that the connector passage and the fastener are configured and arranged to selectively couple the lifeline to the drum. a housing; a drum received in the housing; a lifeline; an activation assembly received in the housing, wherein the activation assembly includes a drum bias and a braking device and is operationally coupled to the drum to selectively pay out, retract and stop a pay out of the lifeline; and a connector coupled proximate an end of the lifeline; and a fastener, a connector coupled proximate an end of the lifeline; and a fastener,
A fastening control system for fastening composite members (21,22) for an aircraft, comprising: a shape data acquiring section configured to acquire shape data showing a measurement value of a shape of a fastener hole formed in a workpiece of the composite members (20,21); a suitable fastener determining section configured to determine as a suitable fastener size, a size of a fastener suitable for the fastener hole based on the shape data, and to generate suitable fastener data showing the suitable fastener size, the suitable fastener size including a suitable fastener diameter; and a collating section configured to collate the suitable fastener data and drawing data which is previously prepared design data, wherein the drawing data is configured to show a designed fastener size which is a design value of the size of the fastener to be inserted in the fastener hole, the designed fastener size including a designed fastener diameter, and wherein said collating section is configured to determine whether or not a difference between the suitable fastener diameter and the designed fastener diameter is within a previously set permissible range. a shape data acquiring section configured to acquire shape data showing a measurement value of a shape of a fastener hole formed in a workpiece of the composite members (20,21); a suitable fastener determining section configured to determine as a suitable fastener size, a size of a fastener suitable for the fastener hole based on the shape data, and to generate suitable fastener data showing the suitable fastener size, the suitable fastener size including a suitable fastener diameter; and a collating section configured to collate the suitable fastener data and drawing data which is previously prepared design data, wherein the drawing data is configured to show a designed fastener size which is a design value of the size of the fastener to be inserted in the fastener hole, the designed fastener size including a designed fastener diameter, and wherein said collating section is configured to determine whether or not a difference between the suitable fastener diameter and the designed fastener diameter is within a previously set permissible range.
A copper alloy sheet that has been produced by a production process including a finish cold rolling process at which a copper alloy material is cold-rolled, wherein an average grain size of the copper alloy material is 2.0 μm to 8.0 μm, circular or elliptical precipitates are present in the copper alloy material, and an average particle size of the precipitates is 4.0 nm to 25.0 nm, or a percentage of the number of precipitates having a particle size of 4.0 nm to 25.0 nm makes up 70% or more of the precipitates, the copper alloy sheet contains 4.5% by mass to 12.0% by mass of Zn, 0.40% by mass to 0.90% by mass of Sn, 0.01% by mass to 0.08% by mass of P, and optionally 0.004% by mass to 0.04% by mass of Fe, as well as 0.005% by mass to 0.08% by mass of Co and/or 0.03% by mass to 0.85% by mass of Ni, the remainder being Cu and unavoidable impurities, and [Zn], [Sn],, [Co], and [Ni] satisfy a relationship of 11 ≤ [Zn] + 7 × [Sn] + 15 × + 12 × [Co] + 4.5 × [Ni] ≤ 17 (here, [Zn], [Sn],, [Co], and [Ni] represent the contents (% by mass) of Zn, Sn, P, Co, and Ni, respectively), and [Co] and [Fe] satisfy a relationship of [Co] + [Fe] ≤ 0.08 (here, [Co] and [Fe] represent the contents (% by mass) of Co and Fe, respectively).
A photoelectric sensor for sensing a target at a predetermined location, the sensor comprising: a light source that emits light; an output circuit including first and second photodetectors (36, 38); a first receive lens positioned adjacent to the first photodetector; a second receive lens positioned adjacent to the second photodetector; a support structure for supporting each of the light source, the photodetectors (36, 38), and the receive lenses (74, 76) in relation to one another; wherein in case the target is at the predetermined location, the first photodector is adapted to receive a first portion of light which has been emitted by the light souce, reflected off the target and passed through the first receive lens, and the second photodetector is adapted to receive a second portion of light which has been emitted by the light source, reflected off the target and passed through the second receive lens; and wherein the output circuit produces an output signal indicative of a sensed characteristic of the target based on signals generated by the first and the second photodetectors (35, 38) in response to the portions of light received by the photodetectors (36, 38); wherein the output circuit includes a first amplifier (Q1-A) for amplifying a first signal from the first photodetector and a second amplifier (Q1-B) for amplifying a second signal from the second photodetector, and wherein an amplification factor of the first amplifier (Q1-A) and an amplification factor of the second amplifier (Q1-B) are independent of each other. a light source that emits light; an output circuit including first and second photodetectors (36, 38); a first receive lens positioned adjacent to the first photodetector; a second receive lens positioned adjacent to the second photodetector; a support structure for supporting each of the light source, the photodetectors (36, 38), and the receive lenses (74, 76) in relation to one another; wherein in case the target is at the predetermined location, the first photodector is adapted to receive a first portion of light which has been emitted by the light souce, reflected off the target and passed through the first receive lens, and the second photodetector is adapted to receive a second portion of light which has been emitted by the light source, reflected off the target and passed through the second receive lens; and wherein the output circuit produces an output signal indicative of a sensed characteristic of the target based on signals generated by the first and the second photodetectors (35, 38) in response to the portions of light received by the photodetectors (36, 38); wherein the output circuit includes a first amplifier (Q1-A) for amplifying a first signal from the first photodetector and a second amplifier (Q1-B) for amplifying a second signal from the second photodetector, and wherein an amplification factor of the first amplifier (Q1-A) and an amplification factor of the second amplifier (Q1-B) are independent of each other.
An electrochromic device comprising: a substrate; and at least one active layer configured to reversibly exhibit a transparent state upon hydrogenation and a reflective state upon dehydrogenation; wherein the active layer comprises a metal alloy; and characterised in that the active layer comprises a catalyst homogeneously dispersed in the active layer to facilitate a rate of reversible conversion between the transparent state and the reflective state; wherein the catalyst is provided to facilitate bonding or cleavage between the metal alloy and hydrogen contained in the at least one active layer. a substrate; and at least one active layer configured to reversibly exhibit a transparent state upon hydrogenation and a reflective state upon dehydrogenation; wherein the active layer comprises a metal alloy; and characterised in that the active layer comprises a catalyst homogeneously dispersed in the active layer to facilitate a rate of reversible conversion between the transparent state and the reflective state; wherein the catalyst is provided to facilitate bonding or cleavage between the metal alloy and hydrogen contained in the at least one active layer.
An assembly comprising an openable aperture closure member, a main frame defining an aperture, a compressible gasket disposed between the closure member and the main frame wherein each of the aperture closure member and the main frame includes a respective portion (50,54) of a magnetic means for securing said closure member to the frame in a closed position, wherein said magnetic means for securing includes a magnetic field in both portions (50,54), one of the portions being disposed on the main frame and one of the portions being disposed on the openable closure member and thus being adapted to be movable by an operator with the openable closure member alternately into a magnetically attractive closure position and a magnetically unattractive opening position, the gasket being at least partially compressed when the closure member is secured to the aperture, and the attractive force between the portions (50, 54) exceeds the repulsion force of the gasket at all stages of compression of the gasket and a leverage mechanism for overcoming the attractive magnetic force between the portions (50,54) when moving the closure member away from the closed position, the leverage mechanism including a handle bar operatively connected to a rotable cam and roller.
A cylindrical tank for the thermal treatment of a food product, of the type comprising heating and/or cooling means of said food product, in addition to a mixer housed so as to be axially revolving in its interior pushing, in an operation condition, said food product towards a front area of the cylinder, the latter being arranged horizontally, the mentioned tank consisting of a cylindrical mantle closed by a rear bottom and a front cover positioned in said front area of the cylinder, said front cover being a discharge section of the cylinder, there also being means (15, 16) for feeding the mentioned product inside the tank,including - at least one front sensor of the temperature of the mentioned food product, contained inside the tank, said front sensor being arranged in correspondence with the mentioned front cover - a rear temperature sensor situated on the rear wall of the same tank characterized in that said front sensor is housed in a seat of said cover, with a sensitive part which, when the cover is closed, is exposed to contact with the product contained in the tank, said seat for the front sensor being provided in any point belonging to the lower half-portion of said cover. - at least one front sensor of the temperature of the mentioned food product, contained inside the tank, said front sensor being arranged in correspondence with the mentioned front cover - a rear temperature sensor situated on the rear wall of the same tank
Wind or water energy installation for production of electrical energy having at least one propeller and at least one generator, which comprises at least one rotor, at least one stator and at least one magnetic circuit producing a magnetic flux, wherein - the at least one magnetic circuit comprises at least one stator-side magnet (130, 131, 132) and at least one stator-side coil (140, 141, 142) through which at least a portion of the magnetic flux of the stator-side magnet flows, and the magnetic circuit is closed by the rotor and, - on its surface facing the stator, the rotor has a magnetic reluctance (Rm), which is dependent on its respective rotation angle, such that the magnitude of the magnetic flux in the at least one stator-side coil is dependent on the respective rotation angle of the rotor, and varies during rotation of the rotor, - a stator-side section of the at least one magnetic circuit has a flux-guiding stator-side element with a curved area and two limbs which are connected by the curved area, and - a limb of the flux-guiding stator-side element is passed through the at least one stator-side coil, characterized in that - the stator-side magnet is arranged in the curved area between the two limbs, and - the cross-sectional area of the flux-guiding element in the coil area is less than the cross-sectional area of the limb ends (200, 210), which form the interface to the rotor. - the at least one magnetic circuit comprises at least one stator-side magnet (130, 131, 132) and at least one stator-side coil (140, 141, 142) through which at least a portion of the magnetic flux of the stator-side magnet flows, and the magnetic circuit is closed by the rotor and, - on its surface facing the stator, the rotor has a magnetic reluctance (Rm), which is dependent on its respective rotation angle, such that the magnitude of the magnetic flux in the at least one stator-side coil is dependent on the respective rotation angle of the rotor, and varies during rotation of the rotor, - a stator-side section of the at least one magnetic circuit has a flux-guiding stator-side element with a curved area and two limbs which are connected by the curved area, and - a limb of the flux-guiding stator-side element is passed through the at least one stator-side coil, - the stator-side magnet is arranged in the curved area between the two limbs, and - the cross-sectional area of the flux-guiding element in the coil area is less than the cross-sectional area of the limb ends (200, 210), which form the interface to the rotor.
A friction element comprising a metallic base body which exhibits a plurality of surfaces (11, 12), wherein at least one of the surfaces (11, 12) is salt-bath-hardened at least in part in a salt bath which contains at least one salt of an inorganic acid, wherein the salt-bath-hardened surface (11, 12) is at least partially oxidized, wherein a plurality of different oxides are formed on the surface (11, 12) in discrete, at least partially crater-shaped regions in each case, characterized in that the crater-shaped regions have a maximum diameter in plan view which is selected from a region with a lower limit of 50 μm and an upper limit of 300 μm and that the salt-bath-hardened surface (11, 12) exhibits salt residues from the salt bath.