mhurhangee/patent-ind-claim-en huggingface dataset:
A ceiling unit comprising: a first side beam supported by at least one of a plurality of upright columns erected on a floor plate of an elevator car; a second side beam supported parallel to the first side beam by a different upright column , among the plurality of upright columns , from the upright column supporting the first side beam ; a rear beam that connects respective rear side end portions of the first and second side beams ; and a ceiling plate supported by the first and second side beams and the rear beam ,wherein the first and second side beams respectively include contact surfaces that contact a lower surface of the ceiling plate , and the ceiling unit further comprises: a front beam disposed above the respective contact surfaces spaced apart from the respective contact surfaces so as to connect respective front side end portions of the first and second side beams ; characterized by an upper beam disposed above the respective contact surfaces spaced apart from the respective contact surfaces so as to connect respective central portions of the first and second side beams . a first side beam supported by at least one of a plurality of upright columns erected on a floor plate of an elevator car; a second side beam supported parallel to the first side beam by a different upright column , among the plurality of upright columns , from the upright column supporting the first side beam ; a rear beam that connects respective rear side end portions of the first and second side beams ; and a ceiling plate supported by the first and second side beams and the rear beam ,wherein the first and second side beams respectively include contact surfaces that contact a lower surface of the ceiling plate , and the ceiling unit further comprises: a front beam disposed above the respective contact surfaces spaced apart from the respective contact surfaces so as to connect respective front side end portions of the first and second side beams ; characterized by an upper beam disposed above the respective contact surfaces spaced apart from the respective contact surfaces so as to connect respective central portions of the first and second side beams . a front beam disposed above the respective contact surfaces spaced apart from the respective contact surfaces so as to connect respective front side end portions of the first and second side beams ; characterized by an upper beam disposed above the respective contact surfaces spaced apart from the respective contact surfaces so as to connect respective central portions of the first and second side beams .
A method performed by one or more processors in a vehicle electronic control system, the method comprising: maintaining a timing model of an expected behavior of data communications over an in-vehicle communication network, wherein the timing model includes, for one or more message IDs in a set of message IDs, an indication of expected time interval between messages; receiving a first message sent over the in-vehicle communication network; receiving a second message sent over the in-vehicle communication network, wherein the first and second messages include the same message ID value; determining based on the timing model and based on timing attributes of the first and second messages, whether or not at least one of the first and second messages complies with the timing model, wherein the timing attributes include a time interval between the first and second messages; and if at least one of the first and second message does not comply with the timing model then performing, by the one or more processors, at least one response action related to at least one of the first and second message to protect the in-vehicle communication network from possible damage by an anomalous message. maintaining a timing model of an expected behavior of data communications over an in-vehicle communication network, wherein the timing model includes, for one or more message IDs in a set of message IDs, an indication of expected time interval between messages; receiving a first message sent over the in-vehicle communication network; receiving a second message sent over the in-vehicle communication network, wherein the first and second messages include the same message ID value; determining based on the timing model and based on timing attributes of the first and second messages, whether or not at least one of the first and second messages complies with the timing model, wherein the timing attributes include a time interval between the first and second messages; and if at least one of the first and second message does not comply with the timing model then performing, by the one or more processors, at least one response action related to at least one of the first and second message to protect the in-vehicle communication network from possible damage by an anomalous message.
A method of making a spray gun reservoir component (54; 260) including a liquid outlet (64; 272) surrounding a longitudinal axis (A), an outer face extending away from the liquid outlet (64; 272), a centerline plane (CP) including the longitudinal axis (A), and an attachment plane (AP) defined orthogonally to the longitudinal axis (A) and the centerline plane (CP), the outer face comprising a retention feature (140a, 140b; 340a, 340b) extending away from the centerline plane (CP) and generally parallel to the attachment plane (AP), the method comprising: providing plastic injection molding tooling including first and second tooling components collectively defining a cavity having a shape of the spray gun reservoir component (54; 260); injecting molten plastic into the cavity to form the spray gun reservoir component (54; 260); and sliding the first and second tooling components relative to one another to separate the first and second tooling components and release the spray gun reservoir component (54; 260); wherein the step of sliding includes manipulating the first and second tooling components along a slide tool path that is aligned with the retention feature (140a, 140b; 340a, 340b). providing plastic injection molding tooling including first and second tooling components collectively defining a cavity having a shape of the spray gun reservoir component (54; 260); injecting molten plastic into the cavity to form the spray gun reservoir component (54; 260); and sliding the first and second tooling components relative to one another to separate the first and second tooling components and release the spray gun reservoir component (54; 260); wherein the step of sliding includes manipulating the first and second tooling components along a slide tool path that is aligned with the retention feature (140a, 140b; 340a, 340b).
A method for manufacturing a part including a formation of successive metallic layers (20 1 ,....20 n ), superimposed on one another, each layer being formed by the deposition of a filler metal , the filler metal being subjected to an energy supply so as to melt and constitute, when solidifying, said layer, the method being characterized in that the filler metal is an aluminum alloy including the following alloy elements, in weight percents: - Mg: 0 % - 6 %; - Zr: 0.7 % - 2.5 %, preferably according to a first variant > 1 % and ≤ 2.5 %; or preferably according to a second variant 0,7 - 2 %; and possibly 0.7 - 1.6 %; and possibly 0.7 - 1.4 %; and possibly 0.8 - 1.4 %; and possibly 0.8 - 1.2 %; - at least one alloy element selected from Fe, Cu, Mn, Ni and/or La: at least 0.1 %, preferably at least 0.25 %, more preferably at least 0.5 % per element; - optionally at least one other alloy element, selected from Si, Hf, V, Cr, Ta, Nb, W, Ti, Y, Yb, Ce, Co, Mo, Nd and/or Er, the content of the other alloy element or of each other alloy element being from 0.05 to 5 %; - optionally other elements selected from Sr, Ba, Sb, Bi, Ca, P, B, In, Sn, according to a weight fraction lower than or equal to 1 % for each element, and preferably according to a total weight fraction lower than 2%, - optionally other elements such as: ∘ Ag, according to a weight fraction from 0.06 to 1 %; ∘ and/or Li, according to a weight fraction from 0.06 to 2 %; ∘ and/or Zn, according to a weight fraction from 0.05 to 5%; - impurities: < 0.05% individually, and preferably < 0.15 % all in all; - rest aluminum. - Mg: 0 % - 6 %; - Zr: 0.7 % - 2.5 %, preferably according to a first variant > 1 % and ≤ 2.5 %; or preferably according to a second variant 0,7 - 2 %; and possibly 0.7 - 1.6 %; and possibly 0.7 - 1.4 %; and possibly 0.8 - 1.4 %; and possibly 0.8 - 1.2 %; - at least one alloy element selected from Fe, Cu, Mn, Ni and/or La: at least 0.1 %, preferably at least 0.25 %, more preferably at least 0.5 % per element; - optionally at least one other alloy element, selected from Si, Hf, V, Cr, Ta, Nb, W, Ti, Y, Yb, Ce, Co, Mo, Nd and/or Er, the content of the other alloy element or of each other alloy element being from 0.05 to 5 %; - optionally other elements selected from Sr, Ba, Sb, Bi, Ca, P, B, In, Sn, according to a weight fraction lower than or equal to 1 % for each element, and preferably according to a total weight fraction lower than 2%, - optionally other elements such as: ∘ Ag, according to a weight fraction from 0.06 to 1 %; ∘ and/or Li, according to a weight fraction from 0.06 to 2 %; ∘ and/or Zn, according to a weight fraction from 0.05 to 5%; ∘ Ag, according to a weight fraction from 0.06 to 1 %; ∘ and/or Li, according to a weight fraction from 0.06 to 2 %; ∘ and/or Zn, according to a weight fraction from 0.05 to 5%; - impurities: < 0.05% individually, and preferably < 0.15 % all in all; - rest aluminum.
A method of making an X-ray detector, comprising: providing a main frame for supporting a detector stack comprising detector layers, wherein the main frame comprises a detachable protruding edge portion, wherein the protruding edge portion is removably attached to the main frame by fasteners and wherein the fasteners are screws; bonding the detector layers onto the main frame leaving the protruding edge portion extending beyond an edge of the detector layers; detaching the protruding edge portion of the main frame along a detachment line adjacent the edge of the detector layers; and applying a cover with a thin edge wall to the detector stack. providing a main frame for supporting a detector stack comprising detector layers, wherein the main frame comprises a detachable protruding edge portion, wherein the protruding edge portion is removably attached to the main frame by fasteners and wherein the fasteners are screws; bonding the detector layers onto the main frame leaving the protruding edge portion extending beyond an edge of the detector layers; detaching the protruding edge portion of the main frame along a detachment line adjacent the edge of the detector layers; and applying a cover with a thin edge wall to the detector stack.
An apparatus for processing aggregate material comprising a chassis , a trough mounted on the chassis at an inclined angle, at least one shaft rotatably mounted within the trough and extending from a lower to an upper end of the trough, said at least one shaft having blades mounted thereon, wherein the blades are angled so that they carry material within the trough towards an upper end of the trough when the at least one shaft is in a normal direction of rotation, a discharge opening being provided in a base of the trough adjacent said upper end of the trough, a weir being provided in the trough upstream of said discharge opening over which processed material must pass to reach said discharge opening, wherein the weir extends transversely across the width of the trough , characterised by said weir being adapted to be adjusted in height by adjusting the angle of the weir with respect to the base of the trough.
A safety system of an elevator system comprising: a safety chain including a plurality of safety sensors ; and a testing arrangement for testing the operability of at least one of the safety sensors connected to the safety chain , the testing arrangement comprising: at least one test circuit for testing the operability of the at least one safety sensor ; and at least one testing relay being switchable between an operational position and a test position and which is configured for electrically connecting the safety sensors to the safety chain in the operational position and for electrically connecting the safety sensors to the test circuit in the test position; characterized in that the plurality of safety sensors are connected to the test circuit in parallel when the at least one testing relay switched to its test position. at least one test circuit for testing the operability of the at least one safety sensor ; and at least one testing relay being switchable between an operational position and a test position and which is configured for electrically connecting the safety sensors to the safety chain in the operational position and for electrically connecting the safety sensors to the test circuit in the test position; characterized in that the plurality of safety sensors are connected to the test circuit in parallel when the at least one testing relay switched to its test position.
De-ashing grate system for a furnace of a combustion or gasification installation supplied with solid fuel, said gate system comprising a lower circular plate (P1) of diameter D1 and surface area S1 mounted so as to rotate through 360° on a vertical rotation axis (A), and furthermore comprising at least one upper plate (P2, P3, P4), superimposed on said lower plate (P1), and mounted so as to rotate through 360° on the vertical rotation axis (A), said at least one upper plate (P2, P3, P4) having a surface area S2 smaller than the surface area S1 of the lower plate (P1) and a maximum dimension of no more than the diameter D1 of this lower plate (P1), said plates (P1, P2, P3, P4) being movable, the centre of gravity of said plates (P1, P2, P3, P4) being on the vertical rotation axis (A), characterised in that the upper plate or plates (P2, P3, P4) have a shape different from the circular shape and a largest dimension substantially equal to the smallest dimension of the plate on which they are superimposed, the lower (P1) and upper (P2, P3, P4) plates being adapted not to turn at the same speed.
A camera configured for recording at least one three-dimensional image of at least one object , comprising: - at least one converging element , wherein the converging element is adapted to converge a light beam passing through the converging element to travel along a beam path to be received by at least one optical sensor ; - at least one first aperture element having a first adjustable area , wherein the first aperture element is located in the beam path between the converging element and the optical sensor ; - at least one second aperture element having a second adjustable area , wherein the second aperture element is located in the beam path between the first aperture element and the optical sensor ; - the at least one optical sensor being adapted for receiving the light beam , wherein the optical sensor is further adapted to generate at least one first picture in a first setting comprising the first aperture area exceeding the second aperture area and to generate at least one second picture in a second setting comprising the second aperture area exceeding the first aperture area ; and - at least one evaluation device designed to generate at least one three-dimensional image of the at least one object by comparing the at least one first picture and the at least one second picture, wherein the evaluation device is adapted to combine first information comprised within the at least one first picture and second information comprised within the at least one second picture in order to generate the at least one three-dimensional image of the at least one object . - at least one converging element , wherein the converging element is adapted to converge a light beam passing through the converging element to travel along a beam path to be received by at least one optical sensor ; - at least one first aperture element having a first adjustable area , wherein the first aperture element is located in the beam path between the converging element and the optical sensor ; - at least one second aperture element having a second adjustable area , wherein the second aperture element is located in the beam path between the first aperture element and the optical sensor ; - the at least one optical sensor being adapted for receiving the light beam , wherein the optical sensor is further adapted to generate at least one first picture in a first setting comprising the first aperture area exceeding the second aperture area and to generate at least one second picture in a second setting comprising the second aperture area exceeding the first aperture area ; and - at least one evaluation device designed to generate at least one three-dimensional image of the at least one object by comparing the at least one first picture and the at least one second picture, wherein the evaluation device is adapted to combine first information comprised within the at least one first picture and second information comprised within the at least one second picture in order to generate the at least one three-dimensional image of the at least one object .
Copolymer based on amide units and based on ether units, the amide units consisting, in a proportion of more than 50% by weight, of an equimolar combination of at least one diamine and of at least one dicarboxylic acid, the diamine(s) being, in a proportion of more than 50% by weight, cycloaliphatic diamine(s) and the dicarboxylic acid(s) being, in a proportion of more than 50% by weight, linear aliphatic dicarboxylic acid(s), it being possible for the amide units to optionally comprise, but in a proportion of less than 50% by weight, at least one other polyamide comonomer, the cycloaliphatic diamine(s) being chosen from bis(3-methyl-4-aminocyclohexyl)methane (BMACM), 2,2-bis(3-methyl-4-aminocyclohexyl)propane (BMACP) or 2,6-bis(aminomethyl)norbornane (BAMN), the respective proportions of monomers of the ether and amide units being chosen so that: - the said copolymer exhibits a high transparency which is such that the transmission at 560 nm through a sheet with a thickness of 2 mm is greater than 75%; - the said copolymer is amorphous and exhibits a crystallinity such that the enthalpy of fusion during the second heating of an ISO DSC (delta Hm ) is at most equal to 30 J/g, the weight being with respect to the amount of amide units present or of polyamide present, this melting corresponding to that of the amide units; - the said copolymer has a glass transition temperature at least equal to 75°C by DSC (Differential Scanning Calorimetry) and ISO 11357. the cycloaliphatic diamine(s) being chosen from bis(3-methyl-4-aminocyclohexyl)methane (BMACM), 2,2-bis(3-methyl-4-aminocyclohexyl)propane (BMACP) or 2,6-bis(aminomethyl)norbornane (BAMN), the respective proportions of monomers of the ether and amide units being chosen so that: - the said copolymer exhibits a high transparency which is such that the transmission at 560 nm through a sheet with a thickness of 2 mm is greater than 75%; - the said copolymer is amorphous and exhibits a crystallinity such that the enthalpy of fusion during the second heating of an ISO DSC (delta Hm ) is at most equal to 30 J/g, the weight being with respect to the amount of amide units present or of polyamide present, this melting corresponding to that of the amide units; - the said copolymer has a glass transition temperature at least equal to 75°C by DSC (Differential Scanning Calorimetry) and ISO 11357. - the said copolymer exhibits a high transparency which is such that the transmission at 560 nm through a sheet with a thickness of 2 mm is greater than 75%; - the said copolymer is amorphous and exhibits a crystallinity such that the enthalpy of fusion during the second heating of an ISO DSC (delta Hm ) is at most equal to 30 J/g, the weight being with respect to the amount of amide units present or of polyamide present, this melting corresponding to that of the amide units; - the said copolymer has a glass transition temperature at least equal to 75°C by DSC (Differential Scanning Calorimetry) and ISO 11357.
Water-bearing domestic appliance, in particular dishwasher, with a liquid storage container, in particular a storage container in which it is possible to store washing liquor temporarily, wherein there is at least one flow control element arranged in the liquid chamber of the storage container to divert and/or to split the washing liquor flowing into the storage container or being discharged from it, characterised in that the flow control element is punctuated with cut-outs at least in part.
Functional block for a mixing installation for metering a liquid component, particularly for producing polyurethane, comprising the following: - an inlet for the feed of the component, - an outlet for the conveying out of the component, - a metering pump for the conveying of the component from the inlet and for the pressure increase of the component, - a drive for the metering pump , and - a coupling for the connection between the metering pump and the drive , characterised in that the functional block is constructed as an integral unit in that the components of the functional block are connected by a common housing to form an integral unit, and the fluid feed of the component between the inlet and the outlet is conducted completely within the functional block, wherein the functional block has an axis on which the metering pump , the coupling and the drive are arranged in alignment, wherein the functional block comprises a filter unit which is arranged in alignment on the axis of the functional block and has fluid connection into a flow path between the inlet and the metering pump . - an inlet for the feed of the component, - an outlet for the conveying out of the component, - a metering pump for the conveying of the component from the inlet and for the pressure increase of the component, - a drive for the metering pump , and - a coupling for the connection between the metering pump and the drive ,
A reference interferometer for determining an optical path length change, in particular a relative optical path length change in interferometer arms , comprising a beam splitter and a laser light source , characterised in that the reference interferometer is designed such that a light beam of the laser light source is guided by means of total internal reflection via an upper side and a lower side of the beam splitter , wherein at least the upper side and/or the lower side of the beam splitter are at least partially provided with a coating in order to achieve a phase shift between xand y-polarised light of the light beam via the selected refractive index and the thickness of the coating.