mhurhangee/ep-ind-claims huggingface dataset:
A gravity bending mould (1, 101,201) for bending glass sheets comprising: a final mould having a final peripheral shaping rim and an intermediate mould having an intermediate peripheral shaping rim; the final mould comprising a final movable mould section (19, 119) mounted at an end of the gravity bending mould, the final movable mould section having an upper shaping surface (21, 121); characterised in that the intermediate mould comprises an intermediate movable mould section (11, 111, 211) mounted at the end of the gravity bending mould adjacent to the final movable section, the intermediate movable mould section having an upper shaping surface (13, 113); wherein the gravity bending mould is movable between a first arrangement, wherein the intermediate mould is closed and the upper shaping surface of the intermediate movable mould section is higher than the upper shaping surface of the final movable mould section and the final movable mould section is in an operable position; and a second arrangement, wherein the final mould is closed and the upper shaping surface of the intermediate movable mould section is lower than the upper shaping surface of the final movable mould section and the intermediate movable mould section is in an operable position, wherein an operable position is a position wherein a movable mould section is movable between an open position and a closed position; and wherein, the final movable mould section is connected via a mechanical linkage (37, 137, 237) to the intermediate mould such that upon moving one of the intermediate mould and the final mould vertically with respect to the other, and at the same time at least one of the intermediate mould and the final mould moves with respect to the mechanical linkage, the gravity bending mould is caused to move between the first arrangement and the second arrangement.
Container for spherical products, particularly fruit, that is designed for storing pieces with a near-spherical configuration, wherein it is comprised of a rectangular laminar body made of cardboard, paper or paperboard defining a main central sector, as well as two lateral sectors that are defined by respective longitudinal folding lines, with the main sector comprising a closing tab on one of the ends thereof in order to roll said sector on the pieces of fruit contained therein and to fix it to the opposite end thereof, with the lateral sectors comprising adhesive areas in order to fix the ends thereof to the central sector, wherein the container comprises die cut and/or perforation lines for opening the closed container, characterised in that the lateral sectors comprise arched folding lines determining lateral retention walls for the fruits contained therein when the container is unfolded.
A method for controlling data transmission, the method being applied to a first device, and the method comprising: sending a request for data transmission; receiving a main transmission path that fed back by a second device based on the request, the main transmission path being generated by connecting M sink nodes between the first device and the second device and M being an integer greater than 1, the M sink nodes being in a transmission path with a maximum performance evaluation value, that is determined from N transmission paths between the first device and the second device according to a performance evaluation value of each transmission path and N is an integer greater than 1, and the performance evaluation value of each transmission path being determined by performing a weighting average operation on performance parameters of each of a plurality of sink nodes in the transmission path and a weight value corresponding to each of the performance parameters; wherein the performance parameters comprise at least one of: a data receiving and sending frequency, a packet loss rate, an uplink data transmission rate, a downlink data transmission rate, a bearing bandwidth, the number of access users, or the number of antennas; and performing the data transmission with the second device according to the main transmission path. sending a request for data transmission; receiving a main transmission path that fed back by a second device based on the request, the main transmission path being generated by connecting M sink nodes between the first device and the second device and M being an integer greater than 1, the M sink nodes being in a transmission path with a maximum performance evaluation value, that is determined from N transmission paths between the first device and the second device according to a performance evaluation value of each transmission path and N is an integer greater than 1, and the performance evaluation value of each transmission path being determined by performing a weighting average operation on performance parameters of each of a plurality of sink nodes in the transmission path and a weight value corresponding to each of the performance parameters; wherein the performance parameters comprise at least one of: a data receiving and sending frequency, a packet loss rate, an uplink data transmission rate, a downlink data transmission rate, a bearing bandwidth, the number of access users, or the number of antennas; and performing the data transmission with the second device according to the main transmission path.
Device for separating textile fibres from a mass comprising textile fibres and fragments of rubber, originating from a previous shredding stage, that comprises a vibrating surface with [a] an inlet area where the mass enters and [b] an outlet area, where said mass travels along said vibrating surface from said inlet area to said outlet area, and, additionally, comprises, in said outlet area, some air blowing means arranged under said vibrating surface suitable for driving the fibres upwards against the force of gravity, and an extractor hood with some air suction means on the vibrating surface, opposite said air blowing means, characterised in that said extractor hood has a section with an increasing cross section, in the direction of flow of air produced by the suction means.
Use of a multi-component composition, comprising an isocyanate component and an amine component, where the isocyanate component comprises a prepolymer obtainable from tolylene diisocyanate and from a polytetramethylene polyol, and the amine component comprises a dialkylthioaryldiamine, preferably a dialkylthiotolylenediamine, and optionally a polytetramethylene oxide polyamine, for foundry model construction, and specifically as casting resin or surface resin.
A compound selected from the compounds of the formulae U-1 to U-9 and U-11 to U-20 in which L 1, L 2 identically or differently, denote H, F, Cl, methyl, ethyl, n-propyl, isopropyl, cyclopropyl, cyclobutyl, cyclopentyl or cyclopentenyl, and R U denotes H, alkyl or alkoxy having 1 to 12 C atoms, X 1, X 2 identically or differently, denote H, Cl, F, CH 3 or C 2 H 5, Y 1, Y 2 independently denote H or F, and Y 3 and Y 4 denote H. L 1, L 2 identically or differently, denote H, F, Cl, methyl, ethyl, n-propyl, isopropyl, cyclopropyl, cyclobutyl, cyclopentyl or cyclopentenyl, and R U denotes H, alkyl or alkoxy having 1 to 12 C atoms, X 1, X 2 identically or differently, denote H, Cl, F, CH 3 or C 2 H 5, Y 1, Y 2 independently denote H or F, and Y 3 and Y 4 denote H.
A method for analysing on a computer, the plastic deformation process of a rotary formed body in rotary metal forming, the method comprising a numerical-simulation method for modeling a rotary formed body, the numerical simulation method which: divides into a plurality of finite elements a predetermined model zone between two imaginary cutting planes (31A, 31B) intersecting with a circumferential direction in a rotary formed body rotated about an axis of rotation; expresses velocity boundary conditions of said imaginary cutting planes for said model zone by a function where angular velocity (ω) for rotation about said axis of rotation of said rotary body is made a variable; and analyses by a finite element method a forming process which continuously produces plastic deformation by localized contact with said rotary formed body, using the analysis in a process design of a metal working process. divides into a plurality of finite elements a predetermined model zone between two imaginary cutting planes (31A, 31B) intersecting with a circumferential direction in a rotary formed body rotated about an axis of rotation; expresses velocity boundary conditions of said imaginary cutting planes for said model zone by a function where angular velocity (ω) for rotation about said axis of rotation of said rotary body is made a variable; and analyses by a finite element method a forming process which continuously produces plastic deformation by localized contact with said rotary formed body, using the analysis in a process design of a metal working process.
A flow cell comprising (a) a transparent top window; (b) a transparent bottom window; (c) at least one channel between the transparent top window and the transparent bottom window; characterized in that the flow cell further comprises (d) a spacer material between the transparent top window and the transparent bottom window, wherein a surface of the spacer material that faces the top window or the bottom window comprises a solid polymer material, wherein the solid polymer material comprises a spatial pattern of luminescent features that form a code carrying information indicating at least one characteristic of at least one manipulation carried out on the flow cell. (a) a transparent top window; (b) a transparent bottom window; (c) at least one channel between the transparent top window and the transparent bottom window; characterized in that the flow cell further comprises (d) a spacer material between the transparent top window and the transparent bottom window, wherein a surface of the spacer material that faces the top window or the bottom window comprises a solid polymer material, wherein the solid polymer material comprises a spatial pattern of luminescent features that form a code carrying information indicating at least one characteristic of at least one manipulation carried out on the flow cell.
A method of manufacturing a resin stamper, comprising the steps of: punching a resin base material which is a composite material including at least one curable resin layer, wherein the base material is punched so that a circular punched portion is formed inside a pattern portion to be formed by using a cutter member which includes an outer circumferential cutter portion having an outer circumferential cutter blade and an inner circumferential cutter portion having an inner circumferential cutter blade that is provided inside of the outer circumferential cutter portion, and, after the base material has been punched, a step of using the punched portion to align a mother stamper having a pattern formed on the surface thereof with the composite base material, and pressing the composite base material against the mother stamper by compression molding to transfer the pattern of the mother stamper to the surface of the composite base material, and a step of curing a portion of the composite base material by radiating active energy beams to the composite base material or heating the composite base material. punching a resin base material which is a composite material including at least one curable resin layer, wherein the base material is punched so that a circular punched portion is formed inside a pattern portion to be formed by using a cutter member which includes an outer circumferential cutter portion having an outer circumferential cutter blade and an inner circumferential cutter portion having an inner circumferential cutter blade that is provided inside of the outer circumferential cutter portion, and, after the base material has been punched, a step of using the punched portion to align a mother stamper having a pattern formed on the surface thereof with the composite base material, and pressing the composite base material against the mother stamper by compression molding to transfer the pattern of the mother stamper to the surface of the composite base material, and a step of curing a portion of the composite base material by radiating active energy beams to the composite base material or heating the composite base material.
Motor-pump unit for a high-pressure cleaning appliance with an electric motor having a motor housing, on the outside of which a cooling channel is arranged, and with a pump driven by the electric motor and having a suction inlet for taking in liquid to be pressurized and a pressure outlet for discharging pressurized liquid, wherein liquid to be pressurized can be fed by way of the cooling channel to the suction inlet, and wherein the motor housing comprises a first housing part and a second housing part (38, 40), which are connectable to each other in a liquid-tight manner and between them form the cooling channel, characterized in that the first housing part and the second housing part form between them a drainage channel which has at least one outlet opening and is arranged between the cooling channel and the electric motor.
A gel polymer electrolyte comprising a cross-linked polymer having a thiol-ene structure, wherein the thiol-ene structure is formed by a click reaction of a thiol group of a thiol compound containing at least four reactive thiol groups per molecule and an acrylic group of a fluorinated polyether diacrylate.
Method of marking a holographic matrix, comprising: - a step of forming the holographic matrix, configured to produce holograms by printing; - a step of forming on said holographic matrix at least one anti-copy zone, containing redundancies; and - a step of forming at least one copy-robust zone on said holographic matrix, at least one of the steps of forming at least one zone on said holographic matrix utilizing laser surface structuring of the holographic matrix, the method being characterized in that it comprises, after said step of forming said anti-copy zone, and before said step of forming said copy-robust zone: - a step of capturing an image of a portion of the surface of the holographic matrix in said anti-copy zone, followed by a step of processing the image obtained by said image capture to extract an error rate therefrom for each anti-copy zone; - a step, for each said robust zone surrounding a said anti-copy zone, of encrypting a first message by using the result obtained, for this said anti-copy zone, during said image capture step, the encryption result being used subsequently for said formation of said robust zone. - a step of forming the holographic matrix, configured to produce holograms by printing; - a step of forming on said holographic matrix at least one anti-copy zone, containing redundancies; and - a step of forming at least one copy-robust zone on said holographic matrix, at least one of the steps of forming at least one zone on said holographic matrix utilizing laser surface structuring of the holographic matrix, the method being characterized in that it comprises, after said step of forming said anti-copy zone, and before said step of forming said copy-robust zone: - a step of capturing an image of a portion of the surface of the holographic matrix in said anti-copy zone, followed by a step of processing the image obtained by said image capture to extract an error rate therefrom for each anti-copy zone; - a step, for each said robust zone surrounding a said anti-copy zone, of encrypting a first message by using the result obtained, for this said anti-copy zone, during said image capture step, the encryption result being used subsequently for said formation of said robust zone.
A positioning device for a system for positioning a first object in relation to a second object in a XY-reference system, the positioning device comprising: a first XY-reference means configured to be fixed to the first object, and a second XY-reference means configured to be fixed to the second object; wherein the first XY-reference means comprises a spring arrangement configured to abut against the second XY-reference means in operation for positioning the first object in relation to the second object in XY-directions, wherein the spring arrangement comprises at least one first spring portion serially coupled to at least one second spring portion, and wherein the first spring portion is configured to deflect in a positive Z-direction (+Z) in operation and the second spring portion is configured to deflect in a negative Z-direction (-Z) in operation to compensating for the deflection of the first spring portion in the positive Z-direction, the positioning device characterized in that the spring arrangement further comprises a spring coupling portion configured to serially couple the first spring portion and the second spring portion. a first XY-reference means configured to be fixed to the first object, and a second XY-reference means configured to be fixed to the second object; wherein the first XY-reference means comprises a spring arrangement configured to abut against the second XY-reference means in operation for positioning the first object in relation to the second object in XY-directions, wherein the spring arrangement comprises at least one first spring portion serially coupled to at least one second spring portion, and wherein the first spring portion is configured to deflect in a positive Z-direction (+Z) in operation and the second spring portion is configured to deflect in a negative Z-direction (-Z) in operation to compensating for the deflection of the first spring portion in the positive Z-direction, the positioning device characterized in that the spring arrangement further comprises a spring coupling portion configured to serially couple the first spring portion and the second spring portion.
Electric unit for a pumped-storage power plant, connectable to an electric grid and comprising a machine hall having a rotating electric synchronous machine, and comprising a frequency converter, wherein the machine is connectable to a water turbine and/or a water pump, wherein the converter has a machine-side electrical element and a grid-side electrical element, which elements (6, 7) are connected to one another, and wherein in each case one element (6, 7) is operable as a rectifier and one element is operable as an inverter, depending on the operation of the machine, characterized in that the machine-side element is provided within the machine hall and is connected to a stator of the machine, and in that the grid-side element is provided outside the machine hall and is connected to the machine-side element via a DC link.
A rock claw configured to be attached to and removed from a housing of a demolition hammer, said rock claw comprising: a first portion having a first distal end and a first proximal end; a second portion having a second distal end and a second proximal end, the first proximal end joining the second proximal end to form an elbow, the second distal end comprising a first leg spaced apart from a second leg, wherein the first proximal end is thicker than the first distal end and the second proximal end is thicker than the second distal end. a first portion having a first distal end and a first proximal end; a second portion having a second distal end and a second proximal end, the first proximal end joining the second proximal end to form an elbow, the second distal end comprising a first leg spaced apart from a second leg, wherein the first proximal end is thicker than the first distal end and the second proximal end is thicker than the second distal end.
A filler unit for filling a container with a beverage product comprising: a container filling valve, the filling valve including a shuttle movable between an open position corresponding to a first flow rate of beverage product through the filling valve, a closed position corresponding to no flow of beverage product through the filling valve, and a low flow setpoint position corresponding to a non-zero second flow rate of beverage product through the filling valve, wherein the second flow rate is less than the first flow rate; a first actuator forming part of an adjust low flow setpoint system and comprising a first chamber and a first barrier coupled to the shuttle, wherein the first barrier is movable to alternately increase a volume of the first chamber or to decrease the volume of the first chamber; a flow path from the first chamber; and a first control valve positioned in the flow path and having a blocked position in which fluid flow is blocked and an unblocked position in which fluid flow is unblocked, wherein the flow path connects the first chamber to a fluid reservoir, characterized in that the flow path includes a first branch comprising a flow restriction orifice and a second branch comprising a check valve configured to permit flow corresponding to increasing the volume of the first chamber and to block flow corresponding to decreasing the volume of the first chamber, and wherein the first control valve is located in the first branch. a container filling valve, the filling valve including a shuttle movable between an open position corresponding to a first flow rate of beverage product through the filling valve, a closed position corresponding to no flow of beverage product through the filling valve, and a low flow setpoint position corresponding to a non-zero second flow rate of beverage product through the filling valve, wherein the second flow rate is less than the first flow rate; a first actuator forming part of an adjust low flow setpoint system and comprising a first chamber and a first barrier coupled to the shuttle, wherein the first barrier is movable to alternately increase a volume of the first chamber or to decrease the volume of the first chamber; a flow path from the first chamber; and a first control valve positioned in the flow path and having a blocked position in which fluid flow is blocked and an unblocked position in which fluid flow is unblocked, wherein the flow path connects the first chamber to a fluid reservoir, characterized in that the flow path includes a first branch comprising a flow restriction orifice and a second branch comprising a check valve configured to permit flow corresponding to increasing the volume of the first chamber and to block flow corresponding to decreasing the volume of the first chamber, and wherein the first control valve is located in the first branch.
A method, comprising: placing leather between a first negative mold and a first positive mold; applying pressure in a first pressure application step to cause the first negative mold and the first positive mold to form an area of the leather; placing the area of the leather between a second negative mold and a second positive mold; and applying pressure in a second pressure application step to cause the second negative mold and second positive mold to further form the leather; characterized in that the first negative mold has a higher hardness than the first positive mold. placing leather between a first negative mold and a first positive mold; applying pressure in a first pressure application step to cause the first negative mold and the first positive mold to form an area of the leather; placing the area of the leather between a second negative mold and a second positive mold; and applying pressure in a second pressure application step to cause the second negative mold and second positive mold to further form the leather; characterized in that the first negative mold has a higher hardness than the first positive mold.