mhurhangee/ep-ind-claims huggingface dataset:
A vehicle glazing comprising: - a glass sheet or a glazed assembly, - a part made of plastic material partly covering the glass sheet or the glazed assembly, - at least one fixing system for an audio exciter mounted on the glass sheet or on the glazed assembly, comprising a base and an attachment part, the base of the fixing system being fixedly mounted to the part made of plastic material, and - at least one audio exciter fixed to the attachment part of the fixing system. - a glass sheet or a glazed assembly, - a part made of plastic material partly covering the glass sheet or the glazed assembly, - at least one fixing system for an audio exciter mounted on the glass sheet or on the glazed assembly, comprising a base and an attachment part, the base of the fixing system being fixedly mounted to the part made of plastic material, and - at least one audio exciter fixed to the attachment part of the fixing system.
A method for producing containers filled with a liquid filling material from preforms made of thermoplastic material, wherein the respective preform is thermally conditioned and, during a moulding and filling phase, subsequently moulded in a mould to form the container with at least a liquid filling material (21, 21.1) as pressure medium, wherein the preform, while being moulded to form the container, is preferably at least temporarily guided through a stretch forming bar (17, 17a, 17b) and stretched in the axial direction, wherein carbon dioxide is introduced or dissolved at least in a partial flow of the filling material (21, 21.1), characterised in that the filling material (21, 21.1) or fractions of the filling material (21, 21.1) are supplied at least at two points in time and/or in at least two process phases with different contents of carbon dioxide and/or at different temperatures, wherein a portion of the filling material is supplied past the stretch forming bar, and a portion of the filling material is supplied through the stretch forming bar.
A laminate, comprising: an acrylic elastomer layer of an acrylic elastomer composition containing an epoxy group-containing acrylic elastomer obtainable by copolymerizing alkyl (meth)acrylate ester and an epoxy group-containing crosslinkable monomer and at least one onium salt in an amount of 2 to 10 parts by weight with respect to 100 parts by weight of the epoxy group-containing acrylic elastomer: and a fluorine elastomer layer of a fluorine elastomer composition containing a polyol crosslinking agent, wherein the acrylic elastomer layer and the fluorine elastomer layer are bonded to each other. an acrylic elastomer layer of an acrylic elastomer composition containing an epoxy group-containing acrylic elastomer obtainable by copolymerizing alkyl (meth)acrylate ester and an epoxy group-containing crosslinkable monomer and at least one onium salt in an amount of 2 to 10 parts by weight with respect to 100 parts by weight of the epoxy group-containing acrylic elastomer: and a fluorine elastomer layer of a fluorine elastomer composition containing a polyol crosslinking agent, wherein the acrylic elastomer layer and the fluorine elastomer layer are bonded to each other.
A method for monitoring conditions of a child restraint system, said child restraint system comprising a belt assembly for restraining a child occupant within the child restraint system, said method comprising detecting a child occupant in the child restraint system; determining whether the belt assembly is properly adjusted for restraining the child occupant; determining whether the vehicle is in motion; and if the vehicle is in motion and the belt assembly is not properly adjusted, issuing an alert; wherein the belt assembly further comprises a vehicle seat belt, and wherein the child restraint system comprises a guide for properly positioning the vehicle seat belt, and further wherein the step of determining proper adjustment of the belt assembly is based upon detection of the vehicle seat belt within the guide.
A clipping device, comprising: a capsule (106, 206) including a longitudinal body (112, 212) and a cap (114, 214) mounted over a distal end (128, 228) thereof so that the cap (114, 214) is movable relative to the longitudinal body (112, 212) from a pre-deployed configuration to a deployed configuration in which the cap (114, 214), is moved proximally relative to the longitudinal body (112, 212) to reduce a length of the capsule (106, 206), a channel of the cap (114, 214) and a channel of the capsule (106, 206) being substantially aligned with respect to one another; and a pair of clip arms, at least proximal portions of which are received within the channels (142, 130) of the cap (114, 214) and the longitudinal body (112, 212) so that the clip arms are movable relative to the capsule (106, 206) between an open configuration, in which distal ends of the clip arms are separated from one another, and a closed configuration, in which the distal ends of the clip arms are drawn toward one another. a capsule (106, 206) including a longitudinal body (112, 212) and a cap (114, 214) mounted over a distal end (128, 228) thereof so that the cap (114, 214) is movable relative to the longitudinal body (112, 212) from a pre-deployed configuration to a deployed configuration in which the cap (114, 214), is moved proximally relative to the longitudinal body (112, 212) to reduce a length of the capsule (106, 206), a channel of the cap (114, 214) and a channel of the capsule (106, 206) being substantially aligned with respect to one another; and a pair of clip arms, at least proximal portions of which are received within the channels (142, 130) of the cap (114, 214) and the longitudinal body (112, 212) so that the clip arms are movable relative to the capsule (106, 206) between an open configuration, in which distal ends of the clip arms are separated from one another, and a closed configuration, in which the distal ends of the clip arms are drawn toward one another.
Method for setting a narrow-side conicity (K s) of a continuous casting mould for the production of a metal strand with the aid of at least one closed-loop control circuit, the continuous casting mould comprising a first narrow-side plate and a second narrow-side plate, - wherein a plurality of positionally controlled actuators (A 1,i), with i∈{1,...,N1}, for positioning the first narrow-side plate are arranged on the first narrow-side plate and a plurality of positionally controlled actuators (A 2,j), with j∈{1,...,N2}, for positioning the second narrow-side plate are arranged on the second narrow-side plate, in each case at a different distance from the charging-side end of the continuous casting mould, and - wherein, during the operation of the continuous casting mould, corresponding forces (F 1,i, F 2,j), with i∈{1,...,N1} and j∈{1,...,N2}, occur in the effective direction of each actuator (A 1,i, A 2,j), characterized in that, the cycle through the at least one closed-loop control circuit uses - a reference pressure (P ref) as a reference variable and - an average surface pressure (P med) between the narrow side plates (4, 4') and the metal strand as a controlled variable, wherein the average surface pressure (P med) is determined from the forces (F 1,i, F 2,j), and in that - a controller determines the narrow-side conicity (K s) as a manipulated variable of the closed-loop control circuit in dependence on a system deviation (P dif) = (P ref) - (P med) as an input variable and in that - a controlled system is used to set the position of the first and/or the second narrow-side plate (4, 4') in a way corresponding to the narrow-side conicity (K s) by means of the actuators (A 1,i, A 2,j). - wherein a plurality of positionally controlled actuators (A 1,i), with i∈{1,...,N1}, for positioning the first narrow-side plate are arranged on the first narrow-side plate and a plurality of positionally controlled actuators (A 2,j), with j∈{1,...,N2}, for positioning the second narrow-side plate are arranged on the second narrow-side plate, in each case at a different distance from the charging-side end of the continuous casting mould, and - wherein, during the operation of the continuous casting mould, corresponding forces (F 1,i, F 2,j), with i∈{1,...,N1} and j∈{1,...,N2}, occur in the effective direction of each actuator (A 1,i, A 2,j), - a reference pressure (P ref) as a reference variable and - an average surface pressure (P med) between the narrow side plates (4, 4') and the metal strand as a controlled variable, wherein the average surface pressure (P med) is determined from the forces (F 1,i, F 2,j), - a controller determines the narrow-side conicity (K s) as a manipulated variable of the closed-loop control circuit in dependence on a system deviation (P dif) = (P ref) - (P med) as an input variable and in that - a controlled system is used to set the position of the first and/or the second narrow-side plate (4, 4') in a way corresponding to the narrow-side conicity (K s) by means of the actuators (A 1,i, A 2,j).
A string light engine comprising: a flexible power cord comprising an electrical wire and an insulating material for the wire; a heat sink attached to the power cord; an IDC terminal inserted through the insulating material and in electrical communication with the wire; a PCB at least partially received in the heat sink, the PCB including a first surface having circuitry and a second surface opposite the first surface, the circuitry being in electrical communication with the IDC terminal, the second surface being abutted against a surface of the heat sink so that heat is transferred from the LED into the heat sink; an LED mounted to the first surface of the PCB and in electrical communication with the circuitry; and a male terminal extending from the first surface of the PCB and in electrical communication with the circuitry of the PCB, and the IDC terminal including a portion that receives the male terminal to mechanically fasten the IDC terminal to the PCB and to provide for electrical communication between the circuitry of the PCB and the wire. a flexible power cord comprising an electrical wire and an insulating material for the wire; a heat sink attached to the power cord; an IDC terminal inserted through the insulating material and in electrical communication with the wire; a PCB at least partially received in the heat sink, the PCB including a first surface having circuitry and a second surface opposite the first surface, the circuitry being in electrical communication with the IDC terminal, the second surface being abutted against a surface of the heat sink so that heat is transferred from the LED into the heat sink; an LED mounted to the first surface of the PCB and in electrical communication with the circuitry; and a male terminal extending from the first surface of the PCB and in electrical communication with the circuitry of the PCB, and the IDC terminal including a portion that receives the male terminal to mechanically fasten the IDC terminal to the PCB and to provide for electrical communication between the circuitry of the PCB and the wire.
A method of preparing aromatic hydrocarbons for use as precursors for catalyst ligands, the method comprising: providing a nickel based catalyst solution; providing a polyhalogenated aromatic hydrocarbon comprising at least two reactive halogen groups on its ring; combining the nickel based catalyst solution and polyhalogentated aromatic hydrocarbon to form a mixture; and adding a Grignard reactant to the mixture to form an aromatic hydrocarbon as a precursor for the preparation of catalyst ligands, wherein the method is illustrated by the following general reaction: wherein, R = CH 3; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl. R'= CH 3; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl X = reactive halogen groups R′′′ = R, R' and/or X n = 0 to 4 P= Phosphorous atom Aryl 3 P= Triarylphosphine Ar= Grignard aromatic moiety / = and/or Halo 2 = chloride or bromide NiHalo 2 (aryl 3 P) 2 = Nickel Source TPP = triphenylphosphine. providing a nickel based catalyst solution; providing a polyhalogenated aromatic hydrocarbon comprising at least two reactive halogen groups on its ring; combining the nickel based catalyst solution and polyhalogentated aromatic hydrocarbon to form a mixture; and adding a Grignard reactant to the mixture to form an aromatic hydrocarbon as a precursor for the preparation of catalyst ligands, wherein the method is illustrated by the following general reaction: wherein, R = CH 3; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl. R'= CH 3; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl X = reactive halogen groups R′′′ = R, R' and/or X n = 0 to 4 P= Phosphorous atom Aryl 3 P= Triarylphosphine Ar= Grignard aromatic moiety / = and/or Halo 2 = chloride or bromide NiHalo 2 (aryl 3 P) 2 = Nickel Source TPP = triphenylphosphine. R = CH 3; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl. R'= CH 3; aryl; alkylaryl; alkyl; alkyl or aryl ether; H; thioether, or perfluoroalkyl X = reactive halogen groups R′′′ = R, R' and/or X n = 0 to 4 P= Phosphorous atom Aryl 3 P= Triarylphosphine Ar= Grignard aromatic moiety / = and/or Halo 2 = chloride or bromide NiHalo 2 (aryl 3 P) 2 = Nickel Source TPP = triphenylphosphine.
A system for fastening a cutting tool on a cutting head of a tunnel boring machine, comprising a housing secured to the cutting head, in which the cutting tool is inserted, the cutting tool comprising two flanges (5, 6) between which an active part is mounted, the fastening system also comprising retractable locking elements (15, 16) captively connected to the flanges (5, 6) and suitable for locking the flanges (5, 6) in the housing, the locking elements (15, 16) being movable relative to the flanges (5, 6) between a first position, in which the locking elements (15, 16) are engaged in the housing so as to lock the cutting tool in the housing, and a second position, in which the locking elements (15, 16) are freed from the housing and allow the cutting tool to be removed from the housing, characterized in that it comprises movement means (8, 11, 13) connected to the cutting tool suitable for translating the locking elements (15, 16) between their first position and their second position, and in that those movement means (8, 11, 13) are suitable for being actuated in a single operation.
An inhaler kit for delivery of at least one substance released from source material, the inhaler kit comprising: a replaceable flow tract comprising at least one conduit; an inhaler comprising: a housing including: a recess and a second flow tract positioned to direct ambient airflow to a location in which the at least one substance is released from the source material; the replaceable flow tract and second flow tract configured for being aligned with respect to each other when the replaceable flow tract is received within the recess, the replaceable flow tract and second flow tract configured to come into sealed communication with each other, characterized by the sealed communication formed at the location of substance release, wherein the recess comprises a portion shaped to receive a conduit of the flow tract and when in position within the housing, the replaceable flow tract extends from the location of substance release to an output of the inhaler. a replaceable flow tract comprising at least one conduit; an inhaler comprising: a housing including: a recess and a second flow tract positioned to direct ambient airflow to a location in which the at least one substance is released from the source material; a recess and a second flow tract positioned to direct ambient airflow to a location in which the at least one substance is released from the source material; the replaceable flow tract and second flow tract configured for being aligned with respect to each other when the replaceable flow tract is received within the recess, the replaceable flow tract and second flow tract configured to come into sealed communication with each other, characterized by the sealed communication formed at the location of substance release, wherein the recess comprises a portion shaped to receive a conduit of the flow tract and when in position within the housing, the replaceable flow tract extends from the location of substance release to an output of the inhaler.
A device for generating a polychromatic beam of photons, said device comprising a pulsed laser source that is able to deliver primary photons having at least one wavelength, forming means able to act on the primary photons to deliver an input beam, and a nonlinear crystal that is arranged to produce, from the input beam, a polychromatic output beam comprising secondary photons having several wavelengths, characterised in that it further comprises control means arranged to generate, in the nonlinear crystal, at least one electric field that is synchronous with the input beam and able to induce, in the latter, a phase mismatch via an electro-optical effect in order to convert the primary photons of the input beam into said secondary photons so as to form a super-continuum, said control means comprising: i. sampling means able to split the input beam into a main portion that is directed toward the nonlinear crystal and an auxiliary portion, ii. optoelectronic means able to generate an electric pulse on reception of each auxiliary portion of the input beam, iii. electrodes (Ej) that are placed against the nonlinear crystal and that are arranged to generate, in the latter, the electric field on reception of each generated electric pulse, and iv. delaying means arranged to delay the primary photons of the main portion of the input beam so that they enter the nonlinear crystal synchronously with the generated electric field. i. sampling means able to split the input beam into a main portion that is directed toward the nonlinear crystal and an auxiliary portion, ii. optoelectronic means able to generate an electric pulse on reception of each auxiliary portion of the input beam, iii. electrodes (Ej) that are placed against the nonlinear crystal and that are arranged to generate, in the latter, the electric field on reception of each generated electric pulse, and iv. delaying means arranged to delay the primary photons of the main portion of the input beam so that they enter the nonlinear crystal synchronously with the generated electric field.
Olive pomace or an olive pomace solid substrate comprising: up to 1 % (m/m) of olive fat material and up to 0.06 % (m/m) of phytotoxic compounds, wherein the phytotoxic compounds are phenolic compounds selected from the following list: aglyconic and glycosidic forms. up to 1 % (m/m) of olive fat material and up to 0.06 % (m/m) of phytotoxic compounds, wherein the phytotoxic compounds are phenolic compounds selected from the following list: aglyconic and glycosidic forms.
A nanofiltration membrane comprising a) at least one substrate layer comprising at least one partially sulfonated polyethersulfone polymer, and b) at least one film layer comprising at least one cationic polymer associated with said at least substrate layer, wherein 0,5 to 5 mol-% of the monomeric constituents or repeating units of said polyethersulfone polymer are sulfonated; and said at least one cationic polymeric film layer is grafted on said at least one substrate layer. a) at least one substrate layer comprising at least one partially sulfonated polyethersulfone polymer, and b) at least one film layer comprising at least one cationic polymer associated with said at least substrate layer, 0,5 to 5 mol-% of the monomeric constituents or repeating units of said polyethersulfone polymer are sulfonated; and said at least one cationic polymeric film layer is grafted on said at least one substrate layer.
A scroll compressor, comprising: a fixed scroll; an orbiting scroll that interfaces the fixed scroll; an Oldham ring that interfaces the orbiting scroll and has a pre-unbalanced force profile; a motor shaft that interfaces the Oldham ring; characterised in that the orbiting scroll has a first imbalance weight portion; wherein the first imbalance weight portion: has a weighted force profile that is about 175° to about 185° opposite of the pre-unbalanced force profile of the Oldham ring; and produces in the Oldham ring a post-unbalanced force profile that is substantially a flat line; wherein the orbiting scroll includes a base portion, and wherein the first imbalance weight portion is either in the base portion or in a part of the orbiting scroll other than the base portion. a fixed scroll; an orbiting scroll that interfaces the fixed scroll; an Oldham ring that interfaces the orbiting scroll and has a pre-unbalanced force profile; a motor shaft that interfaces the Oldham ring; characterised in that the orbiting scroll has a first imbalance weight portion; wherein the first imbalance weight portion: has a weighted force profile that is about 175° to about 185° opposite of the pre-unbalanced force profile of the Oldham ring; and produces in the Oldham ring a post-unbalanced force profile that is substantially a flat line; has a weighted force profile that is about 175° to about 185° opposite of the pre-unbalanced force profile of the Oldham ring; and produces in the Oldham ring a post-unbalanced force profile that is substantially a flat line; wherein the orbiting scroll includes a base portion, and wherein the first imbalance weight portion is either in the base portion or in a part of the orbiting scroll other than the base portion.
Device for manufacturing a three-dimensional object by solidifying building material, layer by layer, at positions corresponding to a cross-section of the object to be manufactured in a respective layer, comprising a recoating device for applying a layer of the building material to a working plane, a solidification device for selectively solidifying the building material in the applied layer, and a gas suction nozzle for extracting gas from the device, wherein the gas suction nozzle is movably arranged, and a control unit with which a movement and/or an orientation of the gas suction nozzle is controlled or regulated depending on a number of reference positions (51, 53, 55a, 55b, 55c, 55d), wherein the reference positions comprise at least a current reference solidification position (51, 53) in the working plane, and wherein the device is configured such that it ensures that, at least in a predefined period of time, a distance (d1, d2, d3, d4, d4', d4") between the gas suction nozzle and at least one of the number of reference positions (51, 53) does not exceed and/or fall below a predetermined distance value. a recoating device for applying a layer of the building material to a working plane, a solidification device for selectively solidifying the building material in the applied layer, and a gas suction nozzle for extracting gas from the device, wherein the gas suction nozzle is movably arranged, and a control unit with which a movement and/or an orientation of the gas suction nozzle is controlled or regulated depending on a number of reference positions (51, 53, 55a, 55b, 55c, 55d), wherein the reference positions comprise at least a current reference solidification position (51, 53) in the working plane, and wherein the device is configured such that it ensures that, at least in a predefined period of time, a distance (d1, d2, d3, d4, d4', d4") between the gas suction nozzle and at least one of the number of reference positions (51, 53) does not exceed and/or fall below a predetermined distance value.