mhurhangee/ep-ind-claims huggingface dataset:
A method for making a panel structure for an external side wall or a covering of a building, by a kit comprising: - a plurality of section elements elongated along a longitudinal axis, comprising respective base portions having respective seats, which are open at the top and at their longitudinal ends; - fastening means; - a plurality of panels comprising respective panel ends, that have a shape and size such as to engage, in use, said seats; and - at least one seal made of a flexible material and comprising a continuous strip portion, that has a top face and a bottom face; the method comprising: - resting said base portions on a support; - fastening said section elements to said support; - arranging said seal so that said top face vertically faces said panel ends and said bottom face vertically faces said base portions; - engaging the ends of said panels into said seats; wherein said section elements are longitudinally aligned and abutted to each other, so as to define a longitudinal channel formed by the combination of said seats; and wherein said continuous strip portion is longer than each of said seats along said longitudinal axis and is arranged so as to cover at least two consecutive junction zones between adjacent base portions. - a plurality of section elements elongated along a longitudinal axis, comprising respective base portions having respective seats, which are open at the top and at their longitudinal ends; - fastening means; - a plurality of panels comprising respective panel ends, that have a shape and size such as to engage, in use, said seats; and - at least one seal made of a flexible material and comprising a continuous strip portion, that has a top face and a bottom face; - resting said base portions on a support; - fastening said section elements to said support; - arranging said seal so that said top face vertically faces said panel ends and said bottom face vertically faces said base portions; - engaging the ends of said panels into said seats; wherein said section elements are longitudinally aligned and abutted to each other, so as to define a longitudinal channel formed by the combination of said seats; and wherein said continuous strip portion is longer than each of said seats along said longitudinal axis and is arranged so as to cover at least two consecutive junction zones between adjacent base portions.
A variant target binding agent that is an antibody drug conjugate, comprising: an antibody having a binding region that specifically binds to a target antigen and a Fc region of a human immunoglobulin IgG1 constant region, the Fc region having an introduced cysteine residue at position 239, that is S239C according to the EU Index as set forth in Kabat; and a therapeutic agent that exerts a cytotoxic, cytostatic or immunomodulatory effect on a cell expressing the target antigen, wherein the therapeutic agent is conjugated to the introduced cysteine residue of the antibody via a cleavable linker that is susceptible to cleavage under intracellular conditions. an antibody having a binding region that specifically binds to a target antigen and a Fc region of a human immunoglobulin IgG1 constant region, the Fc region having an introduced cysteine residue at position 239, that is S239C according to the EU Index as set forth in Kabat; and a therapeutic agent that exerts a cytotoxic, cytostatic or immunomodulatory effect on a cell expressing the target antigen, wherein the therapeutic agent is conjugated to the introduced cysteine residue of the antibody via a cleavable linker that is susceptible to cleavage under intracellular conditions.
Device for cleaning of surfaces of a construction, comprising - a frame having a first disc brush, - a feeding unit for liquid, and - a hydraulic drive implemented as water engine or paddle wheel, which drives the first disc brush via a gear wheel, characterized in that - the first disc brush comprises a sprocket around its circumference, which is driven by the gear wheel, - at least a further disc brush is provided, wherein the first disc brush and the further disc brush run against each other, and - either the further disc brush also comprises a sprocket around its circumference and the first disc brush and the further disc brush are in force-fitting connection via gear wheels and/or the sprockets, - or the further disc brush is in force-fitting connection with the first disc brush via a belt which is set in form of an eight. - a frame having a first disc brush, - a feeding unit for liquid, and - a hydraulic drive implemented as water engine or paddle wheel, which drives the first disc brush via a gear wheel, - the first disc brush comprises a sprocket around its circumference, which is driven by the gear wheel, - at least a further disc brush is provided, wherein the first disc brush and the further disc brush run against each other, and - either the further disc brush also comprises a sprocket around its circumference and the first disc brush and the further disc brush are in force-fitting connection via gear wheels and/or the sprockets, - or the further disc brush is in force-fitting connection with the first disc brush via a belt which is set in form of an eight.
A handle arrangement for a vehicle door, the arrangement comprising a strap-type handle and linkage means arranged to couple the handle to the door for movement between a first position in which the handle lies substantially flush with an outer surface of the door and a second position in which the handle protrudes from the outer surface of the door, wherein the linkage means comprises: a first link being a primary link that is hinged at one end about a primary link pivot axis and that terminates at the other end in an outer pivot axis about which the primary link is hinged to the handle; and a second link being a control arm that is hinged at one end about a floating control arm pivot axis and that terminates at the other end in an inner pivot axis about which the control arm is hinged to the handle, inboard of the outer pivot axis; wherein the linkage means is arranged to permit the handle to translate from the first position to the second position, and to permit the handle in the second position to rotate about the outer pivot axis to a third, operative position thereby to disengage a door latch or the like, and wherein the linkage means comprises a slotted guide that restrains floating movement of the control arm pivot axis as the handle moves between the first and second positions, such that the door latch or the like does not disengage during translation from the first to the second position, but then allows floating movement of the control arm pivot axis as the handle is moved between the second and third positions. a first link being a primary link that is hinged at one end about a primary link pivot axis and that terminates at the other end in an outer pivot axis about which the primary link is hinged to the handle; and a second link being a control arm that is hinged at one end about a floating control arm pivot axis and that terminates at the other end in an inner pivot axis about which the control arm is hinged to the handle, inboard of the outer pivot axis;
A laser system, comprising: a first cavity configured to output a laser light along a first path; a first mirror configured to receive the laser light from the first cavity, and redirect the laser light along a second path that is different than the first path; a beam splitter removably located at a first position on the second path; a beam combiner removably located at a second position on the second path; and an alignment device having first and second alignment features, wherein the first and second alignment features are configured to occupy the first position and the second position, respectively, on the second path, when the beam splitter and the beam combiner are removed from the first position and the second position; wherein: the first cavity includes a further mirror; and the laser system further includes an alignment laser source, and a fiber configured to deliver an alignment laser light from the alignment laser source, through the first alignment feature and the second alignment feature, toward the further mirror. a first cavity configured to output a laser light along a first path; a first mirror configured to receive the laser light from the first cavity, and redirect the laser light along a second path that is different than the first path; a beam splitter removably located at a first position on the second path; a beam combiner removably located at a second position on the second path; and an alignment device having first and second alignment features, wherein the first and second alignment features are configured to occupy the first position and the second position, respectively, on the second path, when the beam splitter and the beam combiner are removed from the first position and the second position; wherein: the first cavity includes a further mirror; and the laser system further includes an alignment laser source, and a fiber configured to deliver an alignment laser light from the alignment laser source, through the first alignment feature and the second alignment feature, toward the further mirror. the first cavity includes a further mirror; and the laser system further includes an alignment laser source, and a fiber configured to deliver an alignment laser light from the alignment laser source, through the first alignment feature and the second alignment feature, toward the further mirror.
A telescopic guide for a drawer of a piece of furniture comprising: • a base support which can be fixed to the side of said piece of furniture, said base support comprising a pair of base rails (11, 12) which include an upper base rail and a lower base rail, • a floating support comprising a pair of floating rails (21, 22) which include an upper floating rail and a lower floating rail, • at least three grooved rollers (1, 2) which are interposed between said pair of base rails (11, 12) and said pair of floating rails (21, 22), said grooved rollers (1, 2) having respective horizontal rolling axes which are perpendicular to a sliding direction of said telescopic guide, each of said base rails (11, 12) and of said floating rails (21, 22) comprising a sliding surface which extends in parallel with said sliding direction, each of said grooved rollers (1, 2) comprising a peripheral groove which is configured to match to a respective sliding surface and in contact therewith so as to limit lateral play between said peripheral groove and said respective sliding surface. • a base support which can be fixed to the side of said piece of furniture, said base support comprising a pair of base rails (11, 12) which include an upper base rail and a lower base rail, • a floating support comprising a pair of floating rails (21, 22) which include an upper floating rail and a lower floating rail, • at least three grooved rollers (1, 2) which are interposed between said pair of base rails (11, 12) and said pair of floating rails (21, 22), said grooved rollers (1, 2) having respective horizontal rolling axes which are perpendicular to a sliding direction of said telescopic guide, each of said base rails (11, 12) and of said floating rails (21, 22) comprising a sliding surface which extends in parallel with said sliding direction, each of said grooved rollers (1, 2) comprising a peripheral groove which is configured to match to a respective sliding surface and in contact therewith so as to limit lateral play between said peripheral groove and said respective sliding surface.
A kit of construction elements including a plurality of construction elements and a plurality of rod-like binding elements for connecting said construction elements, wherein the construction elements are in the form of square-based rectangles, and along at least one edge of each construction element a groove is formed for receiving a binding element, wherein each binding element is formed to fit into a groove (11, 12) along at least a part of its entire length, and wherein the grooves (11, 12) of the construction elements and the binding elements are sized so that during use the construction elements are substantially in contact along their connecting surfaces, characterized by that on at least one of the faces of each construction element perpendicular to the base thereof at least one groove is formed in parallel to its base, and each binding element is further provided with securing members (21, 22) formed to engage with complementary securing members (14, 15, 16) of said groove (11, 12) by form-fitting or force-fitting.
Anchor chain stopper device comprising: - a locking casing provided with a duct in which an anchor chain is able to slide, said casing comprising a link means to a floating structure configured to orient the axis of said duct in the axis of tension of said chain, said casing incorporating locks configured to oppose the sliding of said chain in said duct, - a means for measuring the tension in said anchor chain, said measurement means being incorporated in said locking casing, characterized in that said measurement means comprises: - at least one chamber consisting of a closed deformable enclosure, said chamber being filled with a liquid, - at least one bearing piece (7, 7') movably mounted in the locking casing, said bearing piece being placed between the locks and the chamber, said bearing piece acting on the wall of the enclosure of said chamber to pressurize the liquid that it contains, said bearing piece being arranged in such a way that the loads exerted by said anchor chain on said locks drive the displacement of said bearing piece and the pressurization of said chamber, - at least one pressure sensor configured to measure the pressure of the liquid in said closed chamber. - a locking casing provided with a duct in which an anchor chain is able to slide, said casing comprising a link means to a floating structure configured to orient the axis of said duct in the axis of tension of said chain, said casing incorporating locks configured to oppose the sliding of said chain in said duct, - a means for measuring the tension in said anchor chain, said measurement means being incorporated in said locking casing, - at least one chamber consisting of a closed deformable enclosure, said chamber being filled with a liquid, - at least one bearing piece (7, 7') movably mounted in the locking casing, said bearing piece being placed between the locks and the chamber, said bearing piece acting on the wall of the enclosure of said chamber to pressurize the liquid that it contains, said bearing piece being arranged in such a way that the loads exerted by said anchor chain on said locks drive the displacement of said bearing piece and the pressurization of said chamber, - at least one pressure sensor configured to measure the pressure of the liquid in said closed chamber.
A hydraulic-fluid treatment (400, 400') such as a pressure-oil treatment circuit or a pressure-oil treatment loop, wherein an oil-pressure pump (104, 104') is provided and there is provided at a high-pressure side of the oil-pressure pump (104, 104'), by means of which a hydraulic fluid, that is to say an oil, is drawn in from a pressure-oil sump as pressure oil is pressurised for the hydraulic-fluid treatment (400, 400'), a separate oil loop (110, 110', 110", 110'", 112, 112') such as an oil loop for cooling a clutch (7, 9), and there is provided for controlling a cooling-oil flow to a clutch (7, 9) a cooling-oil flow valve, characterised in that a circulation is provided for part of the pressure oil through a cooling device having a pressure-oil heat exchanger, there being connected downstream from the cooling device a clutch cooling zone and wherein the cooling-oil flow valve is arranged at a start of the clutch cooling zone, and a cooling-oil circulation valve is provided and the cooling-oil circulation valve together with the cooling-oil flow valve forming a mutually influencing valve unit through which in the case of a dynamic pressure, that is to say a back pressure, in the clutch cooling zone, that is to say in its line, the dynamic pressure can be reduced in the direction of a return line to the oil-pressure pump, that is to say to an intake side, wherein a valve position of the cooling-oil circulation valve is set through hydraulic actuation caused by a comparison of an oil pressure at an inflow side to the cooling-oil flow valve and an oil pressure in the clutch cooling zone.
A method for fabricating a semiconductor device, the method comprising the steps of: providing a substrate, of which the surface is already covered with an amorphous semiconductor film; (b) forming an oxide layer on a portion of the amorphous semiconductor film; (c) irradiating and crystallizing the amorphous semiconductor film with a laser beam that has come from over the oxide layer, thereby obtaining a crystalline semiconductor film including a first crystallized region, in which the rest of the amorphous semiconductor film that is not covered with the oxide layer has been crystallized, and a second crystallized region, in which the portion of the amorphous semiconductor film that is covered with the oxide layer has been crystallized and which has a greater surface roughness than the first crystallized region; and (d) patterning the crystalline semiconductor film into a first semiconductor island to define the active region of a thin-film transistor and a second semiconductor island to define the active region of a thin-film diode, the first semiconductor island having the first crystallized region, the second semiconductor island having the second crystallized region. providing a substrate, of which the surface is already covered with an amorphous semiconductor film; (b) forming an oxide layer on a portion of the amorphous semiconductor film; (c) irradiating and crystallizing the amorphous semiconductor film with a laser beam that has come from over the oxide layer, thereby obtaining a crystalline semiconductor film including a first crystallized region, in which the rest of the amorphous semiconductor film that is not covered with the oxide layer has been crystallized, and a second crystallized region, in which the portion of the amorphous semiconductor film that is covered with the oxide layer has been crystallized and which has a greater surface roughness than the first crystallized region; and (d) patterning the crystalline semiconductor film into a first semiconductor island to define the active region of a thin-film transistor and a second semiconductor island to define the active region of a thin-film diode, the first semiconductor island having the first crystallized region, the second semiconductor island having the second crystallized region.
A system for insulating a structural element (12, 14) in a motor vehicle, the system comprising: a structural element (12, 14) having a first constituent part (12.1, 14.1) and a second constituent part (12.2, 14.2), wherein the constituent parts (12.1, 12.2, 14.1, 14.2) are joined together at a first joining point and at a second joining point, and wherein the structural element (12, 14) forms a cavity; a device having a carrier and a first expandable adhesive (13.1), wherein the carrier is arranged on the first constituent part (12.1, 14.1) of the structural element (12, 14) by way of a fastening element; and a second expandable adhesive (13.2) which is arranged on the second constituent part (12.2, 14.2) of the structural element (12, 14); wherein the first expandable adhesive (13.1) and the second expandable adhesive (13.2) are in a non-expanded state and are configured, and arranged, in such a way that, after the adhesives (13.1, 13.2) have been expanded, the device and the second adhesive (13.2) substantially completely fill a cross section of the structural element (12, 14). a structural element (12, 14) having a first constituent part (12.1, 14.1) and a second constituent part (12.2, 14.2), wherein the constituent parts (12.1, 12.2, 14.1, 14.2) are joined together at a first joining point and at a second joining point, and wherein the structural element (12, 14) forms a cavity; a device having a carrier and a first expandable adhesive (13.1), wherein the carrier is arranged on the first constituent part (12.1, 14.1) of the structural element (12, 14) by way of a fastening element; and a second expandable adhesive (13.2) which is arranged on the second constituent part (12.2, 14.2) of the structural element (12, 14); wherein the first expandable adhesive (13.1) and the second expandable adhesive (13.2) are in a non-expanded state and are configured, and arranged, in such a way that, after the adhesives (13.1, 13.2) have been expanded, the device and the second adhesive (13.2) substantially completely fill a cross section of the structural element (12, 14).
A method of forming a catalyst comprising: contacting an alkyl magnesium compound with a viscosity modifier of formula AlR 3 3 and an alcohol to form a magnesium alkoxide compound, wherein R 3 is selected from C 1 to C 10 alkyl compounds and wherein the alkyl magnesium compound is contacted with the viscosity modifier prior to contacting the alcohol; contacting the magnesium alkoxide compound with a first titanium alkoxide of formula Ti(OR 5) 4 and a first agent of metal halide to form a reaction product "A", wherein the titanium alkoxide and the metal halide are individual components which are not blended, prior to contacting the magnesium alkoxide and wherein R 5 is selected from C 2 to C 20 alkyl groups; and sequentially contacting the reaction product "A" with a second agent of formula Ti(OR 6) 4 wherein R 6 is selected from C 2 to C 20 alkyl groups to form reaction product "B", followed by a third agent, and subsequently a first reducing agent of formula AlR 7 3 wherein R 7 3 is selected from C 1 to C 10 alkyl compounds to form a catalyst component; wherein the third agent comprises a second metal halide; wherein when contacting reaction product "B" with the second metal halide a solid reaction product "C" is formed, wherein this reaction occurs in the presence of an inert solvent; and wherein the amount of solvent at precipitation is reduced compared to an identical catalyst component synthesis without the viscosity modifier. contacting an alkyl magnesium compound with a viscosity modifier of formula AlR 3 3 and an alcohol to form a magnesium alkoxide compound, wherein R 3 is selected from C 1 to C 10 alkyl compounds and wherein the alkyl magnesium compound is contacted with the viscosity modifier prior to contacting the alcohol; contacting the magnesium alkoxide compound with a first titanium alkoxide of formula Ti(OR 5) 4 and a first agent of metal halide to form a reaction product "A", wherein the titanium alkoxide and the metal halide are individual components which are not blended, prior to contacting the magnesium alkoxide and wherein R 5 is selected from C 2 to C 20 alkyl groups; and sequentially contacting the reaction product "A" with a second agent of formula Ti(OR 6) 4 wherein R 6 is selected from C 2 to C 20 alkyl groups to form reaction product "B", followed by a third agent, and subsequently a first reducing agent of formula AlR 7 3 wherein R 7 3 is selected from C 1 to C 10 alkyl compounds to form a catalyst component; wherein the third agent comprises a second metal halide; wherein when contacting reaction product "B" with the second metal halide a solid reaction product "C" is formed, wherein this reaction occurs in the presence of an inert solvent; and wherein the amount of solvent at precipitation is reduced compared to an identical catalyst component synthesis without the viscosity modifier.