mhurhangee/ep-ind-claims huggingface dataset:
A method of protecting plywood against fungi, consisting of introducing a fungicide to a an adhesive resin, characterised in that an ionic liquids solution of formula 1 is made, where - X is nitrate anion, - R 1 is benzyl, an alkyl substituent of a carbon chain length of C 1-20, or an unsaturated hydrocarbon substituent of a carbon chain length of C 3-20 containing one or several unsaturated bonds, - R 2 and R 3 are equal and stand for an alkyl substituent of a C 1-16 carbon chain length or an unsaturated hydrocarbon substituent of a C 3-16 carbon chain length, containing one or several unsaturated bonds, - R 4 is an alkyl substituent of a carbon chain length of C 1-20 or an unsaturated hydrocarbon substituent of a carbon chain length of C 3-20, containing one or several unsaturated bonds, in an adhesive resin, chosen from amongst polycondensation urea or melamine urea resins, and of applying the prepared ionic liquid solution in the resin by means of known methods onto the veneers intended for the outer plywood layers, with the inner veneers remaining not impregnated, and of forming and pressing the veneer assembly to obtain plywood. - X is nitrate anion, - R 1 is benzyl, an alkyl substituent of a carbon chain length of C 1-20, or an unsaturated hydrocarbon substituent of a carbon chain length of C 3-20 containing one or several unsaturated bonds, - R 2 and R 3 are equal and stand for an alkyl substituent of a C 1-16 carbon chain length or an unsaturated hydrocarbon substituent of a C 3-16 carbon chain length, containing one or several unsaturated bonds, - R 4 is an alkyl substituent of a carbon chain length of C 1-20 or an unsaturated hydrocarbon substituent of a carbon chain length of C 3-20, containing one or several unsaturated bonds,
A method for producing cytidine 5'-monophospho- N -acetyl-neuraminic acid (CMP-Neu5Ac, 1) comprising: A) providing a solution comprising N -acetyl-D-glucosamine, pyruvate, polyphosphate, cytidine, and adenosine 5'-triphosphate, and a set of enzymes comprising an N-acylglucosamine 2-epimerase (AGE, EC 5.1.3.8), an N-acetylneuraminate lyase (NAL, EC 4.1.3.3), an N-acylneuraminate cytidylyltransferase (CSS, EC 2.7.7.43), a uridine kinase (UDK, EC 2.7.1.48), a uridine monophosphate kinase (URA6, EC 2.7.4.22) and a polyphosphate kinase 3 (PPK3, EC 2.7.4.1); B) mixing said solution and said set of enzymes and reacting a resulting solution to produce cytidine 5'-monophospho- N -acetyl-neuraminic acid (CMP-Neu5Ac), wherein the uridine kinase transfers in situ the cytidine to cytidine monophosphate. A) providing a solution comprising N -acetyl-D-glucosamine, pyruvate, polyphosphate, cytidine, and adenosine 5'-triphosphate, and a set of enzymes comprising an N-acylglucosamine 2-epimerase (AGE, EC 5.1.3.8), an N-acetylneuraminate lyase (NAL, EC 4.1.3.3), an N-acylneuraminate cytidylyltransferase (CSS, EC 2.7.7.43), a uridine kinase (UDK, EC 2.7.1.48), a uridine monophosphate kinase (URA6, EC 2.7.4.22) and a polyphosphate kinase 3 (PPK3, EC 2.7.4.1); B) mixing said solution and said set of enzymes and reacting a resulting solution to produce cytidine 5'-monophospho- N -acetyl-neuraminic acid (CMP-Neu5Ac),
A deployable leg rest assembly for a vehicle seat, the deployable leg rest assembly comprising: a leg support; a mounting plate arranged to be mounted on top of a seat pan of the vehicle seat in a face-to-face arrangement, the mounting plate being configured to extend in a longitudinal direction over part or substantially all of said seat pan and having a co-operating profile, at least a portion of the mounting plate being profiled at least substantially to match a corresponding portion of the seat pan, and, when assembled, the mounting plate abutting against an upper surface of the seat pan; and a deployment mechanism for deploying the leg support, the deployment mechanism connecting the leg support to the mounting plate. a leg support; a mounting plate arranged to be mounted on top of a seat pan of the vehicle seat in a face-to-face arrangement, the mounting plate being configured to extend in a longitudinal direction over part or substantially all of said seat pan and having a co-operating profile, at least a portion of the mounting plate being profiled at least substantially to match a corresponding portion of the seat pan, and, when assembled, the mounting plate abutting against an upper surface of the seat pan; and a deployment mechanism for deploying the leg support, the deployment mechanism connecting the leg support to the mounting plate.
A double-walled liquid container, comprising an inner side wall, which has a top edge and delimits an inner space which serves for receiving a liquid, an outer side wall, which is arranged outside the inner side wall and has a top edge, a retaining structure having an inner retaining element, in which the top edge of the inner side wall is retained, and an outer retaining element, in which the top edge of the outer side wall is retained, characterized in that the outer side wall has a bottom edge, and that the liquid container comprises a fixing element, which is attached to the retaining structure and fixes the bottom edge of the outer side wall in relation to the retaining structure. an inner side wall, which has a top edge and delimits an inner space which serves for receiving a liquid, an outer side wall, which is arranged outside the inner side wall and has a top edge, a retaining structure having an inner retaining element, in which the top edge of the inner side wall is retained, and an outer retaining element, in which the top edge of the outer side wall is retained, characterized in that the outer side wall has a bottom edge, and that the liquid container comprises a fixing element, which is attached to the retaining structure and fixes the bottom edge of the outer side wall in relation to the retaining structure.
A submerged combustion burner panel (100, 200) comprising: (a) a panel body having a first major surface defined by a lower fluid-cooled portion of the panel body, and a second major surface defined by an upper non-fluid-cooled portion of the panel body, the panel body having at least one through passage extending from the first to the second major surface, the panel body supporting at least one set of substantially concentric at least one inner conduit and an outer conduit in the through passage, each conduit (22, 24) comprising proximal and distal ends, the at least one inner conduit forming a primary passage and the outer conduit forming a secondary passage between the outer conduit and the at least one inner conduit; and (b) the through passage diameter being greater in the lower fluid-cooled portion than in the upper non-fluid cooled portion and a fluid-cooled protective member being associated with each set and having connections (48, 49) for coolant fluid supply and return, each fluid-cooled protective member positioned adjacent at least a portion of the circumference of the outer conduit between the proximal and distal ends thereof at approximately a position of the fluid-cooled portion of the panel body. (a) a panel body having a first major surface defined by a lower fluid-cooled portion of the panel body, and a second major surface defined by an upper non-fluid-cooled portion of the panel body, the panel body having at least one through passage extending from the first to the second major surface, the panel body supporting at least one set of substantially concentric at least one inner conduit and an outer conduit in the through passage, each conduit (22, 24) comprising proximal and distal ends, the at least one inner conduit forming a primary passage and the outer conduit forming a secondary passage between the outer conduit and the at least one inner conduit; and (b) the through passage diameter being greater in the lower fluid-cooled portion than in the upper non-fluid cooled portion and a fluid-cooled protective member being associated with each set and having connections (48, 49) for coolant fluid supply and return, each fluid-cooled protective member positioned adjacent at least a portion of the circumference of the outer conduit between the proximal and distal ends thereof at approximately a position of the fluid-cooled portion of the panel body.
An isolated fusion protein that binds at least one bacterial V-tip protein of the type III secretion system of Gram negative bacteria, wherein the V-tip protein of the type III secretion system of Gram negative bacteria is PcrV from Pseudomonas aeruginosa; wherein the fusion protein comprises a first V-tip protein binding protein (VPBP1) and a second V-tip protein binding protein (VPBP2); wherein the VPBP1 and VPBP2 each bind a different epitope on the same V-tip protein, wherein the VPBPs are single domain antibody (sdAb) fragments, and wherein the fusion protein inhibits the functional translocalization of effector molecules across target cell membranes.
Bending unit for bending a bend of a wave winding for a coil winding of an electric machine, having a first holding element for holding a first segment of a wire to be bent, a second holding element for holding a second segment of the wire to be bent and at least one bending mold (22, 24) for bending a transition region of the wire between the first segment and the second segment, characterized in that the first and the second holding elements (12, 18) are in direct engagement with each other via at least one mechanical control cam (30, 32) in order to control a relative pivoting and a relative displacement of the first and the second holding element (12, 18), that the at least one control cam (30, 32) has regions of different curvature (36, 38) and that a) the at least one control cam is formed on one of the holding elements (12, 18), wherein a pick up element formed on the other one of the holding elements (12, 18) moves along the control cam or b) the first holding element has a first control am and the second holding element has a second control cam in such a manner that the first and the second control cam (30, 32) roll on each other as rolling cams. a) the at least one control cam is formed on one of the holding elements (12, 18), wherein a pick up element formed on the other one of the holding elements (12, 18) moves along the control cam or b) the first holding element has a first control am and the second holding element has a second control cam in such a manner that the first and the second control cam (30, 32) roll on each other as rolling cams.
A method for transferring a workpiece carrier in a production plant from a first conveying section to a second conveying section, wherein the workpiece carrier is guided in a guide arrangement of the production plant and wherein the conveying sections (2, 3) each comprise a toothed belt (9, 10), said toothed belts (9, 10) each being driven by means of a pinion (22, 24) arranged on a shaft (23, 25) of a drive unit (11, 12) and said toothed belts (9, 10) engaging in a corresponding toothing of the workpiece carrier, wherein the workpiece carrier is displaced along the guide arrangement by means of the toothed belts and both the first toothed belt and the second toothed belt are in operative connection with the toothing of the workpiece carrier in a transfer region, characterized in that the first conveying section is controlled by a first controller and that the second conveying section is controlled by a second controller, wherein a virtual toothed belt is calculated by both the first controller and the second controller, which virtual toothed belt is at a certain position at a certain time, wherein the virtual toothed belt has multiple virtual tooth spaces corresponding to the tooth pitch of the toothed belts (9, 10), wherein, on the basis of an internal timer (28, 29) in both controllers (26, 27), a desired position of the virtual tooth space in the transfer region of the conveying sections (2, 3) is calculated, taking the predefined movement speed of the workpiece carrier into consideration and taking the tooth pitch of the toothed belts (9, 10) into consideration, wherein the virtual tooth space starts moving from a reference position at a reference time and moves at the predefined movement speed in a direction of displacement, wherein the toothed belts (9, 10) are controlled and synchronized by the respective controller (26, 27) via the drive units (11, 12) such that both a first tooth space of the first toothed belt and a second tooth space of the second toothed belt is synchronized with the desired position of the virtual tooth space, so that the workpiece carrier is moved into the transfer region without problems, wherein both the first toothed belt and the second toothed belt are engaged with the workpiece carrier in the transfer region, wherein the desired position of the virtual tooth space is calculated on the basis of the time units that have elapsed since the reference time.
A master device, comprising: a modified serial peripheral interface, SPI, bus including a master-in-slave-out, MISO, line and a master-out-slave-in, MOSI, line; and a modified serial peripheral interface configured to transmit an addressed frame to an addressed one of a plurality of slave devices over the MOSI line and to receive non-addressed frames from each of the slave devices over the MISO line; characterized in that said master device is further comprising an address assignment engine configured to operate in an address assignment mode following a power-on reset of the master device, wherein the address assignment engine includes an clock source configured to drive a clock signal into a clock line in the modified SPI bus during the address assignment mode and includes a local counter configured to count cycles of the clock signal during the assignment mode to determine a local count for identifying an address for a slave device. a modified serial peripheral interface, SPI, bus including a master-in-slave-out, MISO, line and a master-out-slave-in, MOSI, line; and a modified serial peripheral interface configured to transmit an addressed frame to an addressed one of a plurality of slave devices over the MOSI line and to receive non-addressed frames from each of the slave devices over the MISO line; characterized in that said master device is further comprising an address assignment engine configured to operate in an address assignment mode following a power-on reset of the master device, wherein the address assignment engine includes an clock source configured to drive a clock signal into a clock line in the modified SPI bus during the address assignment mode and includes a local counter configured to count cycles of the clock signal during the assignment mode to determine a local count for identifying an address for a slave device.
Chamfer rail having a profile groove for rail-mounted vehicles, particularly for tramways in urban areas, the profile groove thereof comprising side walls (20, 24) preferably having a cross section that is substantially conically divergent in upward direction and having a base in the lower portion thereof, the walls (20, 22) in the upper portion thereof being defined on the one hand by the rail running surface for the vehicles and on the other hand forming a protective boundary for the profile groove, wherein a protective inlay preferably made of plastic, preferably of foamed polyurethane, is adhesively bonded into the profile groove in such manner that the lower portion of the protective inlay is connected to the base of the profile groove by the adhesive bond, the protective inlay furthermore being configured in such manner that in the upper portion thereof it contacts the walls (20, 22) of the profile groove and that in a central portion thereof a free space is formed between its upper portion being in contact with the walls (20, 22) of the profile groove and its lower portion being adhesively bonded to the profile groove, characterized in that the protective inlay is configured with a cross-section thereof substantially having a mushroom-shape, the free space extending over approximately 2/3 of the height of the protective inlay.
A light emitting device adapted for projecting a light beam onto a target surface, the light emitting device comprising: a light engine comprising a light source, a light mixing chamber comprising a light exit window, an optical component having a spherical shape with a curved light-receiving surface, and a diffuser, wherein the light source is arranged to, in operation, emit light towards the light exit window of the light mixing chamber, the light exit window of the light mixing chamber thereby acting as an extended light source with a curved light-emitting surface, wherein the diffuser is provided at the light exit window of the light mixing chamber, wherein the optical component is provided adjacent to the diffuser, and wherein the shape of the diffuser is conformal to the curved light-receiving surface of the optical component and coincident with a focal surface of the optical component, characterized in that the light mixing chamber is divided into at least two compartments (9, 10). a light engine comprising a light source, a light mixing chamber comprising a light exit window, an optical component having a spherical shape with a curved light-receiving surface, and a diffuser, wherein the light source is arranged to, in operation, emit light towards the light exit window of the light mixing chamber, the light exit window of the light mixing chamber thereby acting as an extended light source with a curved light-emitting surface, wherein the diffuser is provided at the light exit window of the light mixing chamber, wherein the optical component is provided adjacent to the diffuser, and wherein the shape of the diffuser is conformal to the curved light-receiving surface of the optical component and coincident with a focal surface of the optical component, characterized in that the light mixing chamber is divided into at least two compartments (9, 10).
Extrusion blow molded article comprising a propylene copolymer (R-PP), wherein the propylene copolymer (R-PP) has (a) a comonomer content in the range of 3.0 to 10.0 mol.-%; (b) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 0.5 to 4.0 g/10min; (c) a relative content of isolated to block ethylene sequences (I) in the range of 45.0 to 69.0 %, wherein the I content is defined by equation I E = fPEP fEEE + f PEE + fPEP × 100 wherein I is the relative content of isolated to block ethylene sequences [in %]; fPEP is the mol fraction of propylene/ethylene/propylene sequences in the sample; fPEE is the mol fraction of propylene/ethylene/ethylene sequences and of ethylene/ethylene/propylene sequences in the sample; fEEE is the mol fraction of ethylene/ethylene/ethylene sequences in the sample; and wherein all sequence concentrations are based on a statistical triad analysis of 13 C-NMR data; and (d) a hexane soluble content in the range of 1.8 to 5.0 wt.-%. (a) a comonomer content in the range of 3.0 to 10.0 mol.-%; (b) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 in the range of 0.5 to 4.0 g/10min; (c) a relative content of isolated to block ethylene sequences (I) in the range of 45.0 to 69.0 %, wherein the I content is defined by equation I E = fPEP fEEE + f PEE + fPEP × 100 wherein I is the relative content of isolated to block ethylene sequences [in %]; fPEP is the mol fraction of propylene/ethylene/propylene sequences in the sample; fPEE is the mol fraction of propylene/ethylene/ethylene sequences and of ethylene/ethylene/propylene sequences in the sample; fEEE is the mol fraction of ethylene/ethylene/ethylene sequences in the sample; and wherein all sequence concentrations are based on a statistical triad analysis of 13 C-NMR data; and I is the relative content of isolated to block ethylene sequences [in %]; fPEP is the mol fraction of propylene/ethylene/propylene sequences in the sample; fPEE is the mol fraction of propylene/ethylene/ethylene sequences and of ethylene/ethylene/propylene sequences in the sample; fEEE is the mol fraction of ethylene/ethylene/ethylene sequences in the sample; (d) a hexane soluble content in the range of 1.8 to 5.0 wt.-%.
Process for producing an all-rubber tire for a piece of mobile machinery, composed of a main body composed of a radially inner base portion that comes into contact with a wheel rim and a radially outer elastic portion, and having a tread portion and two lateral tire flanks which cover the sides at least of the elastic portion, where the base portion and the elastic portion are each constructed by multilayer winding of a calendered rubber mixture, and where the tread portion and the two lateral tire flanks are likewise formed from rubber mixtures, characterized in that the all-rubber tire is produced in a two-stage construction process, where the main body is constructed and vulcanized in the first stage, where the vulcanized main body is completed with the tread portion and the lateral tire flanks in the second stage, and then the tire is vulcanized once again. characterized in that the all-rubber tire is produced in a two-stage construction process, where the main body is constructed and vulcanized in the first stage, where the vulcanized main body is completed with the tread portion and the lateral tire flanks in the second stage, and then the tire is vulcanized once again.
An apparatus comprising: a substrate (210, 510); a plurality of non-planar structures comprised of electrodes disposed above the substrate (210, 510), wherein the plurality of non-planar structures comprise a plurality of first curved surfaces (310, 520, 820); and a dielectric layer (410, 710) disposed above and between the plurality of non-planar structures, wherein the dielectric layer (410, 710) conforms to the plurality of first curved surfaces (310, 520, 820) of the plurality of non-planar structures to form a plurality of second curved surfaces of the dielectric layer (410, 710) having a defined radius of curvature (1020, 1210). a substrate (210, 510); a plurality of non-planar structures comprised of electrodes disposed above the substrate (210, 510), wherein the plurality of non-planar structures comprise a plurality of first curved surfaces (310, 520, 820); and a dielectric layer (410, 710) disposed above and between the plurality of non-planar structures, wherein the dielectric layer (410, 710) conforms to the plurality of first curved surfaces (310, 520, 820) of the plurality of non-planar structures to form a plurality of second curved surfaces of the dielectric layer (410, 710) having a defined radius of curvature (1020, 1210).