mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a sanitary fitting, which is designed for emitting a water jet, said fitting having at least one manual adjustment member for manually adjusting at least one water jet flow or water jet temperature and a sensor array, which is designed for sensor-controlled adjustment of a pre-set water jet flow and a pre-set water jet temperature of the water jet, wherein the sanitary fitting emits the water jet with a pre-defined water jet flow and a pre-defined water jet temperature based on the sensor-controlled adjustment, and wherein the method comprises at least the following steps: a) monitoring of an external detection zone by means of the sensor array, b) detection of the presence of an object in the detection zone by means of the sensor array, c) assessment of the initially detected object and discernment whether the initially detected object is a water jet or another object, d) sensor-controlled adjustment of the pre-set water jet flow and of the pre-set water jet temperature if the other object was detected in the detection zone first, wherein the sensor-controlled adjustment is stopped if a water jet was detected first and only if the other object was detected in the detection zone afterwards. a) monitoring of an external detection zone by means of the sensor array, b) detection of the presence of an object in the detection zone by means of the sensor array, c) assessment of the initially detected object and discernment whether the initially detected object is a water jet or another object, d) sensor-controlled adjustment of the pre-set water jet flow and of the pre-set water jet temperature if the other object was detected in the detection zone first, wherein the sensor-controlled adjustment is stopped if a water jet was detected first and only if the other object was detected in the detection zone afterwards.
Display device with a holding device that can be fitted onto the head of a user, an image-generating module which generates an image and is attached to the holding device, and a multifunction glass which comprises a front side, a rear side, a coupling-in area and a coupling-out area and is attached to the holding device, wherein the generated image is coupled into the multifunction glass via the coupling-in area, guided in the multifunction glass through total internal reflection at the rear side as well as at the front side to the coupling-out area and coupled out via the coupling-out area such that when the holding device is fitted onto the head the user can perceive the coupled-out image superimposed on the surroundings, wherein the coupling-in area comprises a Fresnel structure which brings about a folding of the beam path during the coupling of the image into the multifunction glass and has an imaging property, wherein the Fresnel structure is formed on the front side and comprises several Fresnel segments, wherein the optically effective facets of the Fresnel segments optically correspond to an imaginary optical effective surface which is curved and has neither mirror nor rotational symmetry, wherein the image generated by the image-generating module enters into the multifunction glass via the rear side and strikes the Fresnel structure of the coupling-in area for coupling-in.
A mirror protector comprising a body for fitting over a vehicle wing mirror, the body including an indent in one side of the body such that the mirror protector, when retrofitted to the vehicle wing mirror, allows an exterior light such as an indicator light on the vehicle wing mirror to be seen, characterised in that the indent includes one or more notches extending outwards from the body and into the indent, each notch comprising a rib on the surface of the body.
An optical add and drop multiplexer comprising: a branching unit configured to branch a first wavelength-multiplexed optical signal input through a first transmission line, the first wavelength-multiplexed optical signal including a first optical signal and a second optical signal in a band different from that of the first optical signal; a wavelength selection unit (13; 23) configured to receive one of the branched first wavelength-multiplexed optical signals branched by the branching unit, receive a second wavelength-multiplexed optical signal including a third optical signal in the same band as that of the first optical signal and a fourth optical signal in the same band as that of the second optical signal through a second transmission line, output a third wavelength-multiplexed optical signal including the first optical signal and the fourth optical signal to a third transmission line, and output the third optical signal; and a multiplexing unit configured to output a fourth wavelength-multiplexed optical signal including the other of the branched first wavelength-multiplexed optical signals branched by the branching unit and the third optical signal output from the wavelength selection unit (13; 23) to a fourth transmission line. a branching unit configured to branch a first wavelength-multiplexed optical signal input through a first transmission line, the first wavelength-multiplexed optical signal including a first optical signal and a second optical signal in a band different from that of the first optical signal; a wavelength selection unit (13; 23) configured to receive one of the branched first wavelength-multiplexed optical signals branched by the branching unit, receive a second wavelength-multiplexed optical signal including a third optical signal in the same band as that of the first optical signal and a fourth optical signal in the same band as that of the second optical signal through a second transmission line, output a third wavelength-multiplexed optical signal including the first optical signal and the fourth optical signal to a third transmission line, and output the third optical signal; and a multiplexing unit configured to output a fourth wavelength-multiplexed optical signal including the other of the branched first wavelength-multiplexed optical signals branched by the branching unit and the third optical signal output from the wavelength selection unit (13; 23) to a fourth transmission line.
An adjustable clutch assembly comprising: a base portion; a clutch housing cap; a first rotary member having a first torque transfer surface; said first rotary member configured to rotate about a clutch axis and to rotationally couple to a first shaft; a second rotary member having a second torque transfer surface opposing said first torque transfer surface of said first rotary member at a slip joint; said second rotary member configured to rotate about said clutch axis and to rotationally couple to a second shaft; a spring element disposed axially between said clutch housing cap and said first rotary member and configured to bias said opposed first and second torque transfer surfaces axially towards each other; a gear drive comprising a wheel configured to rotate about said clutch axis and a shaft in engagement with said wheel and configured to rotate about an adjustment axis to thereby selectively rotate said wheel about said clutch axis; said wheel in engagement with said clutch housing cap; said shaft having a first portion to which an adjustment torque may be applied; a locking element constraining rotational movement of said clutch housing cap relative to said base portion; and said gear drive, said base portion, said locking element and said clutch housing cap configured such that selective rotation of said wheel about said clutch axis causes axial movement of said clutch housing cap along said clutch axis relative to said base portion or said second rotary member; whereby said bias of said spring may be adjusted by rotation of said shaft. a base portion; a clutch housing cap; a first rotary member having a first torque transfer surface; said first rotary member configured to rotate about a clutch axis and to rotationally couple to a first shaft; a second rotary member having a second torque transfer surface opposing said first torque transfer surface of said first rotary member at a slip joint; said second rotary member configured to rotate about said clutch axis and to rotationally couple to a second shaft; a spring element disposed axially between said clutch housing cap and said first rotary member and configured to bias said opposed first and second torque transfer surfaces axially towards each other; a gear drive comprising a wheel configured to rotate about said clutch axis and a shaft in engagement with said wheel and configured to rotate about an adjustment axis to thereby selectively rotate said wheel about said clutch axis; said wheel in engagement with said clutch housing cap; said shaft having a first portion to which an adjustment torque may be applied; a locking element constraining rotational movement of said clutch housing cap relative to said base portion; and said gear drive, said base portion, said locking element and said clutch housing cap configured such that selective rotation of said wheel about said clutch axis causes axial movement of said clutch housing cap along said clutch axis relative to said base portion or said second rotary member; whereby said bias of said spring may be adjusted by rotation of said shaft.
A pest control method comprising incorporating an inhibitor against the structural sheath protein into the body of an agricultural target pest expressing SHP, wherein the inhibitor is a compound selected from the group consisting of the following a) and (b): (a) a RNAi inducing compound targeted at the nucleic acid coding SHP or parts thereof; (b) a nucleic acid construct intracellularly producing a RNAi inducing compound targeted at the nucleic acid coding SHP or parts thereof; and wherein the target pest is an insect belonging to a pest belonging to the genera of aphids, in particular Acrytosiphon pisum; and the ingestion by the target pest of said inhibitor reduce feeding of said pest; wherein the RNAi inducing compound is a compound selected from the group consisting of short interfering nucleic acids, siNA, short interfering RNA (siRNA), microRNA (miRNA), short hairpin RNAs (shRNA) and precursors thereof, in particular double-stranded RNA (dsRNA), which are processed in the cell to the actual RNAi inducing compound. (a) a RNAi inducing compound targeted at the nucleic acid coding SHP or parts thereof; (b) a nucleic acid construct intracellularly producing a RNAi inducing compound targeted at the nucleic acid coding SHP or parts thereof;
A security element for security papers, value documents or the like, with - a carrier having an upper side, - a plurality of micro-imaging elements arranged on the upper side of the carrier and at least one motif layer arranged below the micro-imaging elements, said motif layer, together with the micro-imaging elements, forming a moiré magnification arrangement which images a first motif in front of the upper side, wherein the position of the first motif depends on the viewing angle, and - a structure arranged above the micro-imaging elements, said structure, upon viewing from the upper side, showing a second motif in a spatially predetermined position relative to the first motif, characterized in that - the first motif is executed as a raster image in a line grid or dot grid, and - the structure arranged above the micro-imaging elements produces the second motif likewise as a raster image having a gridding that is adapted to the line grid or dot grid, such that the grid elements forming the motif in each case are superimposed individually when the security element is tilted. - a carrier having an upper side, - a plurality of micro-imaging elements arranged on the upper side of the carrier and at least one motif layer arranged below the micro-imaging elements, said motif layer, together with the micro-imaging elements, forming a moiré magnification arrangement which images a first motif in front of the upper side, wherein the position of the first motif depends on the viewing angle, and - a structure arranged above the micro-imaging elements, said structure, upon viewing from the upper side, showing a second motif in a spatially predetermined position relative to the first motif, - the first motif is executed as a raster image in a line grid or dot grid, and - the structure arranged above the micro-imaging elements produces the second motif likewise as a raster image having a gridding that is adapted to the line grid or dot grid, such that the grid elements forming the motif in each case are superimposed individually when the security element is tilted.
A thermoplastic elastomer composition comprising 5 to 30 parts by mass of ethylene-α-olefin-non-conjugated polyene copolymer, 20 to 40 parts by mass of crystalline olefin-based resin having a density of 0.90 g/cm 3 or more and 0.92 g/cm 3 or less, 20 to 40 parts by mass of high-density polyethylene having a density of 0.94 g/cm 3 or more and 0.97 g/cm 3 or less, 5 to 12 parts by mass of ethylene-α-olefin copolymer consisting of ethylene and α-olefin having 3 to 12 carbon atoms, and 5 to 9 parts by mass of silicone compound (with the total amount of,,, and being 100 parts by mass).
A device for the automatic folding and stacking of cloths or other flat, foldable fitted pieces, comprising: - a first placement station for manually placing fitted pieces, - a folding station for the automatic, correctly aligned folding of the fitted pieces, - a de-stacking station for the automatic lay-down of the folded fitted pieces, the placement station being connected, in a first working and transport direction, to the folding station by means of a first mechanical transport device for the fitted pieces, and the folding station being connected to the first transport device by means of a second mechanical transport device and being connected to the de-stacking station by means of a third mechanical transport device, characterized by that a second placement station is arranged as a separate module, which can be connected or is connected, in a second working and transport direction, to the folding station by means of a fourth mechanical transport device for fitted pieces, and the folding station can also be connected or is connected to the second transport device by means of the fourth transport device, that the first transport device can be activated or is activated alternating with the fourth transport device, and that the first and fourth transport devices (5, 10) are transportingly operated in respectively opposed working and transport directions (4, 9). - a first placement station for manually placing fitted pieces, - a folding station for the automatic, correctly aligned folding of the fitted pieces, - a de-stacking station for the automatic lay-down of the folded fitted pieces,
Prepregs comprising a sheet-like fiber layer saturated with polyurethane (matrix material) that has not been fully hardened and that has an NCO value of from 8% by weight to 16% by weight, and that has a Tg-value below 40°C (measured in accordance with DIN EN ISO 53765-A-20), where the polyurethane is obtainable from a reaction mixture composed of A) one or more di- and/or polyisocyanates from the group consisting of aromatic di- and/or polyisocyanates and polymeric homologs of these, and also blends thereof B) a polyol component made of one or more polyols with an average OH number of from 30 to 1000 mg KOH/g (measured in accordance with DIN EN ISO 53240), with an average functionality of from 1.9 to 2.5 C) one or more dianhydrohexitols D) one or more latent catalysts which are catalytically active at temperatures of from 50°C to 100°C E) optionally auxiliaries and/or additives, other than polyepoxides where the initial viscosity of the reaction mixture at 40°C is from 30 to 500 mPas (measured in accordance with DIN EN ISO 53019), and the ratio of the number of the NCO groups in component A) to the number of the OH groups in component B) is from 1.35:1 to 10:1. A) one or more di- and/or polyisocyanates from the group consisting of aromatic di- and/or polyisocyanates and polymeric homologs of these, and also blends thereof B) a polyol component made of one or more polyols with an average OH number of from 30 to 1000 mg KOH/g (measured in accordance with DIN EN ISO 53240), with an average functionality of from 1.9 to 2.5 C) one or more dianhydrohexitols D) one or more latent catalysts which are catalytically active at temperatures of from 50°C to 100°C E) optionally auxiliaries and/or additives, other than polyepoxides
A method comprising: deploying (105, 285) an application (220, 420, 520) developed using a programming model to a data center (250, 450, 550), the data center comprising a corresponding programming model abstraction layer (255, 455, 555), implemented via hardware and software, that abstracts resources of the data center, the data center including data center resources (252, 452, 552) at least some of which support the programming model abstraction layer, wherein the programming model includes resource classes that relate to resources in the data center and the application includes statements that reference resource classes of the programming model, and wherein, upon receipt of the application, the programming model abstraction layer executes all statements for resource classes to determine or estimate resource requirements and nature of resources required responsive to a request; hosting the application at the data center; receiving a request, via a network, for a service provided by the application; and in response to receipt of the request, assigning at least some of the resources of the data center to the execution of the application to allow for fulfilling the request wherein the programming model abstraction layer performs the assigning based in part on reference to a resource class in the application, the resource class modifiable to account for changes in one or more resources of the data center. deploying (105, 285) an application (220, 420, 520) developed using a programming model to a data center (250, 450, 550), the data center comprising a corresponding programming model abstraction layer (255, 455, 555), implemented via hardware and software, that abstracts resources of the data center, the data center including data center resources (252, 452, 552) at least some of which support the programming model abstraction layer, wherein the programming model includes resource classes that relate to resources in the data center and the application includes statements that reference resource classes of the programming model, and wherein, upon receipt of the application, the programming model abstraction layer executes all statements for resource classes to determine or estimate resource requirements and nature of resources required responsive to a request; hosting the application at the data center; receiving a request, via a network, for a service provided by the application; and in response to receipt of the request, assigning at least some of the resources of the data center to the execution of the application to allow for fulfilling the request wherein the programming model abstraction layer performs the assigning based in part on reference to a resource class in the application, the resource class modifiable to account for changes in one or more resources of the data center.
A method for obtaining a preparation of β-amylases from the soluble fraction of starch plants, characterized in that: a) the soluble fraction of starch plants is selected from the group consisting of the soluble fractions of wheat, pea, broad bean, horse bean, rice, barley, rye, buckwheat, sweet potato and potato, - the wheat or barley solubles originate from the "B"-starch separation stream resulting from the separation of starch in the wet wheat or barley starch industry process, respectively, - the potato solubles are obtained by recovery of the soluble fraction resulting from the tuber crushing at the beginning of starch extraction, - the soluble fractions of pea, broad bean, horse bean or rice result from the steep water of pea, broad bean, horse bean or rice and are recovered before crushing and separation of the various constituents of pea, broad bean, horse bean or rice, respectively, b) a clarification of said soluble fractions is carried out in such a way as to remove therefrom the insoluble substances and the colloids, c) an ultrafiltration of said clarified soluble fractions is carried out in such a way as to obtain an ultrafiltration retentate containing the concentrated β-amylase and an ultrafiltration permeate, d) the resulting concentrated β-amylase is recovered. a) the soluble fraction of starch plants is selected from the group consisting of the soluble fractions of wheat, pea, broad bean, horse bean, rice, barley, rye, buckwheat, sweet potato and potato, - the wheat or barley solubles originate from the "B"-starch separation stream resulting from the separation of starch in the wet wheat or barley starch industry process, respectively, - the potato solubles are obtained by recovery of the soluble fraction resulting from the tuber crushing at the beginning of starch extraction, - the soluble fractions of pea, broad bean, horse bean or rice result from the steep water of pea, broad bean, horse bean or rice and are recovered before crushing and separation of the various constituents of pea, broad bean, horse bean or rice, respectively, - the wheat or barley solubles originate from the "B"-starch separation stream resulting from the separation of starch in the wet wheat or barley starch industry process, respectively, - the potato solubles are obtained by recovery of the soluble fraction resulting from the tuber crushing at the beginning of starch extraction, - the soluble fractions of pea, broad bean, horse bean or rice result from the steep water of pea, broad bean, horse bean or rice and are recovered before crushing and separation of the various constituents of pea, broad bean, horse bean or rice, respectively, b) a clarification of said soluble fractions is carried out in such a way as to remove therefrom the insoluble substances and the colloids, c) an ultrafiltration of said clarified soluble fractions is carried out in such a way as to obtain an ultrafiltration retentate containing the concentrated β-amylase and an ultrafiltration permeate, d) the resulting concentrated β-amylase is recovered.
A powder coating composition comprising a polyester polyol, wherein the polyester polyol comprises one or more constitutional units according to formula: wherein X 1 is -(CH 2) 16 - which is optionally substituted one or more times by substituents selected independently from R 1; and R 1 is a halogen atom, -OH, -NH 2, C 1-6 alkyl, C 1-6 heteroalkyl, C 2-6 alkenyl, C 2-6 heteroalkenyl, C 3-10 cycloalkyl, or C 2-10 heterocycloalkyl. wherein X 1 is -(CH 2) 16 - which is optionally substituted one or more times by substituents selected independently from R 1; and R 1 is a halogen atom, -OH, -NH 2, C 1-6 alkyl, C 1-6 heteroalkyl, C 2-6 alkenyl, C 2-6 heteroalkenyl, C 3-10 cycloalkyl, or C 2-10 heterocycloalkyl.
An aqueous composition useful for chemical mechanical polishing of a patterned semiconductor wafer containing a copper interconnect metal comprising an oxidizer, 0.2 to 1.0 weight percent benzotriazole inhibitor for the copper interconnect metal, 0.001 to 15 weight percent of a water soluble modified cellulose, non-saccaride water soluble polymer, 0 to 15 weight percent complexing agent for the copper interconnect metal, 0 to 15 weight percent phosphorus compound, 0.4 to 5 weight percent of an acid compound of a formula as follows: where R is hydrogen or a carbon-containing compound, the acid compound being capable of complexing copper ions, and water; and the solution having an acidic pH.