mhurhangee/ep-ind-claims huggingface dataset:
A currency sorter comprising: a bundling unit and a money returning unit; take-in means configured to take in currency notes into the sorter one by one; a discrimination unit configured to discriminate the currency notes taken in from the take-in means; stacking means configured to stack currency notes according to the discrimination result obtained by the discrimination unit; the currency sorter being characterised by: a conveyer unit configured to convey a predetermined number of currency notes from the stacking means to the bundling unit, the bundling unit being configured to bundle the predetermined number of currency notes; the conveyor unit being further configured to convey the remaining currency notes left in the stacking means to the money returning unit at which the remaining currency notes are returned, the number of remaining currency notes being a fraction of the predetermined number. take-in means configured to take in currency notes into the sorter one by one; a discrimination unit configured to discriminate the currency notes taken in from the take-in means; stacking means configured to stack currency notes according to the discrimination result obtained by the discrimination unit; the currency sorter being characterised by: a conveyer unit configured to convey a predetermined number of currency notes from the stacking means to the bundling unit, the bundling unit being configured to bundle the predetermined number of currency notes; the conveyor unit being further configured to convey the remaining currency notes left in the stacking means to the money returning unit at which the remaining currency notes are returned, the number of remaining currency notes being a fraction of the predetermined number.
Use of polymeric support materials, which have a furnishing of immobilized cationic polyelectrolytes suitable for adsorbing anionic metallate ions from aqueous solutions, for the binding of metallic oxoanions from aqueous solution at a pH < 8.
Gripper system for gripping blocks of food (6, 6', 6", 6′′′) to be sliced, wherein the gripper system has at least two gripper devices (10, 11, 12, 13), characterized in that at least one of the gripper devices (10, 11, 12, 13) has a length-compensation means (3, 3', 3", 3′′′), wherein the at least one of the gripper devices (10, 11, 12, 13) has a fixing unit (4, 4', 4", 4′′′), wherein the fixing unit (4, 4', 4", 4′′′) is designed in such a way that, with the aid of the fixing unit (4, 4', 4", 4′′′), the length-compensation means (3, 3', 3", 3′′′) is able to be fixed in place, wherein the gripper system has at least one means for evaluating the respective force acting on the respective length-compensation means (3, 3', 3", 3′′′), wherein a threshold value for the respective force is able to be defined, wherein the gripper devices (10, 11, 12, 13) are each designed in such a way that, if the threshold value is exceeded by the respective force, at least the respective block of food (6, 6', 6", 6′′′) is fixed in place with the aid of the gripper devices (10, 11, 12, 13) and the respective fixing unit (4, 4', 4", 4′′′) fixes the respective length-compensation means (3, 3', 3", 3′′′) of the respective gripper device (10, 11, 12, 13) in place.
A method of forming REO dielectric layers and a layer of amorphous silicon oxide between a layer of III-N semiconductor material and a silicon substrate, the method comprising the steps of: providing a crystalline silicon substrate; depositing a first layer of single crystal rare earth oxide on the silicon substrate; depositing a layer of amorphous silicon with uniform thickness on the first layer of rare earth oxide; depositing a second layer of single crystal rare earth oxide on the layer of amorphous silicon, the step of depositing the second layer of rare earth oxide including ramping the temperature of the substrate to a temperature required for epitaxial growth and epitaxially growing the second layer of rare earth oxide, the temperature required for epitaxial growth crystallizing the layer of amorphous silicon to form a layer of crystallized silicon; and oxidizing the crystalline silicon to transform the crystalline silicon to amorphous silicon oxide. providing a crystalline silicon substrate; depositing a first layer of single crystal rare earth oxide on the silicon substrate; depositing a layer of amorphous silicon with uniform thickness on the first layer of rare earth oxide; depositing a second layer of single crystal rare earth oxide on the layer of amorphous silicon, the step of depositing the second layer of rare earth oxide including ramping the temperature of the substrate to a temperature required for epitaxial growth and epitaxially growing the second layer of rare earth oxide, the temperature required for epitaxial growth crystallizing the layer of amorphous silicon to form a layer of crystallized silicon; and oxidizing the crystalline silicon to transform the crystalline silicon to amorphous silicon oxide.
A lighting assembly comprising at least one point-like light source having a first and a second electrical contact (21, 22), a lead frame comprising suitable metal areas to electrically connect the first electrical contact and the second electrical contact of the at least one point-like light source to a power source and to spread heat from the at least one point-like light source via the metal areas, and a suitably shaped plastic layer arranged at least on top of the lead frame, wherein the plastic layer comprises openings arranged above the metal areas, wherein each opening is a via at least partly filled with electrical conductive material, wherein the at least one point-like light source is placed on a first surface of the plastic layer facing away from the lead frame and the at least one point-like light source is in electrical contact with the metal areas of the lead frame by the vias, and wherein one or more conductive traces are applied on the first surface of the plastic layer facing away from the lead frame and electrically insulated from the metal areas of the lead frame to be able to electrically connect additional components not being point-like light sources on the first surface of the plastic layer separately from the lead frame. at least one point-like light source having a first and a second electrical contact (21, 22), a lead frame comprising suitable metal areas to electrically connect the first electrical contact and the second electrical contact of the at least one point-like light source to a power source and to spread heat from the at least one point-like light source via the metal areas, and a suitably shaped plastic layer arranged at least on top of the lead frame, wherein the plastic layer comprises openings arranged above the metal areas, wherein each opening is a via at least partly filled with electrical conductive material, wherein the at least one point-like light source is placed on a first surface of the plastic layer facing away from the lead frame and the at least one point-like light source is in electrical contact with the metal areas of the lead frame by the vias, and wherein one or more conductive traces are applied on the first surface of the plastic layer facing away from the lead frame and electrically insulated from the metal areas of the lead frame to be able to electrically connect additional components not being point-like light sources on the first surface of the plastic layer separately from the lead frame.
A sealed color conversion film comprising a native color conversion film and one or more sealing layers, the native color conversion film • having two major surfaces (021, 022) and at least one edge (011, 012, 013, 014), • comprising a color conversion material (80, 100, 200) which upon excitation with blue light emits light in the visible range; and the sealing layer • is located on all edges of the native color conversion film, thereby providing a complete and defect-free covering of the edges, and • has a thickness of 1 - 500 nm, preferably 3 - 200 nm, most preferably 10 - 100 nm, and • has a thickness standard deviation including all edges of less than 10%, preferably less than 3%, most preferably less than 1%; characterized in that the sealing layer is an atomic layer deposited inorganic layer. the native color conversion film • having two major surfaces (021, 022) and at least one edge (011, 012, 013, 014), • comprising a color conversion material (80, 100, 200) which upon excitation with blue light emits light in the visible range; and • having two major surfaces (021, 022) and at least one edge (011, 012, 013, 014), • comprising a color conversion material (80, 100, 200) which upon excitation with blue light emits light in the visible range; and the sealing layer • is located on all edges of the native color conversion film, thereby providing a complete and defect-free covering of the edges, and • has a thickness of 1 - 500 nm, preferably 3 - 200 nm, most preferably 10 - 100 nm, and • has a thickness standard deviation including all edges of less than 10%, preferably less than 3%, most preferably less than 1%; • is located on all edges of the native color conversion film, thereby providing a complete and defect-free covering of the edges, and • has a thickness of 1 - 500 nm, preferably 3 - 200 nm, most preferably 10 - 100 nm, and • has a thickness standard deviation including all edges of less than 10%, preferably less than 3%, most preferably less than 1%; characterized in that the sealing layer is an atomic layer deposited inorganic layer.
A disposable contact lens package comprising: a first flexible layer; a second flexible layer; a contact lens sealed between said first layer and said second layer; a storage solution sealed between said first flexible layer and said second flexible layer, wherein said storage solution contacts said contact lens; wherein at least one of the first and second layers (15, 16) comprises a single non-laminated layer of material; characterized in that the contact lens is a newly manufactured soft lens; wherein said package containing said contact lens is a retort package configured to be autoclaved. a first flexible layer; a second flexible layer; a contact lens sealed between said first layer and said second layer; a storage solution sealed between said first flexible layer and said second flexible layer, wherein said storage solution contacts said contact lens; wherein at least one of the first and second layers (15, 16) comprises a single non-laminated layer of material; characterized in that the contact lens is a newly manufactured soft lens; wherein said package containing said contact lens is a retort package configured to be autoclaved.
A working vehicle comprising a traveling body which includes: a traveling device (2, 3); and a connecting section which is configured to connect a working machine to the traveling body, wherein the traveling body includes: a pair of left and right body frames which extends longitudinally; an engine which is mounted on the body frames and works as a driving source of the traveling device (2, 3) and the working machine; a base plate which is provided on the body frames; a cooler which is provided on the base plate; and a hose which is connected to the cooler and routed, the base plate has a hose insertion hole into which the hose is inserted, and the hose passes through the hose insertion hole, extends below the base plate, and is routed toward the engine, characterized in that the hose is to be routed while passing through a region between the left and right body frames. a traveling device (2, 3); and a connecting section which is configured to connect a working machine to the traveling body, wherein the traveling body includes: a pair of left and right body frames which extends longitudinally; an engine which is mounted on the body frames and works as a driving source of the traveling device (2, 3) and the working machine; a base plate which is provided on the body frames; a cooler which is provided on the base plate; and a hose which is connected to the cooler and routed, a pair of left and right body frames which extends longitudinally; an engine which is mounted on the body frames and works as a driving source of the traveling device (2, 3) and the working machine; a base plate which is provided on the body frames; a cooler which is provided on the base plate; and a hose which is connected to the cooler and routed, the base plate has a hose insertion hole into which the hose is inserted, and the hose passes through the hose insertion hole, extends below the base plate, and is routed toward the engine, characterized in that the hose is to be routed while passing through a region between the left and right body frames.
A method, implemented using a computer system that includes one or more processors and system memory, for screening a plurality of different protein variants for interaction with a ligand, wherein the plurality of different protein variants comprises at least ten different variants, and wherein the protein variants differ from one another by at least one mutation, the method comprising: (a) creating or receiving a structural model for each of the plurality of variants, wherein each structural model contains a three dimensional computational representation of the active site of the variant; (b) for each protein variant, docking, by the computer system, a computational representation of the ligand to the three dimensional computational representation of the active site of the protein variant, wherein docking (i) generates a plurality of poses of the ligand in the active site of the protein variant, wherein a pose comprises a position or orientation of the ligand with respect to the active site, and (ii) identifies energetically favorable poses of the ligand in the active site, wherein an energetically favorable pose is a pose having an energy that is favorable for binding between the ligand and the protein variant; (c) for each energetically favorable pose, determining whether the pose is active, wherein an active pose meets one or more constraints for the ligand to undergo a particular interaction with the protein variant; and (d) selecting at least one of the protein variants having an active site in which the ligand has one or more active poses as determined in (c). (a) creating or receiving a structural model for each of the plurality of variants, wherein each structural model contains a three dimensional computational representation of the active site of the variant; (b) for each protein variant, docking, by the computer system, a computational representation of the ligand to the three dimensional computational representation of the active site of the protein variant, wherein docking (i) generates a plurality of poses of the ligand in the active site of the protein variant, wherein a pose comprises a position or orientation of the ligand with respect to the active site, and (ii) identifies energetically favorable poses of the ligand in the active site, wherein an energetically favorable pose is a pose having an energy that is favorable for binding between the ligand and the protein variant; (c) for each energetically favorable pose, determining whether the pose is active, wherein an active pose meets one or more constraints for the ligand to undergo a particular interaction with the protein variant; and (d) selecting at least one of the protein variants having an active site in which the ligand has one or more active poses as determined in (c).
A method for manufacturing shoe parts in an automated manner, the method comprising: retrieving a first shoe part utilizing a first conveyance mechanism that includes a first pick-up tool; utilizing a second vision system, determining a position of a base shoe part relative to a stacking surface; situating the first shoe part at the stacking surface such that at least a portion of the first shoe part overlaps at least a portion of the base shoe part at a preset relative position to form a part stack; utilizing the second vision system, determining a position of the part stack relative to the stacking surface; retrieving the part stack from the stacking surface utilizing a second conveyance mechanism that includes a second pick-up-tool; situating the part stack at a stitching machine, the stitching machine having a needle associated therewith; and stitching together at least part of the overlapping portions of the first shoe part and the base shoe part, wherein movement, by the second conveyance mechanism, of the part stack relative to the stitching machine and movement of the needle associated with the stitching machine are controlled by a shared control system such that the respective movements are synchronized.
A plate surface treatment method for a lithographic printing plate comprising: obtaining a lithographic printing plate by platemaking from a photopolymerizable lithographic printing plate precursor provided with an oxygen-blocking protective layer containing inorganic fine particles, and cleaning the lithographic printing plate with an emulsified plate cleaning agent comprising, based on the total weight of the plate cleaning agent: 1-24% by weight of a water-soluble polymer, 0.1-15% by weight of at least one of phosphoric acid or a salt thereof, polyphosphoric acid or a salt thereof, and an organic phosphonic acid or a salt thereof, 0.1-10% by weight of nitric acid and/or a nitrate, 0.01-5% by weight of sulfuric acid, a sulfate or a bisulfate, 45-85% by weight of water, 1-50% by weight of a hydrocarbon-based solvent, 0.5-10% by weight of anionic and nonionic surfactants, and salt in an amount such that the total cation content of salt, based on the total weight of the plate cleaning agent, is 1.0% by weight or more, and 30% by weight or more of the cations are one or more of potassium, caesium and rubidium based on the weight of all cations. obtaining a lithographic printing plate by platemaking from a photopolymerizable lithographic printing plate precursor provided with an oxygen-blocking protective layer containing inorganic fine particles, and cleaning the lithographic printing plate with an emulsified plate cleaning agent comprising, based on the total weight of the plate cleaning agent: 1-24% by weight of a water-soluble polymer, 0.1-15% by weight of at least one of phosphoric acid or a salt thereof, polyphosphoric acid or a salt thereof, and an organic phosphonic acid or a salt thereof, 0.1-10% by weight of nitric acid and/or a nitrate, 0.01-5% by weight of sulfuric acid, a sulfate or a bisulfate, 45-85% by weight of water, 1-50% by weight of a hydrocarbon-based solvent, 0.5-10% by weight of anionic and nonionic surfactants, and 1-24% by weight of a water-soluble polymer, 0.1-15% by weight of at least one of phosphoric acid or a salt thereof, polyphosphoric acid or a salt thereof, and an organic phosphonic acid or a salt thereof, 0.1-10% by weight of nitric acid and/or a nitrate, 0.01-5% by weight of sulfuric acid, a sulfate or a bisulfate, 45-85% by weight of water, 1-50% by weight of a hydrocarbon-based solvent, 0.5-10% by weight of anionic and nonionic surfactants, and salt in an amount such that the total cation content of salt, based on the total weight of the plate cleaning agent, is 1.0% by weight or more, and 30% by weight or more of the cations are one or more of potassium, caesium and rubidium based on the weight of all cations.
A compound for coating a medical device with the formula: wherein the copolymer has one or more hydrophilic domains, at least one hydrophobic domain and comprises polymer units selected from any one or a combination of the group consisting of polyethylene oxide and polypropylene oxide, PEO and polybutadiene, PEO and poly(N-acetylethyleneimine), PEO and phenyl boronic acid, PEO and polyurethane, PEO and polymethylmethacrylate (PMMA), and PEO and polydimethyl sulfoxide; wherein the labile linker comprises an amino acid sequence that contains a protease cleavage site that can be selectively cleaved upon exposure to a protease which in use, is present in the in vivo environment in which the medical device is placed; and wherein the bioactive agent is an agent that has a therapeutic effect and comprises a pharmaceutical agent, a protein, a protein fragment, a peptide, an oligonucleotide, a carbohydrate, a proteoglycan, or an antibody.
Device for a quantum circuit simulator, the device being configured to: obtain a first sequence of quantum gates, which when executed on the quantum circuit simulator require performing matrix-vector multiplications on the quantum circuit simulator, generate a second sequence of quantum gates, which is a subsequence of the first sequence of quantum gates, by implementing a first greedy algorithm with backtracking, calculate a local qubits set and a global qubits set based on the second sequence of quantum gates, generate a set of clusters of quantum gates based on the second sequence of quantum gates, wherein each cluster includes a subset of the quantum gates of the second sequence of quantum gates merged together by implementing a second greedy algorithm without backtracking, generate a third sequence of quantum gates, which contains all quantum gates from the second sequence of quantum gates, according to an order of the clusters, provide the local qubits set and the global qubits set to the quantum circuit simulator, and output the third sequence of quantum gates to the quantum circuit simulator, wherein the device is further configured to, when generating the set of clusters of quantum gates: order a cluster including more quantum gates before a cluster including less quantum gates in the order of the clusters. obtain a first sequence of quantum gates, which when executed on the quantum circuit simulator require performing matrix-vector multiplications on the quantum circuit simulator, generate a second sequence of quantum gates, which is a subsequence of the first sequence of quantum gates, by implementing a first greedy algorithm with backtracking, calculate a local qubits set and a global qubits set based on the second sequence of quantum gates, generate a set of clusters of quantum gates based on the second sequence of quantum gates, wherein each cluster includes a subset of the quantum gates of the second sequence of quantum gates merged together by implementing a second greedy algorithm without backtracking, generate a third sequence of quantum gates, which contains all quantum gates from the second sequence of quantum gates, according to an order of the clusters, provide the local qubits set and the global qubits set to the quantum circuit simulator, and output the third sequence of quantum gates to the quantum circuit simulator, wherein the device is further configured to, when generating the set of clusters of quantum gates: order a cluster including more quantum gates before a cluster including less quantum gates in the order of the clusters.
A halogen-free flame retardant composition comprising: a halogen-free epoxide; and an effective amount of a phosphorated compound to provide flame retardancy, in which the phosphorated compound has an average particle size of less than 10 microns and in which the phosphorated compound is selected from compounds having a formula of in which R 1, R 2 and R 3 each is independently selected from the group consisting of alkyl, aryl, and alicyclic and heterocyclic groups that include nitrogen, oxygen and/or phosphorous; or from ammonium phosphates, ammonium polyphosphates, melamine phosphates, melamine polyphosphates and red phosphorus. a halogen-free epoxide; and an effective amount of a phosphorated compound to provide flame retardancy, in which the phosphorated compound has an average particle size of less than 10 microns and in which the phosphorated compound is selected from compounds having a formula of in which R 1, R 2 and R 3 each is independently selected from the group consisting of alkyl, aryl, and alicyclic and heterocyclic groups that include nitrogen, oxygen and/or phosphorous; or from ammonium phosphates, ammonium polyphosphates, melamine phosphates, melamine polyphosphates and red phosphorus.