mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for actuating a valve which has a tappet which is under the action of a spring, can be adjusted between an open position and a closed position in its axial direction and has an adapter which is connected to the valve and a housing which is fixed on the adapter in the operating position, in the case of which apparatus an actuating element which is coupled to the tappet of the valve in the operating position and at least two rod-like latching hooks which are offset in the circumferential direction with respect to one another are attached in the housing, which latching hooks run parallel to the axis of the housing and, in the locking position, engage into a groove-like depression of the adapter by way of projections which are attached to their ends, at least two rod-like holding hooks which are offset in the circumferential direction with respect to one another being attached, moreover, in the housing, which holding hooks are arranged pivotably on the housing and run parallel to the axis thereof and, in the locking position, likewise engage into the groove-like depression of the adapter by way of projections which are attached to their ends, characterized in - that a sliding ring which surrounds the latching hooks which consist of elastically deformable material and the holding hooks and can be adjusted in the axial direction is attached on the outside of the housing, which sliding ring, in the starting state of the apparatus, is held in a rest position with the liberating of the ends of the latching hooks and holding hooks which are equipped with the projections (17, 22), and - that the sliding ring which is released during the placing of the housing onto the adapter is arranged in a position after an axial displacement which is performed in the direction of the valve, in which position it encloses the latching hooks and holding hooks which engage with their projections (17, 22) into the depression of the adapter, at their ends which are equipped with the projections (17, 22), with contact against the said latching hooks and holding hooks. - that a sliding ring which surrounds the latching hooks which consist of elastically deformable material and the holding hooks and can be adjusted in the axial direction is attached on the outside of the housing, which sliding ring, in the starting state of the apparatus, is held in a rest position with the liberating of the ends of the latching hooks and holding hooks which are equipped with the projections (17, 22), and - that the sliding ring which is released during the placing of the housing onto the adapter is arranged in a position after an axial displacement which is performed in the direction of the valve, in which position it encloses the latching hooks and holding hooks which engage with their projections (17, 22) into the depression of the adapter, at their ends which are equipped with the projections (17, 22), with contact against the said latching hooks and holding hooks.
Agricultural field-spraying system comprising an on-board computer and means for determining the amount of active substances dispensed and/or to be metered, the means taking the form of a weighing device, characterized in that there are means by which the amount of active substance to be metered that is in the feed lines (8, 9) connected to the active substance container and leading to the field sprayer is ignored and/or can be eliminated in the calculation by the weighing device when determining the measured values.
A fastening device for fastening a seat assembly onto a sanitary bowl, comprising a mounting plate, to be fixed to the sanitary bowl, and a base body, joined or connectable to the seat assembly and cooperating with the mounting plate; the mounting plate having at least one pair of housings configured to receive respective adjustment members; each adjustment member being provided with a through central opening for insertion of a bolt or another fastening element, and being configured so as to be inserted in a housing in a position selected from a plurality of positions, and so as to change the position of the adjustment member with respect to the mounting plate along two directions perpendicular to each other; wherein each housing comprises a through window which extends between two opposite faces (13, 14) of the mounting plate; and two lateral coupling zones, positioned on opposite sides of the window; characterized in that the lateral coupling zones are provided with respective pluralities of holes arranged in a preset pattern; and wherein the adjustment member is provided with pins projecting from a lower face of the adjustment member, positioned on opposite sides of the central opening, and configured to engage respective holes formed in the housing of the mounting plate.
Carrier structure for fastening an energy storage module in a motor vehicle, having an energy storage module and a carrier plate, wherein - the energy storage module is arranged on the carrier plate, - the carrier plate between two side members is connected to the side members of the motor vehicle via edge-side first assembly points (4a, 4b), - the energy storage module is connected to the carrier plate via second assembly points (5a, 5b) running in the longitudinal direction, - the second assembly points (5a, 5b) are arranged to be aligned with the two first assembly points (4a, 4b) on the opposite longitudinal sides of the carrier plate in pairs in the transverse direction (y direction), and - at least one transverse bracing element is provided which connects the transversely aligned first assembly points (4a, 4b) to each other, characterised in that - at least one connection means is provided with which the energy storage module is connected to the carrier plate in the second assembly points (5a, 5b), forming a frictional bond with the transverse bracing element. - the energy storage module is arranged on the carrier plate, - the carrier plate between two side members is connected to the side members of the motor vehicle via edge-side first assembly points (4a, 4b), - the energy storage module is connected to the carrier plate via second assembly points (5a, 5b) running in the longitudinal direction, - the second assembly points (5a, 5b) are arranged to be aligned with the two first assembly points (4a, 4b) on the opposite longitudinal sides of the carrier plate in pairs in the transverse direction (y direction), and - at least one transverse bracing element is provided which connects the transversely aligned first assembly points (4a, 4b) to each other, characterised in that - at least one connection means is provided with which the energy storage module is connected to the carrier plate in the second assembly points (5a, 5b), forming a frictional bond with the transverse bracing element.
A hydrogel comprising hyaluronic acid or a derivative thereof, loaded with at least one positively charged antimicrobial peptide, without said peptide being covalently linked to the hydrogel, wherein said HA or derivative thereof is cross-linked with a cross-linking agent at the level of its hydroxyl moieties while the carboxyl moieties of HA or derivative thereof remain free and said HA or derivative thereof remains negatively charged, wherein the derivatives of hyaluronic acid are selected from the group consisting of: HA modified with an aldehyde group, amine-modified hyaluronic acid, HA containing photoreactive vinylbenzyl groups, HA modified with a methacrylate group, HA conjugated to Tyramine, and HA conjugated to catechol.
A pharmaceutical or veterinary composition for use to prevent or treat viral infections characterized in that it comprises at least one compound selected from midodrine and desglymidodrine.
Device for an actuation handle comprising an actuation bolt comprising along its longitudinal extension axis at least one section which circumferentially comprises at least one outer edge (4; 44), wherein the device comprises a housing having a first receptacle section for receiving an energy converter for the electrical supply of a radio transmission module by converting mechanical energy into electrical energy, and having a passage for the actuation bolt, wherein the passage comprises a second receptacle section for receiving in a rotationally movable manner that section of the actuation bolt which comprises the at least one outer edge (4; 44), characterized in that the first receptacle section is arranged in a manner adjoining the passage, wherein, in a receiving state of the energy converter, a switching element of the energy converter projects into a rotational path of the at least one outer edge (4; 44) and is actuatable in a switching-effective manner by means of the at least one outer edge (4; 44) during a rotational movement of the actuation bolt.
A bearing assembly for a gear pump, comprising: a bearing housing having a housing bore that extends between a first housing end and a second housing end along a bearing axis; a bearing disposed within the housing bore, the bearing having an outer diameter extending between a first bearing end and a second bearing end; and a biasing member disposed between the bearing and the bearing housing to apply a biasing load to the bearing; characterised in that the bearing includes a first bearing arm that radially extends from the outer diameter of the bearing towards the housing bore and a second bearing arm that is axially spaced apart from the first bearing arm and radially extends from the outer diameter of the bearing towards the housing bore, wherein the biasing member is between the first bearing arm and the second bearing arm; wherein the biasing member includes a first arm that engages the outer diameter of the bearing and a second arm that engages the housing bore. a bearing housing having a housing bore that extends between a first housing end and a second housing end along a bearing axis; a bearing disposed within the housing bore, the bearing having an outer diameter extending between a first bearing end and a second bearing end; and a biasing member disposed between the bearing and the bearing housing to apply a biasing load to the bearing; characterised in that the bearing includes a first bearing arm that radially extends from the outer diameter of the bearing towards the housing bore and a second bearing arm that is axially spaced apart from the first bearing arm and radially extends from the outer diameter of the bearing towards the housing bore, wherein the biasing member is between the first bearing arm and the second bearing arm; wherein the biasing member includes a first arm that engages the outer diameter of the bearing and a second arm that engages the housing bore.
A capacitance determining circuit (10, 20), characterized by, the capacitance determining circuit comprising: a touched layer, configured to receive a touch from a finger, wherein a touch capacitance is formed between the touched layer and the finger; a shielding layer, disposed under the touched layer, wherein a parasitic capacitance is formed between the shielding layer and the touched layer; a driving circuit (104, 204, 504, 604), coupled to the touched layer and the shielding layer, configured to provide a first voltage to the touched layer and the shielding layer at a first time; a sensing circuit, electrically connected to the touched layer, configured to sense the touch capacitance at a second time; and a first switch (SW1, SW2), comprising a first terminal, electrically connected to the shielding layer; and a second terminal, electrically connected to the driving circuit or the touched layer; wherein when the second terminal of the first switch is electrically connected to the driving circuit, the first switch is cutoff at the second time, such that the shielding layer is floating at the second time; wherein when the second terminal of the first switch is electrically connected to the touched layer, the first switch is conducted at the second time. a touched layer, configured to receive a touch from a finger, wherein a touch capacitance is formed between the touched layer and the finger; a shielding layer, disposed under the touched layer, wherein a parasitic capacitance is formed between the shielding layer and the touched layer; a driving circuit (104, 204, 504, 604), coupled to the touched layer and the shielding layer, configured to provide a first voltage to the touched layer and the shielding layer at a first time; a sensing circuit, electrically connected to the touched layer, configured to sense the touch capacitance at a second time; and a first switch (SW1, SW2), comprising a first terminal, electrically connected to the shielding layer; and a second terminal, electrically connected to the driving circuit or the touched layer; a first terminal, electrically connected to the shielding layer; and a second terminal, electrically connected to the driving circuit or the touched layer; wherein when the second terminal of the first switch is electrically connected to the driving circuit, the first switch is cutoff at the second time, such that the shielding layer is floating at the second time; wherein when the second terminal of the first switch is electrically connected to the touched layer, the first switch is conducted at the second time.
A pressure swing adsorption system comprising: a plurality of adsorption beds; and a rotary valve (300; 500) having one or more rotors (320, 330; 510) configured to rotate about an axis (A; B) of rotation, the rotary valve (300; 500) connected to the plurality of adsorption beds and configured to direct flows to the plurality of adsorption beds during the pressure swing adsorption process; characterized in that the rotary valve (300; 500) comprises: at least two compression springs (350; 530) having a spring force (F 1) with a center of force configured to apply the spring force (F 1) to the one or more rotors (320, 330; 510), wherein the center of force of the spring force (F 1) is located a predetermined distance greater than zero from the axis (A; B) of rotation, such that the amount of torque required to turn the one or more rotors (320, 330; 510) is minimized. a plurality of adsorption beds; and a rotary valve (300; 500) having one or more rotors (320, 330; 510) configured to rotate about an axis (A; B) of rotation, the rotary valve (300; 500) connected to the plurality of adsorption beds and configured to direct flows to the plurality of adsorption beds during the pressure swing adsorption process; characterized in that the rotary valve (300; 500) comprises: at least two compression springs (350; 530) having a spring force (F 1) with a center of force configured to apply the spring force (F 1) to the one or more rotors (320, 330; 510), wherein the center of force of the spring force (F 1) is located a predetermined distance greater than zero from the axis (A; B) of rotation, such that the amount of torque required to turn the one or more rotors (320, 330; 510) is minimized. at least two compression springs (350; 530) having a spring force (F 1) with a center of force configured to apply the spring force (F 1) to the one or more rotors (320, 330; 510), wherein the center of force of the spring force (F 1) is located a predetermined distance greater than zero from the axis (A; B) of rotation, such that the amount of torque required to turn the one or more rotors (320, 330; 510) is minimized.
Method for configuring a forecasting device for a technical system for forecasting a system state of the technical system, wherein the forecasting device is designed to forecast a physical behaviour of the technical system on the basis of a force acting on the technical system, wherein the acting force is determined by an approximator, comprising the following method steps: a. reading in a time series of measured system states of the technical system, b. setting configuration parameters of the approximator by iteratively - forecasting the physical behaviour of the technical system starting from a first read-in system state by way of the forecasting device and outputting a resulting system state at a given point in time, - ascertaining a deviation of this resulting system state from a measured system state at the given point in time, - modifying the configuration parameters of the approximator such that the ascertained deviation is minimized until a predefined threshold value is fallen below, - and providing the approximator modified in accordance with the ascertained configuration parameters, wherein the approximator is in the form of an artificial neural network, and wherein the configuration parameters are values of weights of the artificial neural network, and c. providing the forecasting device comprising the modified approximator. a. reading in a time series of measured system states of the technical system, b. setting configuration parameters of the approximator by iteratively - forecasting the physical behaviour of the technical system starting from a first read-in system state by way of the forecasting device and outputting a resulting system state at a given point in time, - ascertaining a deviation of this resulting system state from a measured system state at the given point in time, - modifying the configuration parameters of the approximator such that the ascertained deviation is minimized until a predefined threshold value is fallen below, - and providing the approximator modified in accordance with the ascertained configuration parameters, wherein the approximator is in the form of an artificial neural network, and wherein the configuration parameters are values of weights of the artificial neural network, and - forecasting the physical behaviour of the technical system starting from a first read-in system state by way of the forecasting device and outputting a resulting system state at a given point in time, - ascertaining a deviation of this resulting system state from a measured system state at the given point in time, - modifying the configuration parameters of the approximator such that the ascertained deviation is minimized until a predefined threshold value is fallen below, - and providing the approximator modified in accordance with the ascertained configuration parameters, c. providing the forecasting device comprising the modified approximator.
A balloon catheter comprising: a catheter body having a balloon mounted thereon, the balloon having an outer expandable portion at least partially coated with a conductive material, functioning as at least one electrode, and at least partially coated with a pH sensitive coating containing a drug. a catheter body having a balloon mounted thereon, the balloon having an outer expandable portion at least partially coated with a conductive material, functioning as at least one electrode, and at least partially coated with a pH sensitive coating containing a drug.
Method for operation of a wind energy installation having an electrical generator which can be driven by a rotor in order to supply electrical power to an electrical network, in particular to its connected loads, wherein the network has a network voltage which fluctuates, characterised in that in order to reduce undesirable network voltage fluctuations at a specified point in the network the phase angleφof the electrical power provided by the wind energy installation is varied as a function of at least one voltage detected in the network, and in that the phase angle φ is defined by the angle between the current and the voltage of the power fed into the network.
An isolated eukaryotic cell, wherein said isolated eukaryotic cell is not a human germ cell, characterized in that said cell is modified by transfection or transformation with a nucleic acid molecule comprising a transcription cassette, the transcription cassette comprising at least one nucleotide sequence encoding a transfer RNA [tRNA], the tRNA including an anticodon nucleotide sequence selected from the group consisting of AGC, GGC, CGC, UGC, ACC, GCC, CCC, UCC, AGG, GGG, CGG, UGG, AGU, GGU, CGU, UGU, AAC, GAC, CAC, UAC, AAA, GAA, AUU, GUU, CUU, UUU, AUC, GUC, CUC, UUC, AGA, GGA, CGA, UGA, ACU, GCU, ACG, GCG, CCG, UCG, CCU, UCU, AAG, GAG, CAG, UAG, CAA, UAA, AAU, GAU, UAU, CAU, AUA, GUA, ACA, GCA, AUG, GUG, CUG, UUG, CCA and that is absent from said eukaryotic cell, wherein said anticodon sequence corrects base mismatches at any one of the cognate first, second or third nucleotide position in the corresponding messenger RNA [mRNA] codon to improve translation efficiency and/or decrease amino acid mis-incorporation as a consequence of degeneracy in the genetic code, and wherein said base mismatch correction reduces said cells reliance on wobble during translation of said mRNA. the tRNA including an anticodon nucleotide sequence selected from the group consisting of AGC, GGC, CGC, UGC, ACC, GCC, CCC, UCC, AGG, GGG, CGG, UGG, AGU, GGU, CGU, UGU, AAC, GAC, CAC, UAC, AAA, GAA, AUU, GUU, CUU, UUU, AUC, GUC, CUC, UUC, AGA, GGA, CGA, UGA, ACU, GCU, ACG, GCG, CCG, UCG, CCU, UCU, AAG, GAG, CAG, UAG, CAA, UAA, AAU, GAU, UAU, CAU, AUA, GUA, ACA, GCA, AUG, GUG, CUG, UUG, CCA and that is absent from said eukaryotic cell, wherein said anticodon sequence corrects base mismatches at any one of the cognate first, second or third nucleotide position in the corresponding messenger RNA [mRNA] codon to improve translation efficiency and/or decrease amino acid mis-incorporation as a consequence of degeneracy in the genetic code, and wherein said base mismatch correction reduces said cells reliance on wobble during translation of said mRNA.
A chemical-mechanical polishing method for polishing a tungsten-containing substrate comprising abrading a surface of the substrate with a CMP composition comprising an aqueous carrier containing: (a) a polyamino compound; (b) at least one metal ion selected from a transition metal ion and a group IIIA/IVA metal ion; (c) a chelating agent, wherein the chelating agent comprises at least one compound selected from the group consisting of malonic acid, methylmalonic acid, ethylmalonic acid, phenylmalonic acid, and hydroxyethylidene-1,1-diphosphonic acid, and wherein the at least one metal ion and the chelating agent are present at a respective molar ratio of 0.5:1 to 2:1; (d) a particulate aluminum doped silica abrasive, wherein the aluminum doped silica abrasive is present in the composition, at point of use, at a concentration in the range of 0.05 to 3 percent by weight (wt%); (e) an oxidizing agent; and (f) optionally, an amino acid. (a) a polyamino compound; (b) at least one metal ion selected from a transition metal ion and a group IIIA/IVA metal ion; (c) a chelating agent, wherein the chelating agent comprises at least one compound selected from the group consisting of malonic acid, methylmalonic acid, ethylmalonic acid, phenylmalonic acid, and hydroxyethylidene-1,1-diphosphonic acid, and wherein the at least one metal ion and the chelating agent are present at a respective molar ratio of 0.5:1 to 2:1; (d) a particulate aluminum doped silica abrasive, wherein the aluminum doped silica abrasive is present in the composition, at point of use, at a concentration in the range of 0.05 to 3 percent by weight (wt%); (e) an oxidizing agent; and (f) optionally, an amino acid.