mhurhangee/ep-ind-claims huggingface dataset:
A charging device for electrically charging a member-to-be-charged, comprising: a corona charger provided with a charging electrode, said corona charger forming an opening closer to the member-to-be-charged than a charging electrode; and a sheet-like member provided so that said sheet-like member can cover the opening; characterized by further comprising movable means configured to move said sheet-like member in a long direction of the opening of said corona charger; and regulating means (16, 17) configured to regulate a shape of said sheet-like member so that a central portion of said sheet-like member with respect to a short direction, perpendicular to the long direction, of the opening of said corona charger protrudes toward the charging electrode more than end portions in the short direction of said sheet-like member. a corona charger provided with a charging electrode, said corona charger forming an opening closer to the member-to-be-charged than a charging electrode; and a sheet-like member provided so that said sheet-like member can cover the opening; characterized by further comprising movable means configured to move said sheet-like member in a long direction of the opening of said corona charger; and regulating means (16, 17) configured to regulate a shape of said sheet-like member so that a central portion of said sheet-like member with respect to a short direction, perpendicular to the long direction, of the opening of said corona charger protrudes toward the charging electrode more than end portions in the short direction of said sheet-like member.
An integrated circuit package (400; 700; 800), comprising: a first guard bond wire (410; 830, 840) having a first and second end coupled to ground; a second guard bond wire (420; 831, 841) having a first and second end coupled to ground; and a die (101; 801, 802) mounted between the first and second guard bond wires such that the first and second guard bond wires distort a magnetic field between at least an input terminal and an output terminal of the die, wherein the die has a surface area with a first side and a second side that is opposite to the first side and at least a portion of the first guard bond wire is aligned with the first side of the die and at least a portion of the second guard bond wire is aligned with the second side of the die; a flange on which the die is mounted; wherein the at least a portion of the first guard bond wire is aligned with the first side such that the at least a portion of the first bond wire runs parallel to and along the length of the first side of the die, and wherein the at least a portion of the second guard bond wire is aligned with the second side such that the at least a portion of the second guard bond wire runs parallel to and along the length of the second side of the die; wherein the first and/or second end of the first guard bond wire is/are coupled to ground through a flange mounted first and/or second capacitor (411, 421; 701, 703), respectively, and the first and/or second end of the second guard bond wire is/are coupled to ground through a flange mounted third and/or fourth capacitor (412, 422; 702, 704), respectively. a first guard bond wire (410; 830, 840) having a first and second end coupled to ground; a second guard bond wire (420; 831, 841) having a first and second end coupled to ground; and a die (101; 801, 802) mounted between the first and second guard bond wires such that the first and second guard bond wires distort a magnetic field between at least an input terminal and an output terminal of the die, wherein the die has a surface area with a first side and a second side that is opposite to the first side and at least a portion of the first guard bond wire is aligned with the first side of the die and at least a portion of the second guard bond wire is aligned with the second side of the die; a flange on which the die is mounted; wherein the at least a portion of the first guard bond wire is aligned with the first side such that the at least a portion of the first bond wire runs parallel to and along the length of the first side of the die, and wherein the at least a portion of the second guard bond wire is aligned with the second side such that the at least a portion of the second guard bond wire runs parallel to and along the length of the second side of the die; wherein the first and/or second end of the first guard bond wire is/are coupled to ground through a flange mounted first and/or second capacitor (411, 421; 701, 703), respectively, and the first and/or second end of the second guard bond wire is/are coupled to ground through a flange mounted third and/or fourth capacitor (412, 422; 702, 704), respectively.
A device for filling and occluding a vascular malformation comprising: a distal portion configured to conform to an interior surface of a vascular malformation; and, a proximal portion configured to substantially fill a remaining interior volume of the vascular malformation after said distal portion is deployed therein; wherein said device comprises a tubular braid connected to at least one coil (16, 26), characterized in that said proximal portion is connected to and extends from said distal portion, and one of said distal portion and said proximal portion is represented by said tubular braid, and the other of said distal portion and said proximal portion is represented by said at least one coil (16, 26). a distal portion configured to conform to an interior surface of a vascular malformation; and, a proximal portion configured to substantially fill a remaining interior volume of the vascular malformation after said distal portion is deployed therein; wherein said device comprises a tubular braid connected to at least one coil (16, 26), characterized in that said proximal portion is connected to and extends from said distal portion, and one of said distal portion and said proximal portion is represented by said tubular braid, and the other of said distal portion and said proximal portion is represented by said at least one coil (16, 26).
A rehabilitation unit for assisted walking comprising a frame, at least one carriage, coupled to said frame and configured for at least partially supporting a patient, wherein said frame is peripherally delimited by a respective first edge that defines a first annular path and supports the at least one carriage, bilateral constraint means for coupling said at least one carriage to said frame in a sliding manner along said first annular path, wherein said bilateral constraint means comprise a first guide carried by said first edge and shaped like said first annular path; wherein each said at least one carriage comprises a support externally delimited by a panel (222, 224, 226) that extends over a first side of said first guide, opposite said frame, and that extends over a second side of said first guide, substantially perpendicular to said first side, and adjusting means (240, 242) for adjusting the position of said panel (222, 224, 226) with respect to said first guide.
A blockchain-based data processing method, comprising: calculating a submission time based on a base time and a submission time interval, wherein the base time comprises at least one of the following: a latest time of submitting false transaction information to a blockchain; or a latest time of submitting actual transaction information to the blockchain; generating the false transaction information when no actual transaction information to be submitted exists when the submission time arrives, wherein transaction content in the false transaction information comprises at least one of the following: a transaction amount with a value of zero; or blank storage information; performing privacy protection processing on the transaction content in the false transaction information by using a cryptographic algorithm; and submitting the false transaction information to the blockchain. calculating a submission time based on a base time and a submission time interval, wherein the base time comprises at least one of the following: a latest time of submitting false transaction information to a blockchain; or a latest time of submitting actual transaction information to the blockchain; a latest time of submitting false transaction information to a blockchain; or a latest time of submitting actual transaction information to the blockchain; generating the false transaction information when no actual transaction information to be submitted exists when the submission time arrives, wherein transaction content in the false transaction information comprises at least one of the following: a transaction amount with a value of zero; or blank storage information; a transaction amount with a value of zero; or blank storage information; performing privacy protection processing on the transaction content in the false transaction information by using a cryptographic algorithm; and submitting the false transaction information to the blockchain.
Process for the determination of the activity of a photo-catalytically active compound comprising the steps of providing the photo-catalytically active compound, contacting the photo-catalytically active compound with an indicator compound that is degradable under irradiation in the presence of the photo-catalytically active compound, irradiating the photo-catalytically active compound which is contacted with the degradable indicator compound using irradiation having a catalyzing wavelength activating the activity of the photo-catalytically active compound, irradiating the indicator compound using irradiation of an inductor wavelength inducing its emission, detecting the irradiation emitted by the photo catalytically degradable compound, characterized in that the indicator compound has a structure according to formula I wherein M is a rare earth metal iron, wherein the rare earth metal is selected from Europium and Terbium, the ligand systems A and B in total have a charge compensating M, p = 0, 1, 2 or 3, q = 0, 1, 2, 3, 4 or 5, r = 1, 2 or 3, m, n and o = 1, 2, 3 or 4, E and T independently from one another are a bond or 1 to 3 atoms, X 1, X 2, X m, Y 1, Y 2, Y n, Z 1, Z 2, Z o independently from one another are selected from the group comprising C, O, S, N, Se, A1, A2, A3 are neutral or negatively charged atoms which independently from one another are selected from the group comprising C, O, S, N, Se, and V, W are independently from one another are selected from the group comprising C, O, S, N, Se and U comprises a group arranged between V and W of 1 to 5 atoms, which are selected from the group comprising C, N, O, S and Se. wherein M is a rare earth metal iron, wherein the rare earth metal is selected from Europium and Terbium, the ligand systems A and B in total have a charge compensating M, p = 0, 1, 2 or 3, q = 0, 1, 2, 3, 4 or 5, r = 1, 2 or 3, m, n and o = 1, 2, 3 or 4, E and T independently from one another are a bond or 1 to 3 atoms, X 1, X 2, X m, Y 1, Y 2, Y n, Z 1, Z 2, Z o independently from one another are selected from the group comprising C, O, S, N, Se, A1, A2, A3 are neutral or negatively charged atoms which independently from one another are selected from the group comprising C, O, S, N, Se, and V, W are independently from one another are selected from the group comprising C, O, S, N, Se and U comprises a group arranged between V and W of 1 to 5 atoms, which are selected from the group comprising C, N, O, S and Se.
A notching apparatus for a secondary battery, the notching apparatus comprising: a notching unit shearing an electrode into a predetermined pattern; a heating unit drying the electrode processed by the notching unit; and a collecting unit collecting the electrode dried by the heating unit, wherein the heating unit comprises: a heating body having a drying space through which the electrode sheared by the notching unit passes; and heating members directly heating a surface of the electrode passing through the drying space to dry moisture remaining on the electrode; wherein each of the heating members comprises: a mounting part provided in the drying space; and a plurality of heating lamps installed on the mounting part and disposed close to the surface of the electrode to directly heat the surface of the electrode so as to dry the moisture remaining on the electrode; wherein the mounting part comprises: a fixed plate provided in the drying space; and a guide plate which is slidably coupled to the fixed plate and on which the plurality of heating lamps are installed. a notching unit shearing an electrode into a predetermined pattern; a heating unit drying the electrode processed by the notching unit; and a collecting unit collecting the electrode dried by the heating unit, wherein the heating unit comprises: a heating body having a drying space through which the electrode sheared by the notching unit passes; and heating members directly heating a surface of the electrode passing through the drying space to dry moisture remaining on the electrode; wherein each of the heating members comprises: a mounting part provided in the drying space; and a plurality of heating lamps installed on the mounting part and disposed close to the surface of the electrode to directly heat the surface of the electrode so as to dry the moisture remaining on the electrode; wherein the mounting part comprises: a fixed plate provided in the drying space; and a guide plate which is slidably coupled to the fixed plate and on which the plurality of heating lamps are installed. a heating body having a drying space through which the electrode sheared by the notching unit passes; and heating members directly heating a surface of the electrode passing through the drying space to dry moisture remaining on the electrode; a mounting part provided in the drying space; and a plurality of heating lamps installed on the mounting part and disposed close to the surface of the electrode to directly heat the surface of the electrode so as to dry the moisture remaining on the electrode; a fixed plate provided in the drying space; and a guide plate which is slidably coupled to the fixed plate and on which the plurality of heating lamps are installed.
A delivery method to the corresponding passenger of packages/luggage in an individualized and modular way at an airport or other transport terminals, the method comprising: • Reading and identification of each of the packages/luggage; • Identifying the passenger through an interactive screen stand or mobile application; • Reconciling the packages/luggage data with the passenger data; • Positioning the package/luggage on an individual box for delivery, whereby the individual boxes are arranged in a modular way in a plurality of columns each with two levels; • Indication to the passenger of the steps to follow in order to access their luggage; and • Delivery of the packages/luggage by opening the individual box to the passenger after successful identification; wherein the positioning of the package/luggage on each individual box is achieved by • continuous circulation of the packages/luggage by means of a central warehouse configured in the same two levels as the individual boxes wherein the two levels are connected by motorised curves or automatic elevators that allow the luggage to be raised and lowered from one level to the other; • Temporary storage and perpendicular and horizontal diversion of the packages/luggage from the central warehouse towards the final delivery boxes; • Temporary storage of the diverted packages/luggage in spaces or storage belts before their final positioning in the final delivery individual boxes • Reading and identification of each of the packages/luggage; • Identifying the passenger through an interactive screen stand or mobile application; • Reconciling the packages/luggage data with the passenger data; • Positioning the package/luggage on an individual box for delivery, whereby the individual boxes are arranged in a modular way in a plurality of columns each with two levels; • Indication to the passenger of the steps to follow in order to access their luggage; and • Delivery of the packages/luggage by opening the individual box to the passenger after successful identification; wherein the positioning of the package/luggage on each individual box is achieved by • continuous circulation of the packages/luggage by means of a central warehouse configured in the same two levels as the individual boxes wherein the two levels are connected by motorised curves or automatic elevators that allow the luggage to be raised and lowered from one level to the other; • Temporary storage and perpendicular and horizontal diversion of the packages/luggage from the central warehouse towards the final delivery boxes; • Temporary storage of the diverted packages/luggage in spaces or storage belts before their final positioning in the final delivery individual boxes
A method for applying a label to a substrate, the method comprising: a. applying a printable release layer to a transfer mechanism; b. applying an ink layer to the printable release layer; c. applying a binding layer to the ink layer; and d. contacting the binding layer to the substrate such that the binding layer and the ink layer are substantially removed from the transfer mechanism, wherein the transfer mechanism comprises a moving conveyer belt or sheet feed, wherein the method further comprises the step of curing and/or drying through heating the ink layer, the binding layer, or both the ink layer and the binding layer between steps c and d, and wherein drying through heating is commenced before curing if both curing and drying through heating are performed, and wherein the printable release layer preferably comprises a low surface energy material. a. applying a printable release layer to a transfer mechanism; b. applying an ink layer to the printable release layer; c. applying a binding layer to the ink layer; and d. contacting the binding layer to the substrate such that the binding layer and the ink layer are substantially removed from the transfer mechanism, wherein the transfer mechanism comprises a moving conveyer belt or sheet feed, wherein the method further comprises the step of curing and/or drying through heating the ink layer, the binding layer, or both the ink layer and the binding layer between steps c and d, and wherein drying through heating is commenced before curing if both curing and drying through heating are performed, and wherein the printable release layer preferably comprises a low surface energy material.
Cage for housing laboratory animals, comprising a cage base and a lid attachable to said cage base and having a seat for receiving in a removable manner a drinking bottle, said cage base comprising a bottom wall defining a base plane and having an inner surface which can be treated by the animals, and an outer surface (11"), wherein said bottom wall defines a raised portion 14 protruding towards the inside of said cage base and a corresponding recess in the same zone of said raised portion of said bottom wall, said recess being arranged so that, when said cage is placed inside a cage post of a housing shelf, said recess is in correspondence to said seat formed on the lid of a similar cage inserted in the underlying cage post, wherein said cage base has a substantially quadrangular shape comprising a pair of short sides and a pair of long sides, characterized in that said at least one recess is adjacent to only one of said short sides of said cage base and to only one of the long sides of said cage base, in correspondence to corner of said cage base.
Fertilizer mixture comprising A. calcium ammonium nitrate mineral fertilizer which, besides ammonium nitrate and calcium carbonate and/or magnesium carbonate and optionally water, may contain up to 15 wt%, based on the calcium ammonium nitrate mineral fertilizer without water, of further ingredients, B. 100 to 10 000 ppm by weight, based on component A without water, of 2-(N-3,4-dimethylpyrazole)succinic acid. A. calcium ammonium nitrate mineral fertilizer which, besides ammonium nitrate and calcium carbonate and/or magnesium carbonate and optionally water, may contain up to 15 wt%, based on the calcium ammonium nitrate mineral fertilizer without water, of further ingredients, B. 100 to 10 000 ppm by weight, based on component A without water, of 2-(N-3,4-dimethylpyrazole)succinic acid.
A digital signal processing apparatus, comprising: a plurality of digital signal processing blocks (31, 32, 33, 34) and a host arithmetic operation processing block as functions necessary for processing a digital signal; a common bus for connecting said host arithmetic operation processing block and said plurality of digital signal processing blocks; an interface for an extension function providing medium connected to said common bus; and means for encrypting the data of the stream that is output through said interface of the extension function providing medium when the data of the stream is transferred to the extension function providing medium through said common bus. a plurality of digital signal processing blocks (31, 32, 33, 34) and a host arithmetic operation processing block as functions necessary for processing a digital signal; a common bus for connecting said host arithmetic operation processing block and said plurality of digital signal processing blocks; an interface for an extension function providing medium connected to said common bus; and means for encrypting the data of the stream that is output through said interface of the extension function providing medium when the data of the stream is transferred to the extension function providing medium through said common bus.
A crystalline form of dolutegravir sodium of formula characterized by a powder X-ray diffractogram comprising peaks at 2-Theta angles of 7.9 ± 0.2°, 9.4 ± 0.2°, 12.5 ± 0.2°, 15.9 ± 0.2° and 20.8 ± 0.2°, when measured with Cu-Kα 1,2 radiation having a wavelength of 0.15419 nm at room temperature,wherein the crystalline form of dolutegravir sodium of formula comprises 0.2 to 0.7 mol of water per mol dolutegravir sodium of formula when measured at a relative humidity from 30 to 70% and a temperature of 25 ± 0.1 °C.