mhurhangee/ep-ind-claims huggingface dataset:
A device (10, 10a, 10b) for collecting a plurality of flexible, planar products, preferably printed products, the device (10, 10a, 10b) having a product collection unit (12, 12a), a first processing unit (14, 14'), and a second processing unit (16, 16', 16") for the synchronised processing, for example feeding, of products, the product collection unit (14, 14') having a main drive controller, which is operatively connected to a main drive (20, 20') for driving a conveying means (22, 22a, 22b), the first processing unit (14, 14') having a first drive controller (24, 24'), which is operatively connected to a first drive (26, 26', 26"), and the second processing unit (16, 16', 16") having a second drive controller, which is operatively connected to a second drive, the main drive controller and the first and second drive controllers (24, 28) being operatively connected to each other via a first data bus (32, 32'), characterised in that the product collection unit (12, 12a) has a first control system, which is connected to the main drive controller, and the first control system is connected to the first data bus (32, 32'), the first processing unit (14, 14') has a first data collector (34, 34'), which is connected to the main drive controller and the first drive controller (24, 24') via the first data bus (32, 32'), and the second processing unit (16, 16', 16") has a second data collector (36, 36'), which is connected to the first drive controller (24, 24') and the second drive controller via the first data bus (32, 32').
Friction clutch for a drivetrain of a motor vehicle, having a pressure plate which is connected rotationally conjointly, but so as to be axially displaceable to a limited extent, to a housing cover, having a lever spring, which is preferably in the form of a disc spring, for the exertion of force on the pressure plate in an axial direction, wherein the lever spring is mounted by way of at least one disc spring centring bolt on the housing cover, wherein the disc spring centring bolt has, at a first end, a face surface with a bolt shank which projects out of the face surface, wherein the bolt shank is, in an installed state, mounted in a corresponding receiving opening of the housing cover, and the face surface of the disk spring centring bolt and an inner surface of the housing cover form an overlap region, characterized in that the overlap region has a contact region and a contact-free region, wherein the contact region is arranged radially outside the bolt shank, and the contact-free region is arranged radially at the inside, adjacent to the bolt shank of the disc spring centring bolt.
An apparatus for manufacturing an electrode assembly, in which an electrode and a separator are alternately stacked on a stack table, and the separator is folded in a zigzag shape so that the electrode is disposed between the folded separators to manufacture the electrode assembly, the apparatus comprising: a separator supply unit configured to supply the separator to the stack table; and a separator tension adjustment unit configured to constantly adjust tension of the separator supplied to the stack table, wherein the separator supply unit comprises a separator winding roll around which the separator is wound, and the separator tension adjustment unit configured to adjust a supply height of the separator winding roll to adjust the tension of the separator. a separator supply unit configured to supply the separator to the stack table; and a separator tension adjustment unit configured to constantly adjust tension of the separator supplied to the stack table, wherein the separator supply unit comprises a separator winding roll around which the separator is wound, and the separator tension adjustment unit configured to adjust a supply height of the separator winding roll to adjust the tension of the separator.
A semiconductor circuit (1, 1E, 1F, 2), comprising: a first circuit (IV1, IV3) configured to generate, on a basis of a voltage at a first node, a first inverted voltage of the voltage at the first node, and apply the first inverted voltage to a second node; a second circuit (IV2, IV4) configured to generate, on a basis of a voltage at the second node, a second inverted voltage of the voltage at the second node, and apply the second inverted voltage to the first node; a first transistor coupling either the first node or the second node to a third node, wherein one of the drain and the source of the first transistor is coupled to the first node or the second node, and the other of the drain and the source of the first transistor is coupled to the third node, and a gate of the first transistor is supplied with a control voltage; a second transistor (32, 32B) coupled to the same of either the first node or the second node to which the first transistor is coupled to and to the third node, and supplied with a first control voltage, wherein a gate of the second transistor (32, 32B) is coupled to 1 said same of either the first node or the second node to which the first transistor is coupled to, one of the drain and the source of the second transistor (32, 32B) is coupled to the third node, and the other of the drain and the source of the second transistor (32, 32B) is supplied with the first control voltage; and a first storage element (35, 37) including a first end coupled to the third node and a second end supplied with a second control voltage (SCTRL). a first circuit (IV1, IV3) configured to generate, on a basis of a voltage at a first node, a first inverted voltage of the voltage at the first node, and apply the first inverted voltage to a second node; a second circuit (IV2, IV4) configured to generate, on a basis of a voltage at the second node, a second inverted voltage of the voltage at the second node, and apply the second inverted voltage to the first node; a first transistor coupling either the first node or the second node to a third node, wherein one of the drain and the source of the first transistor is coupled to the first node or the second node, and the other of the drain and the source of the first transistor is coupled to the third node, and a gate of the first transistor is supplied with a control voltage; a second transistor (32, 32B) coupled to the same of either the first node or the second node to which the first transistor is coupled to and to the third node, and supplied with a first control voltage, wherein a gate of the second transistor (32, 32B) is coupled to 1 said same of either the first node or the second node to which the first transistor is coupled to, one of the drain and the source of the second transistor (32, 32B) is coupled to the third node, and the other of the drain and the source of the second transistor (32, 32B) is supplied with the first control voltage; and a first storage element (35, 37) including a first end coupled to the third node and a second end supplied with a second control voltage (SCTRL).
A compound or a pharmaceutically acceptable salt thereof, wherein the compound is selected from those depicted in Table I, or a pharmaceutical composition or a dosage form comprising said compound or pharmaceutically acceptable salt thereof for use, alone or in combination therapy, in treating a CNS disease, CNS health condition or CNS disorder: Table I Structure Compound Number I-8 I-9 I-3 I-11 I-12 I-13 I-14 I-15 I-7 I-6 I-10 I-5 I-4 I-16 I-2 I-1
A method for protecting an integrity of log data, the log data comprising a sequence of log data elements associated with an operation of a first logic circuit, the method comprising: - receiving, at a second logic circuit connected externally to the first logic circuit, a log data element of the sequence of log data elements, - generating, at the second logic circuit, a protected log data element (50,60,70) based on the log data element and secret information unknown to the first logic circuit, characterized by: - transmitting from the second logic circuit to the first logic circuit, an indication instructing the first logic circuit to forward the protected log data element (50,60,70) to an attestation service node remote from the first logic circuit, - synchronizing a time reference between the second logic circuit and the remote attestation service node, and - generating, at the second logic circuit, the protected log data element (50,60,70) additionally based on a time information defined in the time reference. - receiving, at a second logic circuit connected externally to the first logic circuit, a log data element of the sequence of log data elements, - generating, at the second logic circuit, a protected log data element (50,60,70) based on the log data element and secret information unknown to the first logic circuit, characterized by: - transmitting from the second logic circuit to the first logic circuit, an indication instructing the first logic circuit to forward the protected log data element (50,60,70) to an attestation service node remote from the first logic circuit, - synchronizing a time reference between the second logic circuit and the remote attestation service node, and - generating, at the second logic circuit, the protected log data element (50,60,70) additionally based on a time information defined in the time reference.
Device for the production of plastics objects each having at least one rod-shaped metal insert which has a proximal end and a distal end having a ground surface, in particular medical piercing means, in an injection moulding process, comprising a first mould half element and a second mould half element, it being possible to shift at least one of the mould half elements (4, 5) in a closing direction in such a way that the two mould half elements (4, 5) together form a closed cavity in a closed position for moulding a plastics object, the insert, in order to be overmoulded with plastics material, being arranged so as to project into the cavity at least in portions and being arranged substantially between the two mould half elements (4, 5) in a mould separation plane which comprises a longitudinal direction and a width direction, characterised in that at least one of the mould half elements (4, 5) has at least one fixing means (9, 10) by means of which the insert can be fixed in the width direction, and the one positioning means can be arranged at the proximal end of the insert and can be used to shift the insert, fixed in the width direction, in the longitudinal direction towards an injection position.
A refillable drug delivery system comprising a drug delivery device and a drug refill, wherein the drug delivery device comprises a hydrogel and a target recognition molecule and is suitable for implantation at a desirable location within a subject; wherein the drug refill comprises a pharmaceutical composition attached to a target molecule via a cleavable linker and the drug refill is suitable for subsequent administration to the subject; wherein the drug refill is mobile within the subject until the target molecule on the drug refill binds to the target recognition molecule on the drug delivery device at the desirable location within the subject; and the target molecule and the target recognition molecule form a two-component binding pair; wherein upon binding of the target molecule to the target recognition molecule, the cleavable linker is cleaved and the drug refill delivers the pharmaceutical composition to the drug delivery device, thereby refilling the drug delivery device; wherein the cleavable linker comprises a linkage selected from the group consisting of a a hydrazone linkage, an acetal linkage, a ketal linkage, an oxime linkage, an imine linkage, and disulfide linkage and wherein the target molecule comprises a biorthogonal functional group and the target recognition molecule comprises a complementary functional group, wherein the biorthogonal functional group is capable of reacting by click chemistry with the complementary functional group to form a covalent bond.
A measuring device for determining the position and / or the angle of rotation of a body which executes a translational and / or rotational motion the measuring device comprising a microgenerator circuit (7, 10, 11), which converts the kinetic energy of the body into a DC voltage; and a monitoring circuit, which is designed to output an error signal that indicates a malfunction of the microgenerator circuit (7, 10, 11), when the electrical voltage meets a predetermined criterion with respect to a reference threshold, when the DC voltage is below a reference DC voltage.
A method for configuring an interface unit of a computer system, the computer system comprising a first processor and a first data connection between the first processor and the interface unit and a second processor (ION1,..., ION5) being present or being placed on the interface unit, the interface unit comprising at least two data channels (IN1,..., IN4, OUT1,..., OUT4), a first input data channel (IN1,..., IN4) being implemented as a data channel for storing input data and a first output data channel (OUT1,..., OUT4) being implemented as a data channel for storing output data, a periphery of the computer system being set up such that the periphery comprises a plurality of peripheral devices (THR, ECU, XB) and the periphery is implemented for storing input data in the first input data channel (IN1,..., IN4) or for reading output data from the first output data channel (OUT1,..., OUT4) by means of a second data connection, the interface unit being implemented for providing a data connection for the second processor (ION1,..., ION5) to read the input data stored in the first input data channel (IN1,..., IN4), and for providing a data connection for the second processor (ION1,..., ION5) to store output data in the first output data channel (OUT1,..., OUT4), a computer program being stored on the computer system and the first processor being programmed for running the computer program and for assigning a value defined by the input data stored in the first input data channel (IN1,..., IN4) to a variable of the computer program while the computer program is running, a configuration phase being started by the computer system prior to the running of the computer program by the first processor being started, and a sequence (SEQ1,..., SEQ5) of processor commands being created and loaded to the second processor (ION1,..., ION5) by the computer system during the configuration phase, the running of the computer program by the first processor and the running of the sequence (SEQ1,..., SEQ5) by the second processor (ION 1,..., ION5) being started after loading the sequence (SEQ1,..., SEQ5) to the second processor (ION1,..., ION5), and the value defined by the data stored in the first input data channel (IN1,..., IN4) being written to a first memory address during the running of the sequence (SEQ1,..., SEQ5), characterized in that a plurality of subsequences (SUB1,..., SUB3) are created by various subroutines of the computer program set up for data exchange with the periphery, wherein a first subsequence (SUB1,..., SUB5) created by a first subroutine is a routine for reading and processing of the data stored in the first input data channel (IN1,..., IN4) and a second subsequence (SUB1,..., SUB5) created by a second subroutine is a routine for reading and processing at least the data stored in a second input data channel (IN1,..., IN4) or a routine for processing data generated by the first processor and for storing the processed data in the first output data channel (OUT1,..., OUT4), and the sequence (SEQ1,..., SEQ5) is created by merging the subsequences (SUB1,..., SUB5) into a series of subsequences.
A method of characterising a target polypeptide, comprising - conjugating the target polypeptide to a polynucleotide to form a polynucleotide-polypeptide conjugate; - contacting the conjugate with a polynucleotide-handling protein capable of controlling the movement of the polynucleotide with respect to a nanopore; and - taking one or more measurements characteristic of the polypeptide as the conjugate moves with respect to the nanopore, thereby characterising the polypeptide; wherein the conjugate further comprises a leader that facilitates the threading of the conjugate through the nanopore; and wherein the nanopore is a transmembrane protein pore. - conjugating the target polypeptide to a polynucleotide to form a polynucleotide-polypeptide conjugate; - contacting the conjugate with a polynucleotide-handling protein capable of controlling the movement of the polynucleotide with respect to a nanopore; and - taking one or more measurements characteristic of the polypeptide as the conjugate moves with respect to the nanopore, wherein the conjugate further comprises a leader that facilitates the threading of the conjugate through the nanopore; and wherein the nanopore is a transmembrane protein pore.
A method for the treatment and reuse of waste water of washing of agricultural vehicles comprising the following steps: i) collecting the waste water originated from washing of agricultural vehicles in one or more tanks or collection tanks (T-100, D-100); ii) ultra-filtering or micro-filtering the washing water collected in step i); iii) subjecting the permeate obtained from ultrafiltration or microfiltration to one or more steps of nanofiltration; iv) reusing the permeate obtained from the nanofiltration step for washing the agricultural vehicles and/or for preparing mixtures of pesticides. i) collecting the waste water originated from washing of agricultural vehicles in one or more tanks or collection tanks (T-100, D-100); ii) ultra-filtering or micro-filtering the washing water collected in step i); iii) subjecting the permeate obtained from ultrafiltration or microfiltration to one or more steps of nanofiltration; iv) reusing the permeate obtained from the nanofiltration step for washing the agricultural vehicles and/or for preparing mixtures of pesticides.
A liquid pest control spot-on formulation comprising a synthetic pyrethroid and a paresthesia-reducing agent, wherein the paresthesia-reducing agent is purified diethylene glycol monoethyl ether, in combination with tocopherol nicotinate and/or tocopherol succinate, and wherein the paresthesia-reducing agent is present in an amount effective to reduce or eliminate the paresthesia caused by the synthetic pyrethroid to mammals.
A reciprocal quantum logic gate circuit (100, 200, 500, 600, 700, 800) comprising: an input stage (104, 204) having more than two logical inputs (1i,..., ni; ai,..., ei) each configured to be asserted based on receiving a positive single flux quantum, SFQ, pulse, the input stage (104, 204) comprising, for each logical input (1i,..., ni; ai,..., ei), at least one storage loop (106-1,..., 106-n) associated with the logical input (1i,..., ni; ai,..., ei), each storage loop (106-1,..., 106-n) comprising at least one input Josephson junction, JJ, at least one inductor, and a logical decision JJ, the logical decision JJ (108, b3_0) being common to all the storage loops (106-1,..., 106-n) associated with the logical inputs (1i,..., ni; ai,...., ei); and an output stage (102, 202) comprising an output Josephson transmission line arranged to amplify an output of the logical decision JJ, and a bias input to the output Josephson transmission line, the bias input being configured to induce a bias current in the logical decision JJ (108, b3_0) based on a bias signal (bias, bias_0) to set a threshold of the input stage, the output stage (102, 202) being configured to assert an output (o, mo) provided by the output Josephson transmission line based on a triggering of the logical decision JJ (108, b3_0) in response to a combination of logical inputs (1i,..., ni; ai,..., ei). an input stage (104, 204) having more than two logical inputs (1i,..., ni; ai,..., ei) each configured to be asserted based on receiving a positive single flux quantum, SFQ, pulse, the input stage (104, 204) comprising, for each logical input (1i,..., ni; ai,..., ei), at least one storage loop (106-1,..., 106-n) associated with the logical input (1i,..., ni; ai,..., ei), each storage loop (106-1,..., 106-n) comprising at least one input Josephson junction, JJ, at least one inductor, and a logical decision JJ, the logical decision JJ (108, b3_0) being common to all the storage loops (106-1,..., 106-n) associated with the logical inputs (1i,..., ni; ai,...., ei); and an output stage (102, 202) comprising an output Josephson transmission line arranged to amplify an output of the logical decision JJ, and a bias input to the output Josephson transmission line, the bias input being configured to induce a bias current in the logical decision JJ (108, b3_0) based on a bias signal (bias, bias_0) to set a threshold of the input stage, the output stage (102, 202) being configured to assert an output (o, mo) provided by the output Josephson transmission line based on a triggering of the logical decision JJ (108, b3_0) in response to a combination of logical inputs (1i,..., ni; ai,..., ei).
Insertion tool having a wall of essentially tubular or funnelled shape, with, on a front portion thereof, a front side opening suitable and adapted so that an opening of an empty pouch for an implantable pulse generator, and, if present, corresponding wiring, can at least partially be shifted onto said front portion and over said front side opening, and with, on a back portion of the insertion tool, a backside opening suitable and adapted so that an implantable pulse generator, and, if present, corresponding wiring, can be inserted through that backside opening, through a passageway opening to the front side opening and into said pouch, while manually holding the insertion tool using said back portion, wherein said wall comprises an axial slot between the front side opening and the backside opening. with, on a front portion thereof, a front side opening suitable and adapted so that an opening of an empty pouch for an implantable pulse generator, and, if present, corresponding wiring, can at least partially be shifted onto said front portion and over said front side opening, and with, on a back portion of the insertion tool, a backside opening suitable and adapted so that an implantable pulse generator, and, if present, corresponding wiring, can be inserted through that backside opening, through a passageway opening to the front side opening and into said pouch, while manually holding the insertion tool using said back portion, wherein said wall comprises an axial slot between the front side opening and the backside opening.
A pharmaceutical composition comprising: (a) levetiracetam, or a pharmaceutically acceptable salt thereof, which is in an extended release form; and (b) donepezil, or a pharmaceutically acceptable salt thereof, which is not in an extended release form, for use in treating cognitive impairment associated with a central nervous system disorder, or for use in delaying or slowing the progression of said cognitive impairment, or for use in reducing the rate of decline of cognitive function associated with said CNS disorder, in a subject having or at risk of having said cognitive impairment or decline of cognitive function. (a) levetiracetam, or a pharmaceutically acceptable salt thereof, which is in an extended release form; and (b) donepezil, or a pharmaceutically acceptable salt thereof, which is not in an extended release form,