mhurhangee/ep-ind-claims huggingface dataset:
A method for storing data in a tamper-proof manner in a bidirectionally linked blockchain structure (100, 101), the method comprising: • generating an additional block for the blockchain structure, which includes the data to be stored; • providing a bock-independent linking function; • generating a first block-dependent bidirectional linking function from the block-independent linking function, wherein, for the generation, a data content of the last block of the blockchain structure is used as a first parameter, and a data content of the additional block for the blockchain structure is used as a second parameter of the block-independent linking function, so that the generated first block-dependent bidirectional linking function is dependent, in pairs, both on the last block of the blockchain structure and on the additional block for the blockchain structure; • bidirectionally linking the last block of the blockchain structure to the additional block for the blockchain structure, wherein the bidirectional linking encompasses transforming the last block of the blockchain structure into a first ciphertext, using the first block-dependent bidirectional linking function, and transforming the additional block for the blockchain structure, using the first block-dependent bidirectional linking function into a second ciphertext; and • storing the resulting extended blockchain structure, which includes the first and second ciphertexts. • generating an additional block for the blockchain structure, which includes the data to be stored; • providing a bock-independent linking function; • generating a first block-dependent bidirectional linking function from the block-independent linking function, wherein, for the generation, a data content of the last block of the blockchain structure is used as a first parameter, and a data content of the additional block for the blockchain structure is used as a second parameter of the block-independent linking function, so that the generated first block-dependent bidirectional linking function is dependent, in pairs, both on the last block of the blockchain structure and on the additional block for the blockchain structure; • bidirectionally linking the last block of the blockchain structure to the additional block for the blockchain structure, wherein the bidirectional linking encompasses transforming the last block of the blockchain structure into a first ciphertext, using the first block-dependent bidirectional linking function, and transforming the additional block for the blockchain structure, using the first block-dependent bidirectional linking function into a second ciphertext; and • storing the resulting extended blockchain structure, which includes the first and second ciphertexts.
A master Radio Access Network, RAN, node comprising: means for sending, to a control plane function in a core network, a PDU Session Resource Modify Indication message requesting modification of a PDU session already established between a radio terminal and a user plane function in the core network, characterized in that the PDU Session Resource Modify Indication message is used to indicate to the core network that the already established PDU session is to be split over a plurality of tunnels, and the PDU Session Resource Modify Indication message includes a list of one or more Quality of Service, QoS, flows associated with the split of the already established PDU session. means for sending, to a control plane function in a core network, a PDU Session Resource Modify Indication message requesting modification of a PDU session already established between a radio terminal and a user plane function in the core network, characterized in that the PDU Session Resource Modify Indication message is used to indicate to the core network that the already established PDU session is to be split over a plurality of tunnels, and the PDU Session Resource Modify Indication message includes a list of one or more Quality of Service, QoS, flows associated with the split of the already established PDU session.
Cable protecting device for protecting cables extending over a feature on a pipe surface, said feature having a known length outside said pipe circumference and having a first and second end surface, the cable protecting device having a length in the direction of the pipe being longer than the said feature, and comprising a channel for enclosing the cable to be protected and a recess in the inner surface adapted for containing at least a part of the feature and the features first and second end surfaces, the ends of said protecting device at least partially covering the corresponding parts of the feature ends, wherein the length of the recess corresponds essentially to the length of the feature, each end of said recess being provided with engaging means(5,6) adapted to engage with the corresponding end surfaces of the feature, thus fixing the cable protecting device to the feature, wherein the cable protecting device is made in one piece, and characterized by including a flexible spring section in the section extending over the recess, between the first and second ends of the cable protecting device.
A wiper arm for a windscreen wiper system of a motor vehicle, with a receiving region for a wiper blade adapter, wherein in the receiving region an adapter element (30; 30a) is arranged, serving for the supplying of washing fluid, wherein the adapter element (30; 30a) is able to be connected on the one hand with a supply line for the washing fluid and on the other hand has at least one outlet for the washing fluid, which is able to be connected with the wiper blade adapter, wherein the at least one outlet is aligned with a first mounting or respectively dismantling direction of the wiper blade adapter,wherein the at least one outlet runs at least approximately in the direction of the longitudinal axis of the wiper arm in the receiving region, and wherein the receiving region is constructed to enable a mounting or respectively dismantling of the wiper blade adapter by two necessary movements on the wiper blade adapter in different mounting or respectively dismantling directions (17, 18), wherein the receiving region has a U-shaped cross-section with two side walls parallel to one another and with a transverse wall connecting the two side walls, characterized in that the receiving region comprises at least two receiving openings (23, 24) constructed on the side walls to receive elevations arranged on the wiper blade adapter in the second mounting or respectively dismantling direction running at least substantially perpendicularly to the transverse wall, wherein the adapter element (30; 30a) has on the side facing the side wall respectively a fastening extension, which projects into a receiving opening of the side wall having a closed cross-section, and wherein the cross-sections of the receiving opening and of the fastening extension are coordinated with one another so that the adapter element (30; 30a) is arranged at least substantially in a stationary manner in the receiving opening.
A press-molding system comprising: a press-molding unit having a main body, a lower molding die installed at the lower portion of the main body, a drive part installed to the main body, and an upper molding die installed so as to be vertically movable with respect to the lower molding die by the drive part; a billet weight measuring unit that measures the weight of a billet; and a controller that controls the drive part according to the weight of the billet measured by the billet weight measuring unit; characterized in that the controller controls the stroke of the upper molding die according to the weight of the billet measured by the billet weight measuring unit, wherein for said stroke control, the controller controls the drive part to set the position of the bottom dead center of the upper molding die. a press-molding unit having a main body, a lower molding die installed at the lower portion of the main body, a drive part installed to the main body, and an upper molding die installed so as to be vertically movable with respect to the lower molding die by the drive part; a billet weight measuring unit that measures the weight of a billet; and a controller that controls the drive part according to the weight of the billet measured by the billet weight measuring unit; characterized in that the controller controls the stroke of the upper molding die according to the weight of the billet measured by the billet weight measuring unit, wherein for said stroke control, the controller controls the drive part to set the position of the bottom dead center of the upper molding die.
A logic module including: - means for implementing a logic function, said means including at least one input (E1, E2) and at least one output, said at least one output representing at least partially the result of said logic function, - at least one first element including at least one resistive state, - at least one second element formed by a bipolar resistive memory, - said first element and said second element having a common electrode (3, 5) connected to said output. - means for implementing a logic function, said means including at least one input (E1, E2) and at least one output, said at least one output representing at least partially the result of said logic function, - at least one first element including at least one resistive state, - at least one second element formed by a bipolar resistive memory, - said first element and said second element having a common electrode (3, 5) connected to said output.
A wind energy installation, comprising: a rotor assembly rotatable about a substantially horizontal axis; a mast (20, 32) erected to support the rotor assembly; and at least one stay cable having an upper end and a lower, opposite end, the upper end of the stay cable attached to an upper region of the mast at a height greater than a tip of a blade of the rotor assembly, the lower, opposite end of the stay cable anchored, the stay cable stressed to support the mast while wind rotates the tip of the blade without collision of the stay cable; characterized in that: the stay cable is constructed using parallel wires with each wire individually pulled to a tension value; the stay cable extending the entire length from the upper end to the lower, opposite end. a rotor assembly rotatable about a substantially horizontal axis; a mast (20, 32) erected to support the rotor assembly; and at least one stay cable having an upper end and a lower, opposite end, the upper end of the stay cable attached to an upper region of the mast at a height greater than a tip of a blade of the rotor assembly, the lower, opposite end of the stay cable anchored, the stay cable stressed to support the mast while wind rotates the tip of the blade without collision of the stay cable; the stay cable is constructed using parallel wires with each wire individually pulled to a tension value; the stay cable extending the entire length from the upper end to the lower, opposite end.
A method for protecting a three-winding transformer of a wind turbine, the three-winding transformer having a primary winding, a secondary winding, and a tertiary winding, the method comprising: estimating, via a controller, an electrical condition of the primary winding of the transformer; determining, via the controller, an electrical condition limit of the primary winding; comparing, via the controller, the estimated electrical condition to the electrical condition limit; and implementing a corrective action for the wind turbine if the estimated electrical condition exceeds the electrical condition limit so as to reduce the electrical condition within safe limits; characterized in that implementing the corrective action further comprises generating an operating limit for the wind turbine and operating the wind turbine below the operating limit and wherein the operating limit comprises at least one of a torque limit, a speed limit, a current limit, or power limit; the method further comprising determining the electrical condition limit of the primary winding as a function of ambient temperature and altitude of the transformer. estimating, via a controller, an electrical condition of the primary winding of the transformer; determining, via the controller, an electrical condition limit of the primary winding; comparing, via the controller, the estimated electrical condition to the electrical condition limit; and implementing a corrective action for the wind turbine if the estimated electrical condition exceeds the electrical condition limit so as to reduce the electrical condition within safe limits; characterized in that implementing the corrective action further comprises generating an operating limit for the wind turbine and operating the wind turbine below the operating limit and wherein the operating limit comprises at least one of a torque limit, a speed limit, a current limit, or power limit; the method further comprising determining the electrical condition limit of the primary winding as a function of ambient temperature and altitude of the transformer.
A substrate carrier for use in electroplating a plurality of substrates, the substrate carrier comprising: a non-conductive carrier body (102, 202) on which the substrates are to be held; characterized by electrically-conductive lines embedded within the carrier body; and a plurality of contact clips (802, 900, 1000) which are coupled to the electrically-conductive lines embedded within the carrier body, the contact clips holding the substrates in place and electrically coupling the substrates to the electrically-conductive lines, wherein the non-conductive carrier body (102, 202) is continuous so as to be impermeable to flow of electroplating solution through the non-conductive carrier body. a non-conductive carrier body (102, 202) on which the substrates are to be held; characterized by electrically-conductive lines embedded within the carrier body; and a plurality of contact clips (802, 900, 1000) which are coupled to the electrically-conductive lines embedded within the carrier body, the contact clips holding the substrates in place and electrically coupling the substrates to the electrically-conductive lines,
Apparatus comprising: a steerable catheter (20; 40; 80) having a distal tip (34; 42), the catheter (20; 40; 80) comprising a position sensor, fixed in a vicinity of the distal tip (34; 42), and adapted to generate a position signal; a robot, adapted to be coupled to a proximal end of the catheter (20; 40; 80); and a control unit, adapted to: drive the robot to apply rotation to the proximal end of the catheter (20; 40; 80), receive the position signal, responsive to the position signal, determine a roll of the distal tip (34; 42), and responsive to a determination that the roll lags the rotation, drive the robot to move a portion of the proximal end of the catheter (20; 40; 80). a steerable catheter (20; 40; 80) having a distal tip (34; 42), the catheter (20; 40; 80) comprising a position sensor, fixed in a vicinity of the distal tip (34; 42), and adapted to generate a position signal; a robot, adapted to be coupled to a proximal end of the catheter (20; 40; 80); and a control unit, adapted to: drive the robot to apply rotation to the proximal end of the catheter (20; 40; 80), receive the position signal, responsive to the position signal, determine a roll of the distal tip (34; 42), and responsive to a determination that the roll lags the rotation, drive the robot to move a portion of the proximal end of the catheter (20; 40; 80). drive the robot to apply rotation to the proximal end of the catheter (20; 40; 80), receive the position signal, responsive to the position signal, determine a roll of the distal tip (34; 42), and responsive to a determination that the roll lags the rotation, drive the robot to move a portion of the proximal end of the catheter (20; 40; 80).
A camshaft adjusting device for an internal combustion engine with a stator wheel and a rotor wheel cooperating with the stator wheel, wherein the stator wheel is driven so as to rotate around an axis of rotation, and wherein the rotor wheel can be connected to a camshaft of the internal combustion engine, wherein the stator wheel has stator vanes arranged so as to point radially inward, between which rotor blades extend that are arranged on the rotor wheel pointing radially outward, such that fluid chambers (15, 16) are formed between the stator vanes and the rotor blades, which can be exposed to pressurized fluid through fluid ducts (17, 18), and wherein the rotor wheel has a first body part and a second body part, which are joined to each other with the respective joining surfaces (19a, 20a) contacting each other, and wherein depressions (21, 22) are formed in at least one of the joining surfaces (19a, 20a) in order to form the fluid ducts (17, 18) at least in sections, wherein at least one sealing means (25, 26) is provided in or on at least one joining surface (19a, 20a) with the sealing means being designed such that the fluid ducts (17, 18) are sealed off and a defined contact is obtained between the joining surfaces (19a, 20a) placed on top of one another, characterized in that the sealing means have elevations that are arranged on at least one of the joining surfaces (19a, 20a).
An aggregatable carrier material for drug delivery system comprising an aggregatable molecule shown in formula: [Chemical formula 1] (R 1) l E 1 [((-R 5 -E 2)(R 2) m) k (-R 3 -S-R 4 -Y) 3-m] 4-1 wherein E 1 is any one of carbon, silicon and germanium, and may be mutually the same or different; E 2 is either silicon or germanium, and may be mutually the same or different; R 1 is the same or different hydrocarbon group which may contain a heteroatom, and may form a ring which contains E 1 in some case; R 2 shows the same or different hydrocarbon group, or a hydrocarbon chain which may contain a ring; R 3, R 4 and R 5 show the same or different hydrocarbon chain which may contain oxygen, nitrogen, carbonyl group, ether group or amide group; Y shows halogen group; 1 is an integer from 0 to 2; m is the integer from 0 to 2; k is 0 or 1, and 3-m is 1 when k is 0 in the formula, wherein said aggregatable molecule shown in the formula further comprises one Y replaced with a sulfur atom and a targeted sequence presented part which is bound via said sulfur atom, wherein said targeted sequence presented part is composed of a protein having a targeted recognition site, of which thiol group in said protein is located outside the folded protein, and wherein said aggregatable molecule aggregates in an aqueous solvent to form the micelle having a diameter from 50 nm to 500 nm. wherein E 1 is any one of carbon, silicon and germanium, and may be mutually the same or different; E 2 is either silicon or germanium, and may be mutually the same or different; R 1 is the same or different hydrocarbon group which may contain a heteroatom, and may form a ring which contains E 1 in some case; R 2 shows the same or different hydrocarbon group, or a hydrocarbon chain which may contain a ring; R 3, R 4 and R 5 show the same or different hydrocarbon chain which may contain oxygen, nitrogen, carbonyl group, ether group or amide group; Y shows halogen group; 1 is an integer from 0 to 2; m is the integer from 0 to 2; k is 0 or 1, and 3-m is 1 when k is 0 in the formula, wherein said aggregatable molecule shown in the formula further comprises one Y replaced with a sulfur atom and a targeted sequence presented part which is bound via said sulfur atom, wherein said targeted sequence presented part is composed of a protein having a targeted recognition site, of which thiol group in said protein is located outside the folded protein, and wherein said aggregatable molecule aggregates in an aqueous solvent to form the micelle having a diameter from 50 nm to 500 nm.
A door latch for a swing bar door guard, the door latch comprising: a latch bar including a body having a pair of parallel bar members (50, 52), a protrusion (56, 58) extending from a top surface of each of the parallel bar members (50, 52), an opening (60, 62) extending through each parallel bar member (50, 52) and respective protrusion (56, 58), an ear (70, 72) extending from ends of each parallel bar member (50, 52), and an opening (74, 76) extending through each ear (70, 72) for connecting the latch bar to a latch base; and a pair of bumpers (80,82) configured to extend through a respective one of the openings (60, 62), each bumper (80, 82) including a jamb bumper portion configured to contact a door jamb and a door bumper portion configured to contact a door. a latch bar including a body having a pair of parallel bar members (50, 52), a protrusion (56, 58) extending from a top surface of each of the parallel bar members (50, 52), an opening (60, 62) extending through each parallel bar member (50, 52) and respective protrusion (56, 58), an ear (70, 72) extending from ends of each parallel bar member (50, 52), and an opening (74, 76) extending through each ear (70, 72) for connecting the latch bar to a latch base; and a pair of bumpers (80,82) configured to extend through a respective one of the openings (60, 62), each bumper (80, 82) including a jamb bumper portion configured to contact a door jamb and a door bumper portion configured to contact a door.