mhurhangee/ep-ind-claims huggingface dataset:
Method of transmitting an optical data signal via a fiber optical medium in opposite directions at the same carrier wavelength, an embodiment of which comprises the use of a fiber-optical line which may comprise passive optical elements and is terminated with transparent bidirectional signal dividers intended for the input/output of data signals to/from the fiber-optical line, characterized in that a homogeneous fiber is provided; and preliminarily or during the implementation of the method, the overall reflected signal power reaching the input of the optical receiver is measured or calculated for a specific optical communication system, said value is compared with the maximum noise power acceptable for data signal extraction by the receiver, and then, by excluding and/or redistributing highly reflecting elements in the path of the optical signal between the transmitter and the receiver, or by replacing said elements for lower reflecting ones, the overall power of the reflected signal reaching the input of the optical receiver is lowered to a level that is acceptable for separating the target optical signal from the overall optical signal reaching the input of the optical receiver, wherein the reflected signal is generated by the reflecting elements of the communication system, and, as a result, the transmission of the optical signal is achieved in the opposite directions at the same carrier wavelength for a specific optical communication system.
A system comprising: a source of electrosurgical energy; and an end effector assembly for sealing tissue, the end effector assembly comprising: a pair of opposing jaw members (310, 320, 410, 420) configured to grasp tissue therebetween, at least one jaw member adapted to connect to the source of electrosurgical energy; an activator (305, 405) coupled to at least one jaw member; wherein the source of electrosurgical energy is configured to apply electrosurgical energy so as to seal tissue disposed between jaw members during a sealing process, and wherein the activator is configured to selectively impart mechanical perturbations to the at least one jaw member during the sealing process, to provide forward and/or backward movement of the jaw member along a longitudinal axis of the jaw member, characterized in that the activator is included in both jaw members. a source of electrosurgical energy; and an end effector assembly for sealing tissue, the end effector assembly comprising: a pair of opposing jaw members (310, 320, 410, 420) configured to grasp tissue therebetween, at least one jaw member adapted to connect to the source of electrosurgical energy; an activator (305, 405) coupled to at least one jaw member; wherein the source of electrosurgical energy is configured to apply electrosurgical energy so as to seal tissue disposed between jaw members during a sealing process, and wherein the activator is configured to selectively impart mechanical perturbations to the at least one jaw member during the sealing process, to provide forward and/or backward movement of the jaw member along a longitudinal axis of the jaw member, characterized in that the activator is included in both jaw members. a pair of opposing jaw members (310, 320, 410, 420) configured to grasp tissue therebetween, at least one jaw member adapted to connect to the source of electrosurgical energy; an activator (305, 405) coupled to at least one jaw member; wherein the source of electrosurgical energy is configured to apply electrosurgical energy so as to seal tissue disposed between jaw members during a sealing process, and wherein the activator is configured to selectively impart mechanical perturbations to the at least one jaw member during the sealing process, to provide forward and/or backward movement of the jaw member along a longitudinal axis of the jaw member, characterized in that the activator is included in both jaw members.
A radiation apparatus, wherein the apparatus comprises at least four radiators, two L-shaped feeding sheets, and a balun structure, wherein the balun structure consists of eight conductive plates configured to form four L-shaped structures; and each L-shaped structure is formed by two of said eight conductive plates arranged at approximately 90 degrees, each L-shaped structure is electrically connected to one radiator at one end of the balun structure, and angles between a length direction of the radiator and two conductive plates are approximately 45 degrees; every two adjacent L-shaped structures are arranged in a T shape, and the four radiators are approximately in a cross shape and are approximately in a same horizontal plane; two adjacent conductive plates of every two L-shaped structures are approximately parallel to each other and are spaced by a preset distance to form four feeding slots; and the two L-shaped feeding sheets are disposed at approximately 90 degrees in the feeding slots in a staggered manner, characterized in that each L-shaped feeding sheet is disposed in two opposite feeding slots.
A method comprising: receiving, at a network controller, a compliance regulatory requirement associated with a virtual network function (VNF1-VNF5) via a network service header field, the virtual network function being part of a service function chain; receiving, at the network controller, a compliance regulatory status associated with the virtual network function, the compliance regulatory status included within metadata in the network service header; based on the compliance regulatory requirement and compliance regulatory status in the network service header, determining, at the network controller, that a remedy is required for the virtual network function to comply with the compliance regulatory requirement to yield a determination; and when the determination indicates that the remedy is required, implementing, via the network controller, a compliance regulatory action associated with the virtual network function as the remedy, wherein the compliance regulatory action comprises preventing data from flowing to a virtual network function not in compliance with the compliance regulatory requirement. receiving, at a network controller, a compliance regulatory requirement associated with a virtual network function (VNF1-VNF5) via a network service header field, the virtual network function being part of a service function chain; receiving, at the network controller, a compliance regulatory status associated with the virtual network function, the compliance regulatory status included within metadata in the network service header; based on the compliance regulatory requirement and compliance regulatory status in the network service header, determining, at the network controller, that a remedy is required for the virtual network function to comply with the compliance regulatory requirement to yield a determination; and when the determination indicates that the remedy is required, implementing, via the network controller, a compliance regulatory action associated with the virtual network function as the remedy, wherein the compliance regulatory action comprises preventing data from flowing to a virtual network function not in compliance with the compliance regulatory requirement.
Determining device for determining a transmission parameter of a wireless energy transmission from a sending device (306; 307; 308) to a receiving apparatus, comprising: an authorization checking device which is configured to carry out an authorization in order to determine whether the receiving apparatus is authorized to receive energy from the sending device (306; 307; 308), a sending/receiving device (102; 304) which is configured to send and receive messages during a message exchange with the receiving apparatus in order to determine the transmission parameter; a parameter determining device which is configured to determine the transmission parameter based on the authorization and based on the message exchange, if the receiving apparatus is authorized to receive energy from the sending device (306; 307; 308), wherein based on the transmission of a test signal between the receiving apparatus to the sending device (306; 307; 308), pulse responses of the transmission channels between the sending device (306; 307; 308) and the receiving apparatus are determined for determining the transmission parameter. an authorization checking device which is configured to carry out an authorization in order to determine whether the receiving apparatus is authorized to receive energy from the sending device (306; 307; 308), a sending/receiving device (102; 304) which is configured to send and receive messages during a message exchange with the receiving apparatus in order to determine the transmission parameter; a parameter determining device which is configured to determine the transmission parameter based on the authorization and based on the message exchange, if the receiving apparatus is authorized to receive energy from the sending device (306; 307; 308), wherein based on the transmission of a test signal between the receiving apparatus to the sending device (306; 307; 308), pulse responses of the transmission channels between the sending device (306; 307; 308) and the receiving apparatus are determined for determining the transmission parameter.
A method comprising: generating a feature vector based on traffic flow data regarding one or more traffic flows in the network; making a determination as to whether the generated feature vector is already represented in a training dataset dictionary by one or more feature vectors in the dictionary; updating the training dataset dictionary based on the determination as to whether the generated feature vector is already represented in the training dataset dictionary by one or more feature vectors in the dictionary, wherein updating the training dataset dictionary comprises one of: adding the generated feature vector to the dictionary when the generated feature vector is not already represented by one or more feature vectors in the dictionary, or incrementing a count associated with a particular feature vector in the dictionary when the generated feature vector is already represented by the particular feature vector in the dictionary; and generating a training dataset based on the training dataset dictionary for training a machine learning-based traffic flow analyzer. generating a feature vector based on traffic flow data regarding one or more traffic flows in the network; making a determination as to whether the generated feature vector is already represented in a training dataset dictionary by one or more feature vectors in the dictionary; updating the training dataset dictionary based on the determination as to whether the generated feature vector is already represented in the training dataset dictionary by one or more feature vectors in the dictionary, wherein updating the training dataset dictionary comprises one of: adding the generated feature vector to the dictionary when the generated feature vector is not already represented by one or more feature vectors in the dictionary, or incrementing a count associated with a particular feature vector in the dictionary when the generated feature vector is already represented by the particular feature vector in the dictionary; and adding the generated feature vector to the dictionary when the generated feature vector is not already represented by one or more feature vectors in the dictionary, or incrementing a count associated with a particular feature vector in the dictionary when the generated feature vector is already represented by the particular feature vector in the dictionary; and generating a training dataset based on the training dataset dictionary for training a machine learning-based traffic flow analyzer.
An article comprising a woven fabric having warp yarns (4,6) and weft yarns, wherein at least one of the warp yarns (4,6) and weft yarns have two separate systems of yarns, wherein said systems of yarns include a hard yarn forming the main body of fabric and a composite covered elastic yarn with an elastic fiber core, wherein said hard yarns are inelastic relative to an elastic or elastomeric yarn, and wherein the fabric has an outer face side and a back side; characterized in that the fabric includes: (a) a weaving pattern where the composite yarn and at least one adjacent hard yarn pass over the same pick when the composite yarn is on the outer surface. (a) a weaving pattern where the composite yarn and at least one adjacent hard yarn pass over the same pick when the composite yarn is on the outer surface.
Locking device for the form-closed locking of a rotor of a wind turbine, - with a rotor shaft of a drive train rotatably arranged on the main frame of the wind turbine, - a locking disc and a locking bolt, - whereas the rotor shaft is rotatably fixed with the locking disc, - which features one or more through holes for the engagement of the locking bolt, - whereas the locking bolt is mainly determined in a circumference direction of the rotor shaft on the main frame, - and in particular slidably disposed in an axial direction of the rotor shaft on the main frame, - whereas the locking bolt is mounted in a housing (10; 10') and designed primarily rotational symmetrically around its central axis, in particular cylindrically, characterized in that - the housing is designed with an inner hollow-cylindrical receptor for receipt of the locking bolt as well as with an outer cylindrical form with the central axis, whereas the central axis of the receptor and the central axis of the outer cylindrical form are positioned to one another, whereby the distance of the locking bolt to the rotor shaft is adjustable at least in one radial direction. - with a rotor shaft of a drive train rotatably arranged on the main frame of the wind turbine, - a locking disc and a locking bolt, - whereas the rotor shaft is rotatably fixed with the locking disc, - which features one or more through holes for the engagement of the locking bolt, - whereas the locking bolt is mainly determined in a circumference direction of the rotor shaft on the main frame, - and in particular slidably disposed in an axial direction of the rotor shaft on the main frame, - whereas the locking bolt is mounted in a housing (10; 10') and designed primarily rotational symmetrically around its central axis, in particular cylindrically, - the housing is designed with an inner hollow-cylindrical receptor for receipt of the locking bolt as well as with an outer cylindrical form with the central axis, whereas the central axis of the receptor and the central axis of the outer cylindrical form are positioned to one another, whereby the distance of the locking bolt to the rotor shaft is adjustable at least in one radial direction.
A laundry care composition comprising: (a) at least one laundry care ingredient and (b) at least one compound represented by Formula: wherein the ratio of Formula I to its oxidized form is at least 1:19; wherein each individual R o, R m and R p group on each of rings A, B and C is independently selected from the group consisting of hydrogen, deuterium and R 5; wherein each R 5 is independently selected from the group consisting of halogens, nitro, alkyl, substituted alkyl, aryl, substituted aryl, alkaryl, substituted alkaryl, -(CH 2) n -O-R 1, -(CH 2) n -NR 1 R 2, -C R 1, -C OR 1, -C O -, -C NR 1 R 2,-OC R 1, -OC OR 1, -OC NR 1 R 2, -S 2 R 1, -S 2 OR 1, -S 2 O -, -S 2 NR 1 R 2, -NR 1 C R 2, -NR 1 C OR 2, NR 1 C SR 2, NR 1 C NR 2 R 3, -P 2 R 1,-P (OR 1) 2, -P (OR 1)O -, and -P (O -) 2, wherein the index n is an integer from 0 to 4, preferably from 0 to 1, most preferably 0; wherein at least one of the R o and R m groups on at least one of the three rings A, B or C is hydrogen; each R p is independently selected from hydrogen, -OR 1 and -NR 1 R 2; wherein G is deuterium; wherein R 1, R 2 and R 3 are independently selected from the group consisting of hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, alkaryl, substituted alkaryl, and R 4; R 4 is a organic group composed of one or more organic monomers with said monomer molecular weights ranging from 28 to 500. wherein the ratio of Formula I to its oxidized form is at least 1:19; wherein each individual R o, R m and R p group on each of rings A, B and C is independently selected from the group consisting of hydrogen, deuterium and R 5; wherein each R 5 is independently selected from the group consisting of halogens, nitro, alkyl, substituted alkyl, aryl, substituted aryl, alkaryl, substituted alkaryl, -(CH 2) n -O-R 1, -(CH 2) n -NR 1 R 2, -C R 1, -C OR 1, -C O -, -C NR 1 R 2,-OC R 1, -OC OR 1, -OC NR 1 R 2, -S 2 R 1, -S 2 OR 1, -S 2 O -, -S 2 NR 1 R 2, -NR 1 C R 2, -NR 1 C OR 2, NR 1 C SR 2, NR 1 C NR 2 R 3, -P 2 R 1,-P (OR 1) 2, -P (OR 1)O -, and -P (O -) 2, wherein the index n is an integer from 0 to 4, preferably from 0 to 1, most preferably 0; wherein at least one of the R o and R m groups on at least one of the three rings A, B or C is hydrogen; each R p is independently selected from hydrogen, -OR 1 and -NR 1 R 2; wherein G is deuterium; wherein R 1, R 2 and R 3 are independently selected from the group consisting of hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, alkaryl, substituted alkaryl, and R 4; R 4 is a organic group composed of one or more organic monomers with said monomer molecular weights ranging from 28 to 500.
Method for configuring a massage program of a massage device of a vehicle seat of a vehicle by means of an electronic control unit (100, 100'), which communicates indirectly or directly with at least one control device of the vehicle seat of the vehicle, wherein, in the configuration of the created massage program, at least one pressurizable element (SE n, RE n) of the vehicle seat is controlled by means of the electronic control unit (100, 100') via the at least one control device of the vehicle seat, and the control device of the vehicle seat outputs the massage program after the start of the massage program in accordance with the performed configuration by controlling the individual pressurizable elements (SE n, RE n) in the vehicle seat, characterized in that, within the configuration to create the massage program, at least one configuration step is performed by means of the electronic control unit (100, 100') and at least one configuration step is performed directly at the seat part and/or on the backrest part.
Shrink tunnel system for shrinking shrink films onto package formations with a tunnel housing that encloses a tunnel interior, wherein the package formations covered with the shrink film can be moved through the tunnel interior in a conveying direction by means of at least one conveyor and a hot shrinking gas flow is applied to said package formations in the tunnel interior in order to shrink the shrink film onto said package formations, wherein guide means (14,15) are provided in order to introduce the hot shrinking gas flow into the tunnel interior with a first flow direction oriented along the conveying direction and/or a second flow direction oriented against the conveying direction, wherein the tunnel interior is delimited by at least two lateral tunnel walls (5.1, 5.2), wherein the guide means (14, 15) are at least partially formed by the lateral tunnel walls (5.1, 5.2) themselves and/or are integrated into these, wherein the lateral tunnel walls (5.1, 5.2) are produced from metal sheets, which comprise a plurality of outlet openings for introducing the shrinking gas flow into the tunnel interior, which form the guide means (14, 15), characterised in that the outlet openings are introduced into the lateral tunnel walls (5.1, 5.2) by punching or laser cutting, and that the cambered contour of the region surrounding the outlet openings is produced by embossing, wherein the first outlet openings come to lie in each case in the edge section of the cambered region in or against the conveying direction, i.e. the first outlet openings are arranged eccentrically in relation to the cambered regions.
A prosthesis (10, 100) for controlling flow through a bodily lumen, the prosthesis comprising: a body (12, 112) having a proximal portion (14, 114), a distal portion (16, 116) and a body lumen (18, 118) extending therethrough, wherein said body (12, 112) is adapted for positioning in the bodily lumen; a first valve (24, 124) for controlling flow through the body lumen (18, 118) in a first direction, the first valve (24, 124) forming a first opening (21, 121) in the prosthesis; and a second valve (28, 128) for controlling flow through the body lumen (18, 118) in a second direction, an outer wall of the second valve (28, 128) being sized and shaped to fit against an inner wall of the body (12, 112), wherein the second valve (28, 128) is positioned within the body (12, 112), having a portion that contacts the body (12, 112) in a closed configuration, and said portion is spaced apart from the body (12, 112) in an open configuration to form a second opening (49, 129); wherein the first opening (21, 121) is positioned apart from the second opening (49, 129); and the second opening (49, 129) opens in response to a higher pressure than the first opening (21, 121). a body (12, 112) having a proximal portion (14, 114), a distal portion (16, 116) and a body lumen (18, 118) extending therethrough, wherein said body (12, 112) is adapted for positioning in the bodily lumen; a first valve (24, 124) for controlling flow through the body lumen (18, 118) in a first direction, the first valve (24, 124) forming a first opening (21, 121) in the prosthesis; and a second valve (28, 128) for controlling flow through the body lumen (18, 118) in a second direction, an outer wall of the second valve (28, 128) being sized and shaped to fit against an inner wall of the body (12, 112), wherein the second valve (28, 128) is positioned within the body (12, 112), having a portion that contacts the body (12, 112) in a closed configuration, and said portion is spaced apart from the body (12, 112) in an open configuration to form a second opening (49, 129); wherein the first opening (21, 121) is positioned apart from the second opening (49, 129); and the second opening (49, 129) opens in response to a higher pressure than the first opening (21, 121).
A process for preparing -(-)-5[2-[[2-(2-ethoxyphenoxy)ethyl]amino]propyl]-2-methoxybenzenesulfonamide hydrocholoride (Tamsulosin), which comprises the following step: reacting o-ethoxyphenoxyethanol sulfonate of Formula with R-(-)-5-(2-aminopropyl)-2-methoxybenzenesulfonamide of Formula in the presence of a catalyst, wherein said catalyst is a monovalent inorganic iodide, at a temperature of 40 to 100°C by condensation: wherein R is (C 1 -C 6)alkyl or phenyl substituted by halogen, nitro and/or (C 1 -C 6)alkyl. reacting o-ethoxyphenoxyethanol sulfonate of Formula with R-(-)-5-(2-aminopropyl)-2-methoxybenzenesulfonamide of Formula in the presence of a catalyst, wherein said catalyst is a monovalent inorganic iodide, at a temperature of 40 to 100°C by condensation: wherein R is (C 1 -C 6)alkyl or phenyl substituted by halogen, nitro and/or (C 1 -C 6)alkyl.