mhurhangee/patent-ind-claim-en huggingface dataset:
Sofa bed comprising a foldable frame, a set of connecting members and a set of support slats mounted on the frame, a connecting member comprising a height direction, a transverse direction and an insertion direction which are mutually orthogonal, the connecting member further comprising a receiving part comprising a slat cavity in which an end of a support slat is inserted in the insertion direction, the receiving part comprising an upper wall , the connecting member further comprising a mounting part with which the connecting member is attached to the frame and with which the connecting member can be supported by the frame in the height direction, the mounting part comprising a back wall extending at least partially substantially in the height direction, the mounting part further comprising a plurality of ribs , a rib at least partially extending substantially in the height direction and the insertion direction, the rib attached to the back wall and the upper wall, the mounting part of said connecting member comprising a fixation hole so that an elongate fastening element runs substantially in the height direction, characterised in that said rib extends in the height direction of the upper wall beyond the fixation hole.
A networked initiation system , comprising: a control unit ; at least one hold-down and release mechanism , the so-called HDRM, configured to hold in place an element and to release the held element upon receipt of an activate command from the control unit ; a first circuitry associated with each of the at least one HDRM , respectively, the first circuity arranged for arming and firing the at least one HDRM associated with the first circuitry, the first circuity addressable by the control unit ; at least one additional HDRM configured to hold in place at least one additional element and to release the held at least one additional element upon receipt of an activate command from the control unit ; a second circuity associated with each of the at least one additional HDRM, respectively, the second circuity arranged for arming and firing the at least one additional HDRM associated with the second circuitry, the second circuity addressable by the control unit ; and an interface bus configured to connect together the control unit , the first circuity, and the second circuity, to provide power from the control unit to each HDRM and each circuity, and to communicate between the control unit and each HDRM and circuity, wherein an energetic HDRM is at least one of explosive and pyrotechnic, and a non-energetic HDRM is neither explosive nor pyrotechnic, wherein the first circuitry and the second circuitry each is uniquely identifiable for communication with the control unit , characterised in that the at least one HDRM is a non-energetic HDRM. a control unit ; at least one hold-down and release mechanism , the so-called HDRM, configured to hold in place an element and to release the held element upon receipt of an activate command from the control unit ; a first circuitry associated with each of the at least one HDRM , respectively, the first circuity arranged for arming and firing the at least one HDRM associated with the first circuitry, the first circuity addressable by the control unit ; at least one additional HDRM configured to hold in place at least one additional element and to release the held at least one additional element upon receipt of an activate command from the control unit ; a second circuity associated with each of the at least one additional HDRM, respectively, the second circuity arranged for arming and firing the at least one additional HDRM associated with the second circuitry, the second circuity addressable by the control unit ; and an interface bus configured to connect together the control unit , the first circuity, and the second circuity, to provide power from the control unit to each HDRM and each circuity, and to communicate between the control unit and each HDRM and circuity, wherein an energetic HDRM is at least one of explosive and pyrotechnic, and a non-energetic HDRM is neither explosive nor pyrotechnic, wherein the first circuitry and the second circuitry each is uniquely identifiable for communication with the control unit , characterised in that the at least one HDRM is a non-energetic HDRM.
A running gear for a low floor rail vehicle, comprising: - a frame defining a transverse reference axis and a vertical transverse reference plane (T) containing the transverse reference axis , a vertical longitudinal median plane (V) perpendicular to the transverse reference axis and a horizontal reference plane (H) containing the transverse reference axis ; - a single pair of independent left and right wheels , located on a left, respectively right side of the vertical longitudinal median plane (V), equidistant from the vertical longitudinal median plane (V); - a single pair of left and right rotation bearings attached to the frame , allowing the left and right wheels , to independently spin about a left, respectively right spin axis aligned with the transverse reference axis ; - a secondary suspension resting on the frame for supporting a vehicle body of the rail vehicle; and - lateral stop means fixed to the frame for laterally guiding the vehicle body of the rail vehicle, the lateral stop means comprising a left and a right contact face facing a left, respectively right, transverse direction parallel to the transverse reference axis , wherein the left and right contact faces are located between the left and right wheels , characterised in that the frame includes a pair of left and right longitudinal beams which support each a respective one of the left and right rotation bearings , a pair of front and rear transverse beams , each extending between respective ends of the left and right longitudinal beams on opposite sides of the vertical transverse reference plane (T), and at least one longitudinal support beam extending between the front and rear transverse beam , wherein at least one of the left and right contact faces is supported by the longitudinal support beam . - a frame defining a transverse reference axis and a vertical transverse reference plane (T) containing the transverse reference axis , a vertical longitudinal median plane (V) perpendicular to the transverse reference axis and a horizontal reference plane (H) containing the transverse reference axis ; - a single pair of independent left and right wheels , located on a left, respectively right side of the vertical longitudinal median plane (V), equidistant from the vertical longitudinal median plane (V); - a single pair of left and right rotation bearings attached to the frame , allowing the left and right wheels , to independently spin about a left, respectively right spin axis aligned with the transverse reference axis ; - a secondary suspension resting on the frame for supporting a vehicle body of the rail vehicle; and - lateral stop means fixed to the frame for laterally guiding the vehicle body of the rail vehicle, the lateral stop means comprising a left and a right contact face facing a left, respectively right, transverse direction parallel to the transverse reference axis , wherein the left and right contact faces are located between the left and right wheels ,
A soldering apparatus comprising a soldering device , a receiving means adapted to hold a liquid, a nozzle, and a pump adapted to convey the liquid from the receiving means through the nozzle in the direction of a Z-axis , wherein a traversing means for traversing the soldering device is provided in a working space, characterized in that the working space has a machine table arranged in an X/Y plane, the machine table having a surface lying in the X/Y plane, the X/Y plane being orthogonal to the Z axis , and in that the soldering device has a traversing device which is arranged on the soldering device and which is designed for the independent traversing of the soldering device on the surface of the machine table in the X/Y plane of the working space.
A method for preparing a -7,9-decadienoate ester of the general formula : wherein R 1 is a monovalent hydrocarbon group having 1-15 carbon atoms, the method comprising at least steps of: hydrolyzing a 9,9-dialkoxy-7-nonenoate ester of the general formula : R 3 O(R 2 O)CHCH=CH(CH 2 ) 5 CO 2 R 1 wherein R 1 is as defined above, and R 2 and R 3 are each independently a monovalent hydrocarbon group having 1-15 carbon atoms or together form a divalent hydrocarbon group having 2-10 carbon atoms, R 2 -R 3 , to form a -9-oxo-7-nonenoate ester of the general formula : wherein R 1 is as defined above; and subjecting the -9-oxo-7-nonenoate ester to a Wittig reaction with a triarylphosphonium methylide of the general formula : Ar 3 P=CH 2 wherein Ar is an aryl group having 6 or 7 carbon atoms, to form the -7,9-decadienoate ester. hydrolyzing a 9,9-dialkoxy-7-nonenoate ester of the general formula : R 3 O(R 2 O)CHCH=CH(CH 2 ) 5 CO 2 R 1 wherein R 1 is as defined above, and R 2 and R 3 are each independently a monovalent hydrocarbon group having 1-15 carbon atoms or together form a divalent hydrocarbon group having 2-10 carbon atoms, R 2 -R 3 , to form a -9-oxo-7-nonenoate ester of the general formula : wherein R 1 is as defined above; and subjecting the -9-oxo-7-nonenoate ester to a Wittig reaction with a triarylphosphonium methylide of the general formula : Ar 3 P=CH 2 wherein Ar is an aryl group having 6 or 7 carbon atoms, to form the -7,9-decadienoate ester.
An electronic functional device offering isolator functionality and/or barrier functionality and arranged for receiving field wiring from a field element, the electronic functional device comprising: a connector configured to receive a surge element for providing surge functionality to the electronic functional device , and to provide surge protection to the connectivity by way of the field wiring , the connector is characterised in and configured to connect the surge element to the electronic functional device and to the field wiring , wherein the connector is arranged for parallel connection of the surge element with respect to the field wiring , wherein the field wiring extends directly from the electronic functional device .
A computer-implemented method, comprising: establishing a code package to be injected into a web page, wherein the code package comprises at least one element, wherein the at least one element includes a first script to be executed before executing a code of the web page; injecting the at least one element to the web page to execute the first script, wherein an execution of the first script comprises generating one or more secrets to be used for key derivation and a script element which comprises the one or more secrets; appending the script element to the web page; and deleting the script element from the web page, along with the deletion of the one or more secrets. establishing a code package to be injected into a web page, wherein the code package comprises at least one element, wherein the at least one element includes a first script to be executed before executing a code of the web page; injecting the at least one element to the web page to execute the first script, wherein an execution of the first script comprises generating one or more secrets to be used for key derivation and a script element which comprises the one or more secrets; appending the script element to the web page; and deleting the script element from the web page, along with the deletion of the one or more secrets.
A process of removing wax or oil from a textile material, comprising contacting the textile material with a composition comprising: an alkyl alkoxylate sulfate of formula I: R 1 O-(CH 2 CH(R 2 )-O) x -(CH 2 CH 2 O) y -SO 3 M (I); a nonionic alkyl alkoxylate of formula II: R 1 O-(CH 2 CH(R 2 )-O) x -(CH 2 CH 2 O) y -H (II); and water wherein R 1 is linear or branched C 4 -C 10 alkyl; R 2 is CH 3 or CH 3 CH 2 ; x is a real number from 1 to 11; y is a real number from 1 to 20; and M is an alkali metal or NH 4 , and wherein R 1 , R 2 , x, and y in formula I and formula II may be the same or different. an alkyl alkoxylate sulfate of formula I: R 1 O-(CH 2 CH(R 2 )-O) x -(CH 2 CH 2 O) y -SO 3 M (I); a nonionic alkyl alkoxylate of formula II: R 1 O-(CH 2 CH(R 2 )-O) x -(CH 2 CH 2 O) y -H (II); and water R 1 is linear or branched C 4 -C 10 alkyl; R 2 is CH 3 or CH 3 CH 2 ; x is a real number from 1 to 11; y is a real number from 1 to 20; and M is an alkali metal or NH 4 , and
A drug-coated balloon catheter for delivering a therapeutic agent to a target site of a body lumen stricture, the balloon catheter comprising: an elongated balloon having a main diameter, wherein the elongated balloon has a length of 20 mm to 160 mm; and a coating layer overlying an exterior surface of the balloon, wherein the coating layer comprises one or more water-soluble additives and an initial drug load of a therapeutic agent, wherein the balloon comprises at least one neck section on the balloon comprising a smaller diameter than the main diameter when the balloon is inflated, the at least one neck section dividing the balloon into at least two main sections each having a diameter, and wherein the therapeutic agent is chosen from paclitaxel, docetaxel, sirolimus, everolimus, tacrolimus, mTOR inhibitors, and combinations thereof. an elongated balloon having a main diameter, wherein the elongated balloon has a length of 20 mm to 160 mm; and a coating layer overlying an exterior surface of the balloon, wherein the coating layer comprises one or more water-soluble additives and an initial drug load of a therapeutic agent, wherein the balloon comprises at least one neck section on the balloon comprising a smaller diameter than the main diameter when the balloon is inflated, the at least one neck section dividing the balloon into at least two main sections each having a diameter, and wherein the therapeutic agent is chosen from paclitaxel, docetaxel, sirolimus, everolimus, tacrolimus, mTOR inhibitors, and combinations thereof.
A compressor including a cylinder block corresponding to an outer rotor type motor, the cylinder block comprising: a shaft support for supporting a rotary shaft of the compressor; and a cylinder portion for forming a cylindrical inner space at a position away from the center (c) of the shaft support at a predetermined distance, and a noise chamber located at one side of the cylinder portion ; characterized in that the cylinder block further comprises: a first support arranged outside the shaft support in a circumferential direction with respect to a center (c) of the shaft support ; a second support arranged outside the first support in a circumferential direction with respect to the center (c) of the shaft support and a third support for connecting the first support with the second support . a shaft support for supporting a rotary shaft of the compressor; and a cylinder portion for forming a cylindrical inner space at a position away from the center (c) of the shaft support at a predetermined distance, and a noise chamber located at one side of the cylinder portion ; characterized in that the cylinder block further comprises: a first support arranged outside the shaft support in a circumferential direction with respect to a center (c) of the shaft support ; a second support arranged outside the first support in a circumferential direction with respect to the center (c) of the shaft support and a third support for connecting the first support with the second support .
Valve for an exhaust-gas system in a motor vehicle, having a housing, at least one channel, a flap which closes or opens the channel, an electric motor for actuating the flap, a gearing for transmitting the movement of the electric motor to the flap, a sensor which determines the flap position and a cover composed of plastic which closes the housing, wherein the sensor is arranged in the cover and the cover has a reinforcing element composed of metal, characterized in that the reinforcing element is arranged on the outer side of the cover so as to bear at least on some regions thereof and is connected to the housing .
A method for use with a data integration or other computing environment comprising: processing an accessed data, to perform a metadata analysis of the accessed data, wherein the metadata analysis includes determining a classification of the accessed data; sending , to a knowledge source of a system, a query for semantic actions, defining data transformations, enabled for the accessed data, wherein the query indicates the classification of the accessed data, wherein the semantic actions are defined by metadata determined during the metadata analysis; receiving , from the knowledge source, a response to the query, wherein the response indicates one or more semantic actions enabled for the accessed data and identified based on the classification of the data; and displaying , at a graphical user interface , selected ones of the semantic actions enabled for the accessed data, for selection and use with the accessed data, including automatically providing or updating a list of the selected ones of the semantic actions enabled for the accessed data, during the processing of the accessed data. processing an accessed data, to perform a metadata analysis of the accessed data, wherein the metadata analysis includes determining a classification of the accessed data; sending , to a knowledge source of a system, a query for semantic actions, defining data transformations, enabled for the accessed data, wherein the query indicates the classification of the accessed data, wherein the semantic actions are defined by metadata determined during the metadata analysis; receiving , from the knowledge source, a response to the query, wherein the response indicates one or more semantic actions enabled for the accessed data and identified based on the classification of the data; and displaying , at a graphical user interface , selected ones of the semantic actions enabled for the accessed data, for selection and use with the accessed data, including automatically providing or updating a list of the selected ones of the semantic actions enabled for the accessed data, during the processing of the accessed data.
A segmented electrode assembly comprising: an inner electrode support (2565; 2665), a layer of conductive material (2516; 2668; 2880; 2968, 2984), an outer support segment (2569; 2669; 2769; 2882), an outer polymeric skin (2463; 2563; 2763; 2863) and a plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005); wherein the outer support segment (2569; 2669; 2769; 2882) comprises a plurality of notches (2672; 2772; 2872), wherein the outer polymeric skin (2463; 2563; 2763; 2863) comprises a plurality of notches that align with the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882), wherein the layer of conductive material (2516; 2668; 2880; 2968, 2984) is deposited on an outer surface of the inner electrode support (2565; 2665), the plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005) are each electrically coupled to the layer of conductive material (2516; 2668; 2880; 2968, 2984), and wherein the outer support segment (2569; 2669; 2769; 2882) is configured to circumferentially surround the inner electrode support (2565; 2665) and the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882) are configured to overlay an electrode ridge (2777; 3077) on each of the plurality of electrode segments (2462; 2561; 2773, 2775; 2905; 3005), and wherein the outer support segment (2569; 2669; 2769; 2882) and the outer polymeric skin (2463; 2563; 2763; 2863) are positioned such that a portion of each is contacting the electrode ridge (2777; 3077). an inner electrode support (2565; 2665), a layer of conductive material (2516; 2668; 2880; 2968, 2984), an outer support segment (2569; 2669; 2769; 2882), an outer polymeric skin (2463; 2563; 2763; 2863) and a plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005); wherein the outer support segment (2569; 2669; 2769; 2882) comprises a plurality of notches (2672; 2772; 2872), wherein the outer polymeric skin (2463; 2563; 2763; 2863) comprises a plurality of notches that align with the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882), wherein the layer of conductive material (2516; 2668; 2880; 2968, 2984) is deposited on an outer surface of the inner electrode support (2565; 2665), the plurality of electrode segments (2461, 2462; 2561; 2773, 2775; 2905; 3005) are each electrically coupled to the layer of conductive material (2516; 2668; 2880; 2968, 2984), and wherein the outer support segment (2569; 2669; 2769; 2882) is configured to circumferentially surround the inner electrode support (2565; 2665) and the plurality of notches (2672; 2772; 2872) of the outer support segment (2569; 2669; 2769; 2882) are configured to overlay an electrode ridge (2777; 3077) on each of the plurality of electrode segments (2462; 2561; 2773, 2775; 2905; 3005), and wherein the outer support segment (2569; 2669; 2769; 2882) and the outer polymeric skin (2463; 2563; 2763; 2863) are positioned such that a portion of each is contacting the electrode ridge (2777; 3077).