mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a firmware over the air, FOTA upgrade package, comprising: generating transition software according to comparison of file names and file binary formats of software of two to-be-upgraded versions; and generating a FOTA upgrade package according to comparison of file names and file binary formats between the transition software and final-version software, wherein the FOTA upgrade package is used to simultaneously support online upgrade of the software of the two to-be-upgraded versions to the final-version software by using a wireless network. generating transition software according to comparison of file names and file binary formats of software of two to-be-upgraded versions; and generating a FOTA upgrade package according to comparison of file names and file binary formats between the transition software and final-version software, wherein the FOTA upgrade package is used to simultaneously support online upgrade of the software of the two to-be-upgraded versions to the final-version software by using a wireless network.
An arc welding control method comprising: feeding a welding wire in a forward direction and a reverse direction alternately; and repeating a short-circuit period (t1-t4) and an arc period (t4-t7), wherein: the arc period (t4-t7) includes a large-current arc period (t41-t61) and a small-current arc period (t61-t7), and characterized in that the method uses: a shield gas containing at least 60 vol.% of an inert gas; and an average welding current of 250 A or higher; and in that the method further comprises increasing a length of the large-current arc period (t41-t61) when a value of a welding current (Iw) during the large-current arc period (t41-t61) is not smaller than a predetermined upper-limit current value, and wherein the upper-limit current value is set tc a smaller value in accordance with an increase of the volume percentage of the inert gas. feeding a welding wire in a forward direction and a reverse direction alternately; and repeating a short-circuit period (t1-t4) and an arc period (t4-t7), wherein: the arc period (t4-t7) includes a large-current arc period (t41-t61) and a small-current arc period (t61-t7), and characterized in that the method uses: a shield gas containing at least 60 vol.% of an inert gas; and an average welding current of 250 A or higher; and in that the method further comprises increasing a length of the large-current arc period (t41-t61) when a value of a welding current (Iw) during the large-current arc period (t41-t61) is not smaller than a predetermined upper-limit current value, and wherein the upper-limit current value is set tc a smaller value in accordance with an increase of the volume percentage of the inert gas. the arc period (t4-t7) includes a large-current arc period (t41-t61) and a small-current arc period (t61-t7), and characterized in that the method uses: a shield gas containing at least 60 vol.% of an inert gas; and an average welding current of 250 A or higher; and in that the method further comprises increasing a length of the large-current arc period (t41-t61) when a value of a welding current (Iw) during the large-current arc period (t41-t61) is not smaller than a predetermined upper-limit current value, and wherein the upper-limit current value is set tc a smaller value in accordance with an increase of the volume percentage of the inert gas.
Assembly device with a machining device for machining a workpiece, in particular a vehicle body, which machining device can be moved together with a conveying device (12, 18) in a conveying direction in which the conveying device (12, 18) conveys the workpiece by coupling to the workpiece, and with a transfer device for transferring the machining device, characterised in that the transfer device can be moved by means of a drive independently of the conveying device (12, 18) and without being rail-mounted if the machining device is uncoupled from the workpiece, wherein the machining device is mounted in a floating manner by way of a supporting device, the assembly device having at least one force application device, by means of which a force acting against tilting can be applied to the supporting device if the supporting device is tilted.
A casement frame with a device for covering the casement frame as a sliding casement or slidable lifting and sliding casement of a window or a door, having a receiving groove arranged at the upper horizontal casement spar and a receiving groove arranged at the lower horizontal casement spar, and having a second casement positioned opposite the sliding casement in a parallelly recessed plane of a window frame and further towards the outside of a building as a fixed casement frame of a fixed casement or likewise slidable casement as a sliding casement or lifting and sliding casement in the window frame, wherein, with the sliding casement opened, a covering element is arranged at the sliding casement between a front face of a vertical casement spar of the sliding casement and a lateral vertical window frame spar of the window frame, which can be fastened at the sliding casement by means of a fastening device, characterized in that the covering element forms a cover plate with a planar surface, having a connecting means of the fastening device at a flat side facing the front face of the vertical casement spar, which is operatively connected with a fastening part of the fastening device fastened at the sliding casement, mounted in a form-fittingly and/or force-fittingly detachable manner and covered by the cover plate, wherein the cover plate covers the fitting elements received in the upper receiving groove of the upper casement spar and the carriages of the sliding casement received in the lower receiving groove of the lower casement spar mounted almost flushly with the front face of the vertical casement spar.
A method performed by hardware processing circuitry, comprising: obtaining a first time series of operational parameter values (802A, 802B) of a device (102A, 102B, 102C, 102D, 102E, 102F) attached to a network; comparing the operational parameter values of the first time series to a first parameter value range (805A, 805B, 805C) and a second parameter value range (805A, 805B, 805C), wherein the first parameter value range corresponds to a first distribution in a mixture model and the second parameter value range corresponds to a second distribution in the mixture model, and the first and second parameter value ranges are delineated by a boundary; determining, based on the comparing, that the operational parameter values of the first time series are within the first parameter value range (805A, 805B, 805C); based on the determining, selecting, from a plurality of distributions in the mixture model, the first distribution (804A, 804B, 804C); determining, a first probability at which values in the first time series occur in the selected distribution; determining, based on the first probability, a likelihood of a brute force attack on the network; based on the first time series, adjusting the boundary between the first parameter value range and the second parameter value range; determining, based on the adjusted boundary, a second likelihood of a brute force attack; and performing, based on the likelihood, a mitigating action. obtaining a first time series of operational parameter values (802A, 802B) of a device (102A, 102B, 102C, 102D, 102E, 102F) attached to a network; comparing the operational parameter values of the first time series to a first parameter value range (805A, 805B, 805C) and a second parameter value range (805A, 805B, 805C), wherein the first parameter value range corresponds to a first distribution in a mixture model and the second parameter value range corresponds to a second distribution in the mixture model, and the first and second parameter value ranges are delineated by a boundary; determining, based on the comparing, that the operational parameter values of the first time series are within the first parameter value range (805A, 805B, 805C); based on the determining, selecting, from a plurality of distributions in the mixture model, the first distribution (804A, 804B, 804C); determining, a first probability at which values in the first time series occur in the selected distribution; determining, based on the first probability, a likelihood of a brute force attack on the network; based on the first time series, adjusting the boundary between the first parameter value range and the second parameter value range; determining, based on the adjusted boundary, a second likelihood of a brute force attack; and performing, based on the likelihood, a mitigating action.
Method for monitoring the loading position and the bearing force of an item to be transported on a loading surface in or on a vehicle, wherein the item to be transported is secured by tensioning means, preferably tensioning belts, on the loading surface, characterized in that - on the loading surface there is provided a mat or substrate comprising a plurality of two-dimensionally positionally accurately determinable sensors for detecting a first measurement variable which correlates with the bearing force acting on the mat, - in that the sensors interact with devices for communicating, preferably wirelessly communicating, the first measurement variables to a central electronic computing unit, in which the starting and output values of the first measurement variables and their initial correlation with one another are stored, wherein afterwards at time intervals the first measurement variables are repeatedly detected again and stored, wherein the respective current first positionally accurately determinable measurement variables are compared with their starting and output values and also their current correlation with one another is compared with their initial correlation with one another and, if predefined threshold or difference values are exceeded, an alarm is triggered. - on the loading surface there is provided a mat or substrate comprising a plurality of two-dimensionally positionally accurately determinable sensors for detecting a first measurement variable which correlates with the bearing force acting on the mat, - in that the sensors interact with devices for communicating, preferably wirelessly communicating, the first measurement variables to a central electronic computing unit, in which the starting and output values of the first measurement variables and their initial correlation with one another are stored,
A method for wireless communication, the method comprising: receiving, by a user equipment, UE, a downlink control signal indicating that an uplink control signal is to be transmitted using two or more transmission beams during different transmission time intervals, TTIs; identifying the two or more transmission beams based at least in part on the downlink control signal; and transmitting a plurality of repetitions of the uplink control signal, wherein each repetition is transmitted on a different TTI using a different one of the two or more transmission beams based at least in part on the downlink control signal. receiving, by a user equipment, UE, a downlink control signal indicating that an uplink control signal is to be transmitted using two or more transmission beams during different transmission time intervals, TTIs; identifying the two or more transmission beams based at least in part on the downlink control signal; and transmitting a plurality of repetitions of the uplink control signal, wherein each repetition is transmitted on a different TTI using a different one of the two or more transmission beams based at least in part on the downlink control signal.
Cable gland for passing a cable through a mounting opening in a mounting wall, in particular a housing wall of an electrical appliance or an electrical cabinet, with a cap nut, a sealing member and a hollow cylindrical mounting socket, - which comprises a socket channel for the passage of the cable, - which comprises a spanner flat for the application of a tool, - which comprises at least a first external thread by means of which the cap nut, which comprises a lead-through opening serving for the passage of the cable, is held, and - which comprises, in the end region facing the cap nut, a conical support surface against which a first corresponding conically extending pressure surface of the sealing member, which is arranged between the cap nut and the mounting socket and which comprises a receiving channel serving for the passage of the cable, abuts, wherein the sealing member comprises, on the side opposite the first pressure surface, a second pressure surface which can be acted upon by the cap nut, and wherein the cap nut comprises a conical inner surface which is geometrically complementary to the second pressure surface of the sealing member, characterised in that in order to increase the static and sliding friction between the first pressure surface of the sealing member and the support surface the support surface comprises structural elements in the form of recesses, protrusions, knurling, corrugations, grooves, scores, creases, scales and/or ridges, which extend radially or beam-shaped at equal intervals, and that the sealing member comprises in the region of the first pressure surface form elements which are complementary to the structural elements. - which comprises a socket channel for the passage of the cable, - which comprises a spanner flat for the application of a tool, - which comprises at least a first external thread by means of which the cap nut, which comprises a lead-through opening serving for the passage of the cable, is held, and - which comprises, in the end region facing the cap nut, a conical support surface against which a first corresponding conically extending pressure surface of the sealing member, which is arranged between the cap nut and the mounting socket and which comprises a receiving channel serving for the passage of the cable, abuts,
A recyclable polyolefin metallized composite film, wherein the recyclable polyolefin metallized composite film comprises a polyolefin metallized film layer and a polyethylene film layer; the polyolefin metallized film layer comprises a polyolefin substrate film layer and a metal coating; the polyolefin substrate film layer is a three-layer composite film structure which successively comprises a substrate film outer layer, a substrate film middle layer, and a substrate film inner layer from top to bottom; films in the substrate film outer layer, the substrate film middle layer and the substrate film inner layer have an identical thickness; a lower surface of the substrate film inner layer is coated with the metal coating, and a lower surface of the metal coating is compounded with the polyethylene film layer by an adhesive characterized in that, the substrate film outer layer, the substrate film middle layer and the substrate film inner layer are co-extruded by three screw extruders through blow molding on a die head to form the polyolefin substrate film layer; a raw material of the substrate film outer layer is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; a raw material of the substrate film middle layer is 40%-60% polyolefin resin A and 40%-60% polyolefin resin B; and a raw material of the substrate film inner layer 3 is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; wherein, the polyolefin resin A is a copolymer of propylene and a vinyl monomer; a molar content of the vinyl monomer in the copolymer is 2%-20%, a density of the polyolefin resin A is 0.86 g/cm 3 -0.91 g/cm 3, and a melting point of the polyolefin resin A is 135°C-168°C; the polyolefin resin B is C6 metallocene polyethylene or C8 metallocene polyethylene, a density of the polyolefin resin B is 0.90 g/cm 3 -0.94 g/cm 3 and a melting point of the polyolefin resin B is 96°C-128°C. characterized in that, the substrate film outer layer, the substrate film middle layer and the substrate film inner layer are co-extruded by three screw extruders through blow molding on a die head to form the polyolefin substrate film layer; a raw material of the substrate film outer layer is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; a raw material of the substrate film middle layer is 40%-60% polyolefin resin A and 40%-60% polyolefin resin B; and a raw material of the substrate film inner layer 3 is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; wherein, the polyolefin resin A is a copolymer of propylene and a vinyl monomer; a molar content of the vinyl monomer in the copolymer is 2%-20%, a density of the polyolefin resin A is 0.86 g/cm 3 -0.91 g/cm 3, and a melting point of the polyolefin resin A is 135°C-168°C; the polyolefin resin B is C6 metallocene polyethylene or C8 metallocene polyethylene, a density of the polyolefin resin B is 0.90 g/cm 3 -0.94 g/cm 3 and a melting point of the polyolefin resin B is 96°C-128°C.
Method for running up a stationary gas turbine having at least one combustion chamber, the burners of which comprise a pilot burner and a main burner and by which different fuel types are introduced into the combustion chamber for combustion, the steps: - delivery of fuel of a first fuel type to the pilot burners and - delivery of fuel of the first fuel type to the main burners being carried out during the acceleration of a rotor of the gas turbine from standstill up to a nominal rotational speed, characterized in that fuel of a second fuel type is delivered to at least one burner before the nominal rotational speed is reached. - delivery of fuel of a first fuel type to the pilot burners and - delivery of fuel of the first fuel type to the main burners
Compound having the structure of general formula and their pharmaceutically acceptable salts, enantiomers and their diastereomers, Bicyclic ring A-B is selected from the group consisting of: Wherein R 2 is selected from the following ring system: R 3 at each occurrence is independently selected from, C NH(C 1-7)alkyl, C -CH=CH 2, C -CH≡C-R 11, C -CH=CH-R 4, C -C =CH 2, C -C =CH-R 4, SO 2 -NH(C 1-7)alkyl, SO 2 -CH=CH 2, SO 2 -CH=CH-R 4 groups; wherein, R 11 is independently selected from hydrogen and alkyl group; R 4 at each occurrence is selected from -(CH 2) n -NR 5 R 6; wherein, n=0-7 and each of R 5 and R 6 are independently selected from hydrogen, haloalkyl, C 1-7 alkyl, C 2-7 alkenyl, C 2-7 alkynyl, aryl, cycloalkyl, carbocycle, heterocycloalkyl, cycloalkyl(C 1-7)alkyl, heterocycloalkyl(C 1-7)alkyl; 'U' is selected from unsubstituted or substituted groups selected from heteroaryl, heterocycle, heterocycloalkyl, aryloxyaryl, aryloxyalkyl, aryloxyheteroaryl, heteroaryloxyaryl, heteroaryloxyalkyl, heteroaryloxyheteroaryl, Ph-CON(R 7 R 8), Ph-N(R 9)-CO-R 10, wherein, R 7, R 8 and R 10 are independently selected from hydrogen, halogen, alkyl, haloalkyl, alkoxy, aryl, cycloalkyl, heteroaryl, heterocycloalkyl and wherein each of the alkyl, haloalkyl, alkoxy, aryl, cycloalkyl, heteroaryl, heterocycloalkyl groups are when substituted are further substituted with halogen, alkyl, alkoxy, haloalkoxy groups; R 9 are independently selected from hydrogen, C 1-7 alkyl, C 2-7 alkenyl, C 2-7 alkynyl. R 2 is selected from the following ring system: R 3 at each occurrence is independently selected from, C NH(C 1-7)alkyl, C -CH=CH 2, C -CH≡C-R 11, C -CH=CH-R 4, C -C =CH 2, C -C =CH-R 4, SO 2 -NH(C 1-7)alkyl, SO 2 -CH=CH 2, SO 2 -CH=CH-R 4 groups; wherein, R 11 is independently selected from hydrogen and alkyl group; R 4 at each occurrence is selected from -(CH 2) n -NR 5 R 6; wherein, n=0-7 and each of R 5 and R 6 are independently selected from hydrogen, haloalkyl, C 1-7 alkyl, C 2-7 alkenyl, C 2-7 alkynyl, aryl, cycloalkyl, carbocycle, heterocycloalkyl, cycloalkyl(C 1-7)alkyl, heterocycloalkyl(C 1-7)alkyl; 'U' is selected from unsubstituted or substituted groups selected from heteroaryl, heterocycle, heterocycloalkyl, aryloxyaryl, aryloxyalkyl, aryloxyheteroaryl, heteroaryloxyaryl, heteroaryloxyalkyl, heteroaryloxyheteroaryl, Ph-CON(R 7 R 8), Ph-N(R 9)-CO-R 10, wherein, R 7, R 8 and R 10 are independently selected from hydrogen, halogen, alkyl, haloalkyl, alkoxy, aryl, cycloalkyl, heteroaryl, heterocycloalkyl and wherein each of the alkyl, haloalkyl, alkoxy, aryl, cycloalkyl, heteroaryl, heterocycloalkyl groups are when substituted are further substituted with halogen, alkyl, alkoxy, haloalkoxy groups; R 9 are independently selected from hydrogen, C 1-7 alkyl, C 2-7 alkenyl, C 2-7 alkynyl.
A method of handling a paging request to establish a Circuit Switched session with a terminal in a radio access network of a mobile communications network, wherein the terminal is attached to a Packet Switched cell of the radio access network and has one or more ongoing Packet Switched sessions, the method comprising, at the terminal: receiving the paging request; determining the importance of the ongoing Packet Switched sessions by identifying to a user of the terminal that the paging request has been received, the originator of the session that caused the paging request and the type of Circuit switched session requested, and enabling the user to indicate whether the ongoing Packet Switched session is more important than the Circuit Switched session; if any of the ongoing Packet Switched sessions is more important than the Circuit Switched session, rejecting the paging request; and if the ongoing Packet Switched session is less important than the Circuit Switched session, sending a positive page response, characterized in that if the paging request is not rejected, selecting a target cell from a plurality of candidate cells to which the terminal may attach, the target cell being able to handle a Circuit Switched session; performing a Packet Switched handover to the selected cell; and handling the Circuit Switched session in the selected cell. receiving the paging request; determining the importance of the ongoing Packet Switched sessions by identifying to a user of the terminal that the paging request has been received, the originator of the session that caused the paging request and the type of Circuit switched session requested, and enabling the user to indicate whether the ongoing Packet Switched session is more important than the Circuit Switched session; if any of the ongoing Packet Switched sessions is more important than the Circuit Switched session, rejecting the paging request; and if the ongoing Packet Switched session is less important than the Circuit Switched session, sending a positive page response, characterized in that if the paging request is not rejected, selecting a target cell from a plurality of candidate cells to which the terminal may attach, the target cell being able to handle a Circuit Switched session; performing a Packet Switched handover to the selected cell; and handling the Circuit Switched session in the selected cell.