mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by data processing apparatus of a device , which is under the same administrative control as a network , the method being performed when the device is operated outside the network, the method comprising: receiving , by an agent on the device from an application on the device, a request to access a resource outside the network; establishing (308, 310/312) a first encrypted connection between the application on the device and the agent on the device, and a second encrypted connection between the agent on the device and the resource, to facilitate encrypted communication traffic passing between the application on the device and the resource without being routed through the network; sending , by the agent on the device in response to receiving the request to access the resource, a policy request to a network appliance within the network, the policy request specifying the resource; receiving , by the agent on the device and from the network appliance, a policy response indicating that the resource is associated with one or more security policies of the network; and selectively decrypting and inspecting the encrypted communication traffic passing between the application on the device and the resource (i) without being routed through the network and (ii) depending on the security policies to cause the device to remain under the same administrative control as the network. receiving , by an agent on the device from an application on the device, a request to access a resource outside the network; establishing (308, 310/312) a first encrypted connection between the application on the device and the agent on the device, and a second encrypted connection between the agent on the device and the resource, to facilitate encrypted communication traffic passing between the application on the device and the resource without being routed through the network; sending , by the agent on the device in response to receiving the request to access the resource, a policy request to a network appliance within the network, the policy request specifying the resource; receiving , by the agent on the device and from the network appliance, a policy response indicating that the resource is associated with one or more security policies of the network; and selectively decrypting and inspecting the encrypted communication traffic passing between the application on the device and the resource (i) without being routed through the network and (ii) depending on the security policies to cause the device to remain under the same administrative control as the network.
A Motor Control Center, MCC, comprising: an enclosure having a device mounting volume for supporting electrical units ; a vertical wire-way disposed adjacently to the device mounting volume; a wall separating the vertical wire-way from an interior portion of the MCC; and a network distribution adapter including: a housing ; a printed circuit board, PCB, mounted in the housing, the PCB having top and bottom sides; a first network connector mounted to the top side of the PCB, the first network connector providing a top jack accessible through the housing, the top jack being disposed in a first plane parallel to the PCB; and a second network connector mounted to the bottom side of the PCB, the second network connector providing a bottom jack accessible through the housing, the bottom jack being disposed in a second plane at an angle to the first plane; wherein the first and second network connectors are electrically coupled via the PCB; wherein the first and second network connectors are Ethernet connectors; and wherein the network distribution adapter is mounted to an opening in the wall so that the first network connector is accessible in the vertical wire-way and the second network connector is accessible in the interior portion of the MCC, an enclosure having a device mounting volume for supporting electrical units ; a vertical wire-way disposed adjacently to the device mounting volume; a wall separating the vertical wire-way from an interior portion of the MCC; and a network distribution adapter including: a housing ; a printed circuit board, PCB, mounted in the housing, the PCB having top and bottom sides; a first network connector mounted to the top side of the PCB, the first network connector providing a top jack accessible through the housing, the top jack being disposed in a first plane parallel to the PCB; and a second network connector mounted to the bottom side of the PCB, the second network connector providing a bottom jack accessible through the housing, the bottom jack being disposed in a second plane at an angle to the first plane; wherein the first and second network connectors are electrically coupled via the PCB; wherein the first and second network connectors are Ethernet connectors; and a housing ; a printed circuit board, PCB, mounted in the housing, the PCB having top and bottom sides; a first network connector mounted to the top side of the PCB, the first network connector providing a top jack accessible through the housing, the top jack being disposed in a first plane parallel to the PCB; and a second network connector mounted to the bottom side of the PCB, the second network connector providing a bottom jack accessible through the housing, the bottom jack being disposed in a second plane at an angle to the first plane; wherein the first and second network connectors are electrically coupled via the PCB; wherein the first and second network connectors are Ethernet connectors; and wherein the network distribution adapter is mounted to an opening in the wall so that the first network connector is accessible in the vertical wire-way and the second network connector is accessible in the interior portion of the MCC,
A supercapacitor electrode comprising: a conductive foil substrate layer ; and electrode coating layers on opposite sides of the conductive foil substrate layer , wherein each electrode coating layer comprises: active charge supporting particles; from 1 to 10 weight percent thermally produced graphenic carbon particles, wherein the thermally produced graphenic carbon particles are made from a carbon-containing precursor that is heated to a temperature above 3,500°C in a thermal zone to produce the graphenic carbon particles; and a binder. a conductive foil substrate layer ; and electrode coating layers on opposite sides of the conductive foil substrate layer , wherein each electrode coating layer comprises: active charge supporting particles; from 1 to 10 weight percent thermally produced graphenic carbon particles, wherein the thermally produced graphenic carbon particles are made from a carbon-containing precursor that is heated to a temperature above 3,500°C in a thermal zone to produce the graphenic carbon particles; and a binder. active charge supporting particles; from 1 to 10 weight percent thermally produced graphenic carbon particles, wherein the thermally produced graphenic carbon particles are made from a carbon-containing precursor that is heated to a temperature above 3,500°C in a thermal zone to produce the graphenic carbon particles; and a binder.
A circuit (100; 180), comprising: a plurality of non-volatile memory cells (130; 189), characterized by logic (140; 193) configured to use a physical unclonable function to produce a key, to store the key in a set of non-volatile memory cells in the plurality of non-volatile memory cells (130; 189), and to use the physical unclonable function to update the key when a key update protocol signals that the key needs to be updated; logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set, wherein the logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set is configured to disable use of the physical unclonable function; and authentication logic requiring a successful authentication protocol to enable the physical unclonable function to produce the key, wherein the physical unclonable function is configured to utilize entropy generated using non-volatile memory cells in the plurality of non-volatile memory cells (130; 189) to produce the key; or the physical unclonable function is configured to use the set of non-volatile memory cells to produce the key. a plurality of non-volatile memory cells (130; 189), characterized by logic (140; 193) configured to use a physical unclonable function to produce a key, to store the key in a set of non-volatile memory cells in the plurality of non-volatile memory cells (130; 189), and to use the physical unclonable function to update the key when a key update protocol signals that the key needs to be updated; logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set, wherein the logic (140; 193) configured to disable changes to data in the set of non-volatile memory cells after the key is stored in the set is configured to disable use of the physical unclonable function; and authentication logic requiring a successful authentication protocol to enable the physical unclonable function to produce the key, wherein the physical unclonable function is configured to utilize entropy generated using non-volatile memory cells in the plurality of non-volatile memory cells (130; 189) to produce the key; or the physical unclonable function is configured to use the set of non-volatile memory cells to produce the key.
A non-Cartesian coordinate positioning machine comprising a plurality of extendable leg assemblies for positioning a component within a working volume of the machine, each extendable leg assembly comprising an elongate member , with an end of the elongate member being provided with a bearing arrangement having three contact points, or at least substantially point-like contact surfaces, for bearing against an at least part spherical bearing surface provided on the machine, where a plane defined by the contact points or areas is substantially perpendicular to a longitudinal axis of the elongate member , and wherein such a bearing arrangement is provided at both ends of the elongate member .
Driverless transport vehicle , in particular for transporting load carriers, which has a load-bearing frame and a running gear , wherein the running gear has a centre axle with two unsteered wheels , a front axle with at least one steered wheel unit , and a rear axle with at least one steered wheel unit , wherein the centre axle and the front axle of the running gear are arranged on a first bracket which is connected in an articulated manner to the load-bearing frame by means of a first pivot pin (G1) which has a horizontal swivel pin (S1) which runs in the vehicle transverse direction (Q), and the rear axle of the running gear is arranged on a second bracket which is connected in an articulated manner to the centre axle or the first bracket by means of a second pivot pin (G2) which has a horizontal swivel pin (S2) which runs in the vehicle transverse direction (Q), wherein the second bracket is connected to the load-bearing frame by means of a coupling element which is connected in an articulated manner to the second bracket and to the load-bearing frame , characterized in that the transport vehicle has a load-receiving platform for receiving a load carrier, wherein the load-receiving platform is arranged on the load-bearing frame , and the load-bearing frame and the running gear are arranged in the vertical direction below the load-receiving platform , wherein the load-bearing frame has a longitudinal carrier which runs in the vehicle longitudinal direction (L), is arranged centrally in the vehicle transverse direction (Q), on which the first pivot pin (G1) is arranged, and to which the coupling element is connected in an articulated manner.
A method for determining shadow flicker at a residence and identifying a wind turbine in a wind park with a plurality of wind turbines causing the shadow flicker, the method comprising the steps of: - determine the presence of shadow flicker at the residence and generating flicker data representative of the shadow flicker, - identify at least one target wind turbine potentially causing shadow flicker at the residence based on the wind turbine position and the position of the sun , - generate operational data from the at least one target wind turbine , - verify that the shadow flicker is generated by the at least one target wind turbine by comparing the flicker data and the operational data characterized in that each wind turbine comprises a rotor , and the operational data comprises the angular position of a blade of the rotor of the at least one target wind turbine . - determine the presence of shadow flicker at the residence and generating flicker data representative of the shadow flicker, - identify at least one target wind turbine potentially causing shadow flicker at the residence based on the wind turbine position and the position of the sun , - generate operational data from the at least one target wind turbine , - verify that the shadow flicker is generated by the at least one target wind turbine by comparing the flicker data and the operational data characterized in that each wind turbine comprises a rotor , and the operational data comprises the angular position of a blade of the rotor of the at least one target wind turbine .
A method for extracting long chain dicarboxylic acid, comprising the following steps: subjecting a long chain dicarboxylic acid fermentation broth to a primary membrane filtration treatment to give a first filtrate; subjecting the first filtrate to decolorization, acidification/crystallization, and solid-liquid separation treatments to give a first solid; mixing the first solid, a base and water to form a solution; subjecting the solution to a secondary membrane filtration treatment to give a second filtrate; subjecting the second filtrate to decolorization, acidification/crystallization, and solid-liquid separation treatments to give a second solid; and mixing the second solid and water to form a mixture; subjecting the mixture to a thermostatic treatment, followed by cooling for crystallization and solid-liquid separation treatment; wherein calculated as long chain dicarboxylic acid, the concentration of the filtrate after each stage of membrane filtration is controlled at 2-10 wt%. subjecting a long chain dicarboxylic acid fermentation broth to a primary membrane filtration treatment to give a first filtrate; subjecting the first filtrate to decolorization, acidification/crystallization, and solid-liquid separation treatments to give a first solid; mixing the first solid, a base and water to form a solution; subjecting the solution to a secondary membrane filtration treatment to give a second filtrate; subjecting the second filtrate to decolorization, acidification/crystallization, and solid-liquid separation treatments to give a second solid; and mixing the second solid and water to form a mixture; subjecting the mixture to a thermostatic treatment, followed by cooling for crystallization and solid-liquid separation treatment;
A method for making a knitting stitch in a knitting machine wherein for forming the knitting stitch a needle and a sinker cooperate, the created knitting stitch being moved by a movement of the sinker to a rest position on the sinker , whereby a first wall or first knitting plane is provided on the sinker where the knitting stitch is to be created and a second wall or second knitting plane is also provided on the sinker and defines said rest position, and whereby said first and second walls or first and second knitting planes are positioned at different levels on the sinker , characterized in that the knitting stitch is moved from the first wall or first knitting plane to the second wall or second knitting plane by selective movement of the sinker with respect to the needle such that the axial position of a non-selected needle at one feed remains unvaried during the passage through it.
A method for analysing insertion sites of an exogenous nucleotide sequence in a subject's genome, wherein the method comprises: (a) using a provided sample from the subject comprising cell-free double-stranded DNA polynucleotides, wherein the sample is a body fluid sample from the subject; (b) blunting the ends of the polynucleotides; (c) ligating an oligonucleotide to both ends of the polynucleotides; (d) amplifying polynucleotides comprising an insertion site; and (e) sequencing the product of step (d), wherein the exogenous nucleotide sequence is a viral vector, transposon or expression cassette. (a) using a provided sample from the subject comprising cell-free double-stranded DNA polynucleotides, wherein the sample is a body fluid sample from the subject; (b) blunting the ends of the polynucleotides; (c) ligating an oligonucleotide to both ends of the polynucleotides; (d) amplifying polynucleotides comprising an insertion site; and (e) sequencing the product of step (d),
An insole for shoes with a base material comprising a sole face facing the shoe and an opposing foot face facing the foot, a coating being provided on the sole face which provides the sole face of the insole with an increased frictional force relative to the uncoated sole face , characterized in that the coating consists of a plurality of individual patterns formed by coating lines , said patterns being discrete from one another and arranged in such a way that they cannot be formed by one or more continuous coating lines extending continuously from a first side of the sole face to an opposing second side of the sole face , wherein the individual patterns are formed as open or closed patterns, and wherein an individual pattern is more than one dot, and wherein, where the pattern takes the form of a line, the line must not extend exclusively as a straight line in just one vector direction, but rather this line pattern must comprise at least one curve and/or at least one bend, and wherein the sides of the sole face are understood to mean all the borders or edges of the sole face .
Induction cooktop device with at least one induction heating unit (10a-c), which comprises at least one induction heating element (12a-c), and with at least one cooktop hotplate with a cooktop plane (14a-c) that extends along the cooktop hotplate , characterised in that the at least one induction heating element (12a-c) extends at least in a subarea (16a-c) along a first principal plane of orientation (18a-c) which deviates from the cooktop plane (14a-c) and which does not run parallel to the cooktop plane (14a-c).
A noise reduction device configured to generate and output a control sound signal for reducing noise, the device comprising: a sound receiver for receiving a microphone sound signal acquired by a microphone ; a control sound output unit for outputting the control sound signal to a speaker ; a control sound generator for generating the control sound signal based on the microphone sound signal and for generating a predetermined signal: an internal loop in which a pre-output control sound signal is input to the sound receiver , the pre-output control sound signal being acquired from the control sound output unit prior to being output to the speaker ; a measurement unit for measuring an input level of the microphone sound signal and an input level of the pre-output control sound signal that has been input to the sound receiver in the internal loop; a fault detector for detecting a fault in at least one of the microphone , the sound receiver , the speaker , and the control sound output unit , by using the input level of the microphone sound signal measured by the measurement unit and the input level of the pre-output control sound signal measured by the measurement unit ; and a transmitter for transmitting a result of fault detection performed by the fault detector to a management device ; characterised in that an internal loop control unit is configured for enabling or disabling the internal loop, wherein when the internal loop is enabled, the internal loop control unit is configured to turn OFF output to the speaker and input to the sound receiver from the microphone . a sound receiver for receiving a microphone sound signal acquired by a microphone ; a control sound output unit for outputting the control sound signal to a speaker ; a control sound generator for generating the control sound signal based on the microphone sound signal and for generating a predetermined signal: an internal loop in which a pre-output control sound signal is input to the sound receiver , the pre-output control sound signal being acquired from the control sound output unit prior to being output to the speaker ; a measurement unit for measuring an input level of the microphone sound signal and an input level of the pre-output control sound signal that has been input to the sound receiver in the internal loop; a fault detector for detecting a fault in at least one of the microphone , the sound receiver , the speaker , and the control sound output unit , by using the input level of the microphone sound signal measured by the measurement unit and the input level of the pre-output control sound signal measured by the measurement unit ; and a transmitter for transmitting a result of fault detection performed by the fault detector to a management device ; characterised in that an internal loop control unit is configured for enabling or disabling the internal loop, wherein when the internal loop is enabled, the internal loop control unit is configured to turn OFF output to the speaker and input to the sound receiver from the microphone .
A transmission assembly , comprising: a load ; an input shaft configured to be rotatably driven by a low pressure section of a turbomachine ; and a transmission coupled to the load and the input shaft , the transmission being operable to transmit rotation of the input shaft to the load, the transmission being configured to convert a first rotational speed range of the input shaft to a second rotational speed range for transmission to the load , the second rotational speed range being narrower than the first rotational speed range, characterised in that the transmission comprises a bi-coupled planetary gear arrangement generating a first gear ratio operative between about 2000-4000 rpm, a second gear ratio overlapping the first gear ratio and operative to about 6000 rpm and a third gear ratio overlapping the second gear ratio and operative to about 10,000 rpm. a load ; an input shaft configured to be rotatably driven by a low pressure section of a turbomachine ; and a transmission coupled to the load and the input shaft , the transmission being operable to transmit rotation of the input shaft to the load, the transmission being configured to convert a first rotational speed range of the input shaft to a second rotational speed range for transmission to the load , the second rotational speed range being narrower than the first rotational speed range, characterised in that the transmission comprises a bi-coupled planetary gear arrangement generating a first gear ratio operative between about 2000-4000 rpm, a second gear ratio overlapping the first gear ratio and operative to about 6000 rpm and a third gear ratio overlapping the second gear ratio and operative to about 10,000 rpm.
Electrode for a gas discharge lamp , wherein the electrode comprises a base body which encloses at least two chambers, wherein the chambers are hermetically, i.e. airtight or gas-tight sealed, characterized in that the chambers (221, 222, 223; K1 -K4) or at least part of the chambers are arranged in a longitudinal direction of the base body in series or parallel to each other.
A tablet comprising, by weight, 10-30% 2-fluoro-N-methyl-4-[7-(quinolin-6-ylmethyl)imidazo[1,2-b] triazin-2-yl]benzamide dihydrochloride salt, 50-70% of one or more fillers, 3-20% of one or more disintegrants, 0.2-2% of one or more lubricants, and 0.2-2% of one or more glidants.