mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a core network node for a wireless communication network, the method comprising: receiving a request message via an interface with a configuring node associated with a wired communication network, the request message comprising a request for information related to a topology of the wireless communication network; and transmitting an information message via the interface with the configuring node, the information message comprising information related to the topology of the wireless communication network; and receiving a configuration message via the interface with the configuring node, the configuration message comprising settings for a plurality of paths between a first node coupled to the wired communication network and a second node coupled to the wireless communication network, the plurality of paths carrying a plurality of data streams between the first and second nodes, the plurality of data streams comprising at least one redundant data stream; and configuring the plurality of paths within the wireless communication network according to the settings. receiving a request message via an interface with a configuring node associated with a wired communication network, the request message comprising a request for information related to a topology of the wireless communication network; and transmitting an information message via the interface with the configuring node, the information message comprising information related to the topology of the wireless communication network; and receiving a configuration message via the interface with the configuring node, the configuration message comprising settings for a plurality of paths between a first node coupled to the wired communication network and a second node coupled to the wireless communication network, the plurality of paths carrying a plurality of data streams between the first and second nodes, the plurality of data streams comprising at least one redundant data stream; and configuring the plurality of paths within the wireless communication network according to the settings.
A pyrotechnic actuator having an actuator housing which encloses a cylindrical cavity over the majority of its length, and having a gas generator with igniter, propellant charge and propellant charge housing , wherein the propellant charge housing includes a predetermined breaking point in the form of a reduction in thickness, and wherein the diameter in the region (1") which is located on the side of the predetermined breaking point facing away from the igniter is smaller than the diameter in the region which is located on the side of the predetermined breaking point facing the igniter , characterised in that a piston displaceable in the cylindrical cavity is provided in the actuator housing , in that the predetermined breaking point of the propellant charge housing is located in the cylindrical cavity of the actuator housing , in that on the side of the predetermined breaking point facing away from the igniter the propellant charge housing has a spacing from the inner wall of the actuator housing , and in that upon ignition the region (1") of the propellant charge housing which is located on the side of the predetermined breaking point facing away from the igniter is torn off, and the torn off region (1") of the propellant charge housing drives the piston and seals it from the inner wall of the actuator housing .
A method, comprising: identifying, by an egress network device and based on a timing control packet received from an ingress network device, information that indicates a first time at which the ingress network device received the timing control packet from a first client device; determining , by the egress network device, a second time at which the egress network device will forward the timing control packet; determining , by the egress network device based on the information that indicates the first time and information that indicates the second time, a resident time of the timing control packet, wherein the resident time of the timing control packet is determined based on: determining that the ingress network device was in a synchronized state when the ingress network device provided the information that indicates the first time; and determining that the egress network device is in a synchronized state; modifying , by the egress network device, the timing control packet to indicate the resident time and to form a modified timing control packet; and forwarding , by the egress network device, the modified timing control packet to a second client device. identifying, by an egress network device and based on a timing control packet received from an ingress network device, information that indicates a first time at which the ingress network device received the timing control packet from a first client device; determining , by the egress network device, a second time at which the egress network device will forward the timing control packet; determining , by the egress network device based on the information that indicates the first time and information that indicates the second time, a resident time of the timing control packet, wherein the resident time of the timing control packet is determined based on: determining that the ingress network device was in a synchronized state when the ingress network device provided the information that indicates the first time; and determining that the egress network device is in a synchronized state; modifying , by the egress network device, the timing control packet to indicate the resident time and to form a modified timing control packet; and forwarding , by the egress network device, the modified timing control packet to a second client device. determining that the ingress network device was in a synchronized state when the ingress network device provided the information that indicates the first time; and determining that the egress network device is in a synchronized state; modifying , by the egress network device, the timing control packet to indicate the resident time and to form a modified timing control packet; and forwarding , by the egress network device, the modified timing control packet to a second client device.
Polyamide-imide containing a repeating structure of the following Chemical Formula 1a and a repeating structure of the following Chemical Formula 1b together, wherein molar ratio between the repeating structure of the Chemical Formula 1a and the repeating structure of the Chemical Formula 1b is from 1:2 to 1:5: wherein, X1 is a tetravalent organic group of the following Chemical Formula 2 derived from tetracarboxylic dianhydride, X2 is a divalent organic group derived from the compound of the following Chemical Formula 3, wherein, Y1 and Y2 are, each independently, a divalent organic group derived from diisocyanate, and any one of Y1 and Y2 contains a divalent organic group derived from the compound of the following Chemical Formula 4: wherein, R1 and R2 are each independently a substituent selected from a halogen atom comprising -F, -Cl, -Br and -I, a hydroxyl group (-OH), a thiol group (-SH), a nitro group (-NO2), a cyano group, a C1-10 alkyl group, a C1-4 halogenoalkoxyl group, a C1-10 halogenoalkyl group, and a C6-20 aryl group, Q is selected from the group consisting of a single bond, -O-, -CR18R19-, -C(=O)-, - C(=O)O-, -C(=O)NH-, -S-, -SO2-, a phenylene group and a combination thereof, wherein R18 and R19 are each independently selected from the group consisting of a hydrogen atom, a C1-10 alkyl group and a C1-10 fluoroalkyl group;; and the polyamide-imide has a molecular weight distribution (Mw/Mn) of 1.1 to 2.5. wherein molar ratio between the repeating structure of the Chemical Formula 1a and the repeating structure of the Chemical Formula 1b is from 1:2 to 1:5: wherein, X1 is a tetravalent organic group of the following Chemical Formula 2 derived from tetracarboxylic dianhydride, X2 is a divalent organic group derived from the compound of the following Chemical Formula 3, wherein, Y1 and Y2 are, each independently, a divalent organic group derived from diisocyanate, and any one of Y1 and Y2 contains a divalent organic group derived from the compound of the following Chemical Formula 4: wherein, R1 and R2 are each independently a substituent selected from a halogen atom comprising -F, -Cl, -Br and -I, a hydroxyl group (-OH), a thiol group (-SH), a nitro group (-NO2), a cyano group, a C1-10 alkyl group, a C1-4 halogenoalkoxyl group, a C1-10 halogenoalkyl group, and a C6-20 aryl group, Q is selected from the group consisting of a single bond, -O-, -CR18R19-, -C(=O)-, - C(=O)O-, -C(=O)NH-, -S-, -SO2-, a phenylene group and a combination thereof, wherein R18 and R19 are each independently selected from the group consisting of a hydrogen atom, a C1-10 alkyl group and a C1-10 fluoroalkyl group;; and the polyamide-imide has a molecular weight distribution (Mw/Mn) of 1.1 to 2.5.
A method for transmitting a first forwarding parameter, applied to a network on which control and forwarding are separated, wherein the network on which control and forwarding are separated comprises a controller and a forwarding device, wherein the controller is adapted to control the forwarding device, and the method comprises: obtaining, by the controller, an extended forwarding model description, wherein the extended forwarding model description comprises a first format encoding rule, wherein the first format encoding rule indicates a location for the first forwarding parameter in a first field and indicates a type of the first forwarding parameter, wherein the first field is a MetaData field in a flow entry of an OpenFlow protocol; filling, by the controller, the first forwarding parameter in the first field according to the first format encoding rule; and sending, by the controller and to the forwarding device by using the OpenFlow protocol, the flow entry that carries the first field. obtaining, by the controller, an extended forwarding model description, wherein the extended forwarding model description comprises a first format encoding rule, wherein the first format encoding rule indicates a location for the first forwarding parameter in a first field and indicates a type of the first forwarding parameter, wherein the first field is a MetaData field in a flow entry of an OpenFlow protocol; filling, by the controller, the first forwarding parameter in the first field according to the first format encoding rule; and sending, by the controller and to the forwarding device by using the OpenFlow protocol, the flow entry that carries the first field.
A capacity control valve (V) for controlling a flow rate by energization of a solenoid , comprising: a valve housing formed with a discharge port through which discharge fluid with a discharge pressure (Pd) passes, a suction port through which suction fluid with a suction pressure (Ps) passes, and first and second control ports through which control fluid with a control pressure (Pc) passes; a rod arranged in the valve housing and driven by the solenoid ; a DC valve body forming a DC valve arranged at an outer periphery of the rod to control a fluid flow between the second control port and the discharge port ; and a pressure-sensitive body forming a CS valve configured to control a fluid flow between the first control port and the suction port in accordance with a movement of the rod , characterized in that the DC valve includes the DC valve body , which is slidably attached to the rod , and a DC valve seat formed in the valve housing ; wherein the DC valve body is biased toward a side of the DC valve seat by a spring ; and wherein a flange portion , extending in a radially outward direction and configured to restrict movement of the DC valve body in a closing direction of the DC valve , is provided in the rod . a valve housing formed with a discharge port through which discharge fluid with a discharge pressure (Pd) passes, a suction port through which suction fluid with a suction pressure (Ps) passes, and first and second control ports through which control fluid with a control pressure (Pc) passes; a rod arranged in the valve housing and driven by the solenoid ; a DC valve body forming a DC valve arranged at an outer periphery of the rod to control a fluid flow between the second control port and the discharge port ; and a pressure-sensitive body forming a CS valve configured to control a fluid flow between the first control port and the suction port in accordance with a movement of the rod , characterized in that the DC valve includes the DC valve body , which is slidably attached to the rod , and a DC valve seat formed in the valve housing ; wherein the DC valve body is biased toward a side of the DC valve seat by a spring ; and wherein a flange portion , extending in a radially outward direction and configured to restrict movement of the DC valve body in a closing direction of the DC valve , is provided in the rod .
Porous carbonaceous particles (I) having pores including micropores and macropores, said porous carbonaceous particles (I) having a mean diameter, determined by laser diffraction, ranging from 15 to 100 μm and a span of at most 2.5, wherein the span is calculated applying span = D 90 − D 10 / D 50 , wherein D represents the mean diameter of the particles of a sample of a volume-weighted particle size distribution, D is the particle diameter, on the cumulative curve in volume of the distribution, at which 10% of the particles are smaller and D is the particle diameter, on the cumulative curve in volume of the distribution, at which 90% of the particles are smaller.
An apparatus for machining workpieces , in particular saw blades, comprising: - at least one pick-up station for picking up at least one workpiece which is to be machined, - at least one discharge station for discharging at least one workpiece after machining, - at least one machining station for machining at least one workpiece , wherein the at least one machining station is arranged between the pick-up station and the discharge station , and - at least one transport device for transporting at least one workpiece between the stations , wherein the at least one transport device is configured in such a manner that it transports at least one workpiece from one station to the next station , wherein the at least one transport device simultaneously heads for at least two stations to transfer the workpiece, wherein at the at least the one machining station the at least one transport device moves into a position, in which a machining station may be loaded with a workpiece or in which the workpiece may be picked up after machining, and wherein in a pick-up station the workpiece is picked up and in the discharge station the workpiece is discharged, wherein the at least one transport device is configured in such a manner that it moves linearly in a first direction of movement (X) relative to the stations , wherein the at least one transport device is configured in such a manner that at least one workpiece is movable for pick-up or transfer to at least one station in at least a second direction of movement (Y) relative to at least this station , characterised in that the at least one transport device is configured in such a manner that the at least one transport device is movable in a third direction of movement (Z), wherein in the third direction of movement the position of the at least one transport device is adjustable in the vertical direction. - at least one pick-up station for picking up at least one workpiece which is to be machined, - at least one discharge station for discharging at least one workpiece after machining, - at least one machining station for machining at least one workpiece , wherein the at least one machining station is arranged between the pick-up station and the discharge station , and - at least one transport device for transporting at least one workpiece between the stations ,
An identification device , of the type comprising - an electronic chip ; - a communication element suitable for connecting the electronic chip to a reading device ; - a casing surrounding the electronic chip and the communication element, the casing comprising a receptacle made of a metal material having a melting point higher than 150° C, the casing comprising a lining surrounding the electronic chip and the communication element , the lining being resistant to a temperature higher than 150° C, the lining being arranged in the receptacle, characterized in that the lining is made of a refractory material cast in the non-solid state in the receptacle and solidified. - an electronic chip ; - a communication element suitable for connecting the electronic chip to a reading device ; - a casing surrounding the electronic chip and the communication element, the casing comprising a receptacle made of a metal material having a melting point higher than 150° C, the casing comprising a lining surrounding the electronic chip and the communication element , the lining being resistant to a temperature higher than 150° C, the lining being arranged in the receptacle, characterized in that the lining is made of a refractory material cast in the non-solid state in the receptacle and solidified.
A method of wireless communication by a user equipment, UE, comprising: determining a channel busy ratio, CBR; determining one or more channel resource utilization limits based on the CBR, wherein each channel resource utilization limit of the one or more channel resource utilization limits corresponds to a respective packet priority; and controlling transmission of a plurality of packets based on the one or more channel resource utilization limits, each packet of the plurality of packets being associated with a respective packet priority, characterized in that each channel resource utilization limit of the one or more channel resource utilization limit is determined by: determining a CBR limit for a corresponding packet priority; determining a number of other UEs within a communication range of the UE as a function of the CBR; and determining a channel resource utilization limit for the corresponding packet priority by dividing the CBR limit for the corresponding packet priority by the number of other UEs within the communication range of the UE. determining a channel busy ratio, CBR; determining one or more channel resource utilization limits based on the CBR, wherein each channel resource utilization limit of the one or more channel resource utilization limits corresponds to a respective packet priority; and controlling transmission of a plurality of packets based on the one or more channel resource utilization limits, each packet of the plurality of packets being associated with a respective packet priority, characterized in that each channel resource utilization limit of the one or more channel resource utilization limit is determined by: determining a CBR limit for a corresponding packet priority; determining a number of other UEs within a communication range of the UE as a function of the CBR; and determining a channel resource utilization limit for the corresponding packet priority by dividing the CBR limit for the corresponding packet priority by the number of other UEs within the communication range of the UE. determining a CBR limit for a corresponding packet priority; determining a number of other UEs within a communication range of the UE as a function of the CBR; and determining a channel resource utilization limit for the corresponding packet priority by dividing the CBR limit for the corresponding packet priority by the number of other UEs within the communication range of the UE.
A method for the control of the load distribution in a power network used by an energy supplier, by way of which a multiplicity of households are supplied, wherein the energy supplier determines the current capacity of the network and, as a function of the current network capacity, transmits switch-on information by way of a data line network to power-consuming domestic appliances in the households, wherein a time window for a switch-on time of a domestic appliance is specified to the energy supplier by a user of the domestic appliance, wherein as a function of the currently determined network capacity, the energy supplier transmits a switch-on command in the time window, with which the domestic appliance is directly switched on, wherein the switch-on command is transmitted between the energy supplier and the consumer by way of a bi-directional data line , utilising the Internet , characterised in that the energy supplier communicates with the domestic appliance by way of the Internet, using an interposed communications and/or operations platform, in that the communications and/or operations platform collects and bundles load registrations, and communicates them to various requirement groups, wherein by purchasing a bundle from the platform a user obtains temporary sovereignty for the control of these loads within the agreed framework.
Heads-up display system comprising at least one display and an optical guide comprising a first image guide comprising a plurality of first internal semi-reflecting plates , inclined with respect to a first plane, characterized in that : - the heads-up display system comprises an oculometer capable of detecting the position of the pupil (Y) of the eye of an observer; - at least one of said first reflecting plates comprising a processing with programmable reflectivity, said reflectivity depending on the position and/or the orientation of the ocular pupil detected by the oculometer , in such a manner as to reflect the image of the display towards said pupil and only towards the latter; - the optical guide comprises a second image guide comprising a plurality of second internal semi-reflecting plates , inclined with respect to a second plane perpendicular to the first plane, the first image guide widens the pupil in a first direction, the second image guide widens the pupil in the perpendicular direction, at least one of said second plates comprising a processing with programmable reflectivity, said reflectivity depending on the position and/or the orientation of the ocular pupil detected by the oculometer in such a manner as to reflect the image of the display towards said pupil and only towards the latter. - the heads-up display system comprises an oculometer capable of detecting the position of the pupil (Y) of the eye of an observer; - at least one of said first reflecting plates comprising a processing with programmable reflectivity, said reflectivity depending on the position and/or the orientation of the ocular pupil detected by the oculometer , in such a manner as to reflect the image of the display towards said pupil and only towards the latter; - the optical guide comprises a second image guide comprising a plurality of second internal semi-reflecting plates , inclined with respect to a second plane perpendicular to the first plane, the first image guide widens the pupil in a first direction, the second image guide widens the pupil in the perpendicular direction, at least one of said second plates comprising a processing with programmable reflectivity, said reflectivity depending on the position and/or the orientation of the ocular pupil detected by the oculometer in such a manner as to reflect the image of the display towards said pupil and only towards the latter.
A composition for use in reducing intraocular pressure, wherein the composition consists essentially of (i) 0.1% w/v brimonidine tartrate, 0.68% w/v timolol maleate, 0.1% w/v sodium chloride, 2.15% w/v sodium phosphate dibasic heptahydrate, 0.22% w/v sodium phosphate monobasic monohydrate, and water; or (ii) 0.1% w/v brimonidine tartrate, 0.68% w/v timolol maleate, 0.6% w/v boric acid, 0.38% sodium borate decahydrate, 0.5% w/v carboxymethyl cellulose, 0.32% w/v sodium chloride, and water; wherein the composition does not comprise a preservative. (i) 0.1% w/v brimonidine tartrate, 0.68% w/v timolol maleate, 0.1% w/v sodium chloride, 2.15% w/v sodium phosphate dibasic heptahydrate, 0.22% w/v sodium phosphate monobasic monohydrate, and water; or (ii) 0.1% w/v brimonidine tartrate, 0.68% w/v timolol maleate, 0.6% w/v boric acid, 0.38% sodium borate decahydrate, 0.5% w/v carboxymethyl cellulose, 0.32% w/v sodium chloride, and water;