mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a connectivity platform for establishing network connectivity with a device, comprising: detecting the device; establishing a connection with the device; detecting a plurality of networks which are capable of establishing connection with the device using at least one transceiver of the device; determining a network policy of each of the plurality of networks, wherein the determining comprises receiving the network policy of each of the plurality of networks from a policy server via a push policy based on the device being active; determining a signal quality of each of the plurality of networks; analyzing the network policy and the signal quality of each of the plurality of networks, wherein the analyzing comprises: determining at least one network policy compatible with the device by comparing the network policy of each of the plurality of networks; and determining an optimal network for establishing a connection with the device by comparing the signal quality of each of the networks corresponding to the determined at least one network policy; and establishing a connection between the device and the optimal network based on the analyzing; and wherein the connectivity platform is an external platform not residing in the device. detecting the device; establishing a connection with the device; detecting a plurality of networks which are capable of establishing connection with the device using at least one transceiver of the device; determining a network policy of each of the plurality of networks, wherein the determining comprises receiving the network policy of each of the plurality of networks from a policy server via a push policy based on the device being active; determining a signal quality of each of the plurality of networks; analyzing the network policy and the signal quality of each of the plurality of networks, wherein the analyzing comprises: determining at least one network policy compatible with the device by comparing the network policy of each of the plurality of networks; and determining an optimal network for establishing a connection with the device by comparing the signal quality of each of the networks corresponding to the determined at least one network policy; and establishing a connection between the device and the optimal network based on the analyzing; and wherein the connectivity platform is an external platform not residing in the device. determining at least one network policy compatible with the device by comparing the network policy of each of the plurality of networks; and determining an optimal network for establishing a connection with the device by comparing the signal quality of each of the networks corresponding to the determined at least one network policy; and establishing a connection between the device and the optimal network based on the analyzing; and wherein the connectivity platform is an external platform not residing in the device.
A method of discovering access points for distributed multiple-in-multiple-out, MIMO, communication, comprising: generating , by a first access point , a first message indicating the first access point has distributed MIMO capability; generating, by the first access point, the first message to further indicate an average or maximum spatial dimension usage of the first access point and a maximum number of spatial dimensions of the first access point; transmitting , by the first access point, the first message on a wireless network; receiving, by the first access point, a second message from a second access point , the second message identifying a cluster; and determining, by the first access point, to participate in the identified cluster in response to the second message. generating , by a first access point , a first message indicating the first access point has distributed MIMO capability; generating, by the first access point, the first message to further indicate an average or maximum spatial dimension usage of the first access point and a maximum number of spatial dimensions of the first access point; transmitting , by the first access point, the first message on a wireless network; receiving, by the first access point, a second message from a second access point , the second message identifying a cluster; and determining, by the first access point, to participate in the identified cluster in response to the second message.
A queue assigner for assigning a client device, in particular a base station , to message queues (207-1) for exchanging communication data between the client device and a communication network via a plurality of gateways, wherein the each gateway is associated with at least one message queue (207-1) for transferring the communication data, the queue assigner comprising: a processor configured for assigning the client device to an existing message queue (207-1), wherein the message queue is associated with at least one gateway selected from the plurality of gateways; in particular determining that a new message queue (207-1) is required if the client device cannot be assigned to the existing message queues (207-1); causing a creation of the new message queue (207-1), in particular responsive to that determination, if the client device cannot be assigned to the existing message queues (207-1); and assigning the client device to the new message queue (207-1) for transmitting communication data; wherein the processor is configured for assigning the client device to the existing message queue (207-1) according to a communication parameter relating to the gateway, to the client device , and/or to the communication network , the processor being configured for validating the identity of the client device before assigning the client device to the existing message queue (207-1). a processor configured for assigning the client device to an existing message queue (207-1), wherein the message queue is associated with at least one gateway selected from the plurality of gateways; in particular determining that a new message queue (207-1) is required if the client device cannot be assigned to the existing message queues (207-1); causing a creation of the new message queue (207-1), in particular responsive to that determination, if the client device cannot be assigned to the existing message queues (207-1); and assigning the client device to the new message queue (207-1) for transmitting communication data; assigning the client device to an existing message queue (207-1), wherein the message queue is associated with at least one gateway selected from the plurality of gateways; in particular determining that a new message queue (207-1) is required if the client device cannot be assigned to the existing message queues (207-1); causing a creation of the new message queue (207-1), in particular responsive to that determination, if the client device cannot be assigned to the existing message queues (207-1); and assigning the client device to the new message queue (207-1) for transmitting communication data; wherein the processor is configured for assigning the client device to the existing message queue (207-1) according to a communication parameter relating to the gateway, to the client device , and/or to the communication network , the processor being configured for validating the identity of the client device before assigning the client device to the existing message queue (207-1).
Method for installing a virtualized network function, contributing to the implementation of a communication service, in a data centre of a set of data centres of a virtualized communication architecture , comprising the following steps implemented in an entity for operating the service: - sending to an entity for managing profiles a message to obtain a set of placement parameters of the virtualized network function that are specific to the type of said virtualized network function, the set being called a profile, said message containing an identifier of said virtualized function, - obtaining (E6), from the entity for managing profiles, a profile corresponding to the type of said virtualized network function, - determining (E7) a first data centre suitable for said virtualized network function to be installed depending on the obtained profile, - modifying (E7) the profile by adding a datum identifying the determined first data centre , - sending (E8) to an entity for administrating the virtualized architecture a request, comprising the modified profile, for installation of the virtualized network function in the determined first data centre , - determining (E12) a second data centre of the set depending on the modified profile with a view to installing the virtualized network function, following reception (E11), from the entity for administrating the virtualized architecture, of a message containing information on non-installation of the virtualized network function in the first data centre . - sending to an entity for managing profiles a message to obtain a set of placement parameters of the virtualized network function that are specific to the type of said virtualized network function, the set being called a profile, said message containing an identifier of said virtualized function, - obtaining (E6), from the entity for managing profiles, a profile corresponding to the type of said virtualized network function, - determining (E7) a first data centre suitable for said virtualized network function to be installed depending on the obtained profile, - modifying (E7) the profile by adding a datum identifying the determined first data centre , - sending (E8) to an entity for administrating the virtualized architecture a request, comprising the modified profile, for installation of the virtualized network function in the determined first data centre , - determining (E12) a second data centre of the set depending on the modified profile with a view to installing the virtualized network function, following reception (E11), from the entity for administrating the virtualized architecture, of a message containing information on non-installation of the virtualized network function in the first data centre .
A method of managing, by a computer system on board a motor vehicle, the operation of an apparatus for assisting the driving of the vehicle, the method comprising the steps of: i) determine whether the vehicle is approaching a location where a particular traffic regulation is applicable; and, where it is established that this is the case, ii) determine data characterising a location upstream the location where a particular traffic code regulation is applicable and a location at the downstream of the location where a particular traffic code regulation is applicable; and wherein the process comprises the step of: iii) deactivate the driving-assist apparatus between the location upstream the location where a particular traffic code regulation is applicable and the location at the downstream of the location where a particular traffic code regulation is applicable. i) determine whether the vehicle is approaching a location where a particular traffic regulation is applicable; and, where it is established that this is the case, ii) determine data characterising a location upstream the location where a particular traffic code regulation is applicable and a location at the downstream of the location where a particular traffic code regulation is applicable; and wherein the process comprises the step of: iii) deactivate the driving-assist apparatus between the location upstream the location where a particular traffic code regulation is applicable and the location at the downstream of the location where a particular traffic code regulation is applicable.
A cooling assembly for a hybrid vehicle , comprising: a first cooling system configured to cool an engine; and a second cooling system separate from the first cooling system and configured to cool a plurality of electrical components including at least a low-voltage component and a high-voltage component , characterized in that the second cooling system includes a first cooling fluid path configured to cool at least the low-voltage electrical component and the high-voltage component , and includes a second cooling fluid path configured to cool at least the high-voltage electrical component , and the first cooling fluid path is a fluid-based cooling path configured to circulate ambient air having a first rate of cooling, and the second cooling fluid path is a fluid-based cooling path configured to circulate liquid having a second rate of cooling different from the first rate of cooling. a first cooling system configured to cool an engine; and a second cooling system separate from the first cooling system and configured to cool a plurality of electrical components including at least a low-voltage component and a high-voltage component , characterized in that the second cooling system includes a first cooling fluid path configured to cool at least the low-voltage electrical component and the high-voltage component , and includes a second cooling fluid path configured to cool at least the high-voltage electrical component , and the first cooling fluid path is a fluid-based cooling path configured to circulate ambient air having a first rate of cooling, and the second cooling fluid path is a fluid-based cooling path configured to circulate liquid having a second rate of cooling different from the first rate of cooling. a first cooling fluid path configured to cool at least the low-voltage electrical component and the high-voltage component , and includes a second cooling fluid path configured to cool at least the high-voltage electrical component , and the first cooling fluid path is a fluid-based cooling path configured to circulate ambient air having a first rate of cooling, and the second cooling fluid path is a fluid-based cooling path configured to circulate liquid having a second rate of cooling different from the first rate of cooling.
A system for ammonia purification, which comprises: an ammonia vapor stream ; a water wash connected to the ammonia vapor stream for removing hydrogen sulfide from the ammonia vapor stream and producing a scrubbed ammonia vapor stream ; a caustic wash connected to the scrubbed ammonia vapor stream for removing residual containments in the scrubbed ammonia vapor stream and producing a double scrubbed ammonia vapor stream ; at least one of a compressor , a refrigeration unit and an ammonia absorber connected to only the double scrubbed ammonia vapor stream for producing at least one of an anhydrous liquid ammonia stream and an aqueous ammonia stream ; and wherein the ammonia vapor stream , the scrubbed ammonia vapor stream , the double scrubbed ammonia vapor stream , the anhydrous liquid ammonia stream and the aqueous ammonia stream are each connected to a respective adsorbent bed for removing hydrocarbons from the respective stream, each adsorbent bed including an adsorbent selected from the group consisting of silica and molecular sieves. an ammonia vapor stream ; a water wash connected to the ammonia vapor stream for removing hydrogen sulfide from the ammonia vapor stream and producing a scrubbed ammonia vapor stream ; a caustic wash connected to the scrubbed ammonia vapor stream for removing residual containments in the scrubbed ammonia vapor stream and producing a double scrubbed ammonia vapor stream ; at least one of a compressor , a refrigeration unit and an ammonia absorber connected to only the double scrubbed ammonia vapor stream for producing at least one of an anhydrous liquid ammonia stream and an aqueous ammonia stream ; and wherein the ammonia vapor stream , the scrubbed ammonia vapor stream , the double scrubbed ammonia vapor stream , the anhydrous liquid ammonia stream and the aqueous ammonia stream are each connected to a respective adsorbent bed for removing hydrocarbons from the respective stream, each adsorbent bed including an adsorbent selected from the group consisting of silica and molecular sieves.
Bulkhead fitting for at least one member (O) intended to pass through a bulkhead (C) separating a passenger compartment from an engine compartment of an automotive vehicle, said bulkhead fitting comprising: - a rigid frame intended to be attached to said bulkhead (C) so as to define a first space (V1) between the frame and the bulkhead; - a mounting means for said member; and - a wall that is more flexible than the frame , this wall being attached both to the frame and to the mounting means , so as to define a second space (V2) delimited by said frame , said wall and said mounting means ; characterised in that the frame comprises at least one opening (OR) allowing fluid communication between the first space (V1) and the second space (V2). - a rigid frame intended to be attached to said bulkhead (C) so as to define a first space (V1) between the frame and the bulkhead; - a mounting means for said member; and - a wall that is more flexible than the frame , this wall being attached both to the frame and to the mounting means , so as to define a second space (V2) delimited by said frame , said wall and said mounting means ; characterised in that the frame comprises at least one opening (OR) allowing fluid communication between the first space (V1) and the second space (V2).
A multiphase microsphere for radioembolization, the multiphase microsphere comprising: a primary phase comprising a first resin; and a first secondary phase surrounded by the primary phase, the first secondary phase comprising a second resin and at least one of a radioactive isotope or a compound including at least one radioactive element. a primary phase comprising a first resin; and a first secondary phase surrounded by the primary phase, the first secondary phase comprising a second resin and at least one of a radioactive isotope or a compound including at least one radioactive element.
A method of producing silicon carbide crystals in a furnace comprising an upper heater, a lower heater, located beneath the upper heater, and a growth chamber, located inside the upper heater, provided with a crucible for a source material and a crucible cover allowing fixing of a monocrystalline seed thereon, wherein the monocrystalline seed is placed in an upper part of the growth chamber, and the source material is placed in the crucible, the growth chamber is filled with an inert gas, by means of the upper and lower heaters, the monocrystalline seed is heated to a temperature of at least 2150°C, and the source material to a higher temperature, preferably at least 2300°C, during the process, the source material is maintained at a higher temperature than the seed, and in these conditions, thermal decomposition of the source material and crystallization of silicon carbide on the monocrystalline seed are performed to give a silicon carbide crystal, characterised in that during the crystallization of silicon carbide on the monocrystalline seed, power P g supplied to the upper heater and power P d supplied do the lower heater are changed over time depending on the thickness of the growing crystal in order to change the temperature field during the crystal growth, wherein the rear surface of the monocrystalline seed , i.e. the surface which, in the growth process, faces outward relative to the crucible , is covered preferably with a graphite plate , and during the crystallization of silicon carbide on the monocrystalline seed a) first, P g / P d power ratio is maximised, preferably by supplying the highest possible power P g to the upper heater and the lowest possible power P d to the lower heater , until the growing crystal reaches a thickness of about 3mm, and then b) P g / P d power ratio is reduced, preferably by supplying power P g lower than in the preceding step to the upper heater , until the growing crystal reaches a thickness of about 30mm, and then c) P g / P d power ratio is further reduced in order to maintain the temperature difference between the source material and the surface of the growing crystal, preferably by supplying power P g higher than in the preceding step to the lower heater . a) first, P g / P d power ratio is maximised, preferably by supplying the highest possible power P g to the upper heater and the lowest possible power P d to the lower heater , until the growing crystal reaches a thickness of about 3mm, and then b) P g / P d power ratio is reduced, preferably by supplying power P g lower than in the preceding step to the upper heater , until the growing crystal reaches a thickness of about 30mm, and then c) P g / P d power ratio is further reduced in order to maintain the temperature difference between the source material and the surface of the growing crystal, preferably by supplying power P g higher than in the preceding step to the lower heater .
Method for maintaining the performance of a pneumatic vehicle tyre for winter or year-round use throughout its lifetime with a tread , which has profile elements and circumferential and/or transverse grooves arranged between these profile elements, wherein at least one profile element is provided with a sipe , which is arranged within the profile element, extends approximately in the radial direction (rR) from the tread periphery into the interior of the profile element and has corresponding sipe walls, wherein the circumferential and/or transverse grooves have a first depth and the sipe has a second depth , wherein the second depth lies in a range of 15% - 50% of the first depth and wherein the second depth is however at least 2 mm, characterized in that , after reaching its critical remaining depth, the sipe is regrooved in terms of its depth, preferably by means of a laser, wherein the sipe is regrooved in such a way that, after the regrooving, it has a second depth in a range of 15% - 50% of a first depth , remaining after the previous abrasive wear, of the circumferential and/or transverse grooves, wherein the regrooved second depth is however at least 2 mm.
Structural unit having at least one positionally fixed bearing element , a movable covering element , in particular a roller blind covering , and at least one movable holding element , in particular a hook , wherein the movable covering element is mounted about a first axis of rotation so as to be rotatable with respect to the positionally fixed bearing element using a first support bearing and the movable holding element is mounted about a second axis of rotation so as to be rotatable with respect to the positionally fixed bearing element using a second support bearing , wherein the first axis of rotation and the second axis of rotation are coaxial to one another, characterized in that the positionally fixed bearing element has a part-open first bearing shell in which a bearing partner of the movable covering element that can be inserted into the part-open first bearing shell is rotatably received and the movable covering element has a part-open second bearing shell in which a second bearing partner of the movable holding element that can be inserted into the part-open second bearing shell is received.