mhurhangee/ep-ind-claims huggingface dataset:
A method in an optical steering domain for steering one or more traffic flows through a plurality of processing nodes, wherein each of the one or more flows of traffic is to be processed by a different defined series of one or more processing nodes of the plurality of processing nodes, and wherein the optical steering domain comprises a set of three or more wavelength selective switches (WSSs), the method comprising: receiving traffic of a traffic flow of the one or more traffic flows at a common port of a first WSS of the set of WSSs, wherein the first WSS includes a plurality of tributary ports coupled to a respective plurality of optical links leading toward the plurality of processing nodes; transmitting, using a first tributary port of the WSS over a first optical link of the plurality of optical links, the traffic toward a first processing node of the plurality of processing nodes; receiving, at a tributary port of a second WSS of the set of WSSs, processed traffic, wherein the processed traffic is the result of the traffic being processed by the first processing node; transmitting, at a common port of the second WSS, the processed traffic to a third WSS of the set of WSSs; receiving, at a common port of the third WSS, the processed traffic; and transmitting, one or more times, the processed traffic out of one or more tributary ports of the third WSS on one or more optical links coupled to the one or more tributary ports of the third WSS on one end and coupled to one or more of the plurality of optical links that are coupled to the first WSS, to be looped back for further processing by one or more other processing nodes (110B-110D) of the plurality of processing nodes. receiving traffic of a traffic flow of the one or more traffic flows at a common port of a first WSS of the set of WSSs, wherein the first WSS includes a plurality of tributary ports coupled to a respective plurality of optical links leading toward the plurality of processing nodes; transmitting, using a first tributary port of the WSS over a first optical link of the plurality of optical links, the traffic toward a first processing node of the plurality of processing nodes; receiving, at a tributary port of a second WSS of the set of WSSs, processed traffic, wherein the processed traffic is the result of the traffic being processed by the first processing node; transmitting, at a common port of the second WSS, the processed traffic to a third WSS of the set of WSSs; receiving, at a common port of the third WSS, the processed traffic; and transmitting, one or more times, the processed traffic out of one or more tributary ports of the third WSS on one or more optical links coupled to the one or more tributary ports of the third WSS on one end and coupled to one or more of the plurality of optical links that are coupled to the first WSS, to be looped back for further processing by one or more other processing nodes (110B-110D) of the plurality of processing nodes.
A method for execution at a wireless device (102, 400), comprising: receiving a grant conferring transmission rights associated with a wireless communications resource block, RB; receiving a plurality of quality of service, QoS, indicators, each of the plurality of QoS indicators associated with a transmission path associated with the conferred transmission rights and each of the plurality of QoS indicators comprises an indication of an expected end-to-end QoS for data transmitted by the wireless device (102, 400) to a core network through a wireless reception point (110, 113); and transmitting data in the RB associated with the received grant, the transmitted data being selected in accordance with one of the received QoS indicators. receiving a grant conferring transmission rights associated with a wireless communications resource block, RB; receiving a plurality of quality of service, QoS, indicators, each of the plurality of QoS indicators associated with a transmission path associated with the conferred transmission rights and each of the plurality of QoS indicators comprises an indication of an expected end-to-end QoS for data transmitted by the wireless device (102, 400) to a core network through a wireless reception point (110, 113); and transmitting data in the RB associated with the received grant, the transmitted data being selected in accordance with one of the received QoS indicators.
An active airflow inhibiting apparatus for an entranceway (4, 6) of a building comprising: a structure configured to be positioned adjacent the entranceway and defining a passage therethrough for accessing the entranceway; wherein the structure defines at least one plenum chamber and first and second outlet slots (24a, 24b) fluidically coupled to the at least one plenum chamber; characterised by: a fan (20a, 20b) fluidically connected to the at least one plenum chamber for supplying an airflow to the at least one plenum chamber in order to selectively form a jet of air from the first outlet slot in a first mode of operation and from the second outlet slot in a second mode of operation; wherein the first and second outlet slots (24a, 24b) are configured so that the respective jets of air are each directed towards a centre of the structure, with the jet of air from the first outlet slot being directed away from the entranceway and the jet of air from the second outlet slot being directed towards the entranceway. a structure configured to be positioned adjacent the entranceway and defining a passage therethrough for accessing the entranceway; wherein the structure defines at least one plenum chamber and first and second outlet slots (24a, 24b) fluidically coupled to the at least one plenum chamber; characterised by: a fan (20a, 20b) fluidically connected to the at least one plenum chamber for supplying an airflow to the at least one plenum chamber in order to selectively form a jet of air from the first outlet slot in a first mode of operation and from the second outlet slot in a second mode of operation; wherein the first and second outlet slots (24a, 24b) are configured so that the respective jets of air are each directed towards a centre of the structure, with the jet of air from the first outlet slot being directed away from the entranceway and the jet of air from the second outlet slot being directed towards the entranceway. a fan (20a, 20b) fluidically connected to the at least one plenum chamber for supplying an airflow to the at least one plenum chamber in order to selectively form a jet of air from the first outlet slot in a first mode of operation and from the second outlet slot in a second mode of operation; wherein the first and second outlet slots (24a, 24b) are configured so that the respective jets of air are each directed towards a centre of the structure, with the jet of air from the first outlet slot being directed away from the entranceway and the jet of air from the second outlet slot being directed towards the entranceway.
An implantable strain relief loop holder for a medical lead, comprising: a body segment defining at least one passageway; a first arm extending from a first end of the body segment; a first arm segment at an end of the first arm opposite the body segment, the first arm segment defining a first arm passageway; a second arm extending from a second end of the body segment; and a second arm segment at the end of the second arm opposite the body segment, the second arm segment defining a second arm passageway. a body segment defining at least one passageway; a first arm extending from a first end of the body segment; a first arm segment at an end of the first arm opposite the body segment, the first arm segment defining a first arm passageway; a second arm extending from a second end of the body segment; and a second arm segment at the end of the second arm opposite the body segment, the second arm segment defining a second arm passageway.
A mouth cooler (100, 200) comprising - a first peripheral cooling winding shaped and dimensioned to cool the lower and upper jaw, and - at least two second cooling windings (217, 218) in arrangement with the peripheral cooling winding shaped and dimensioned to cool at least the blood entry to the tongue, wherein each second cooling winding (217, 218) is in fluid connection to the peripheral cooling winding and wherein the peripheral cooling winding comprises a tubing extending along the vestibule under the inferior lip and through one of the second windings (217, 218), after which it continues along the vestibule under the upper lip and further through a further second winding (217, 218), wherein the tubing comprises an inlet for receiving a cooling fluid and an outlet for allowing the cooling fluid to exit the tubing. - a first peripheral cooling winding shaped and dimensioned to cool the lower and upper jaw, and - at least two second cooling windings (217, 218) in arrangement with the peripheral cooling winding shaped and dimensioned to cool at least the blood entry to the tongue, wherein each second cooling winding (217, 218) is in fluid connection to the peripheral cooling winding and wherein the peripheral cooling winding comprises a tubing extending along the vestibule under the inferior lip and through one of the second windings (217, 218), after which it continues along the vestibule under the upper lip and further through a further second winding (217, 218), wherein the tubing comprises an inlet for receiving a cooling fluid and an outlet for allowing the cooling fluid to exit the tubing.
A display data obtaining apparatus comprising a display data obtaining unit for obtaining display data showing an optical characteristic distribution based on a signal obtained by detecting an acoustic wave generated from a subject irradiated with pulsed light, the display data obtaining unit comprising: a first data deriving unit for deriving first data regarding the optical characteristic distribution of the subject based on the signal, characterized in that the display data obtaining unit further comprises: a memory for storing spatial sensitivity distribution data specific to the display data obtaining apparatus; and a second data deriving unit for deriving second data regarding the optical characteristic distribution of the subject by dividing the first data by the spatial sensitivity distribution data or by multiplying the first data by the spatial sensitivity distribution data. a first data deriving unit for deriving first data regarding the optical characteristic distribution of the subject based on the signal, a memory for storing spatial sensitivity distribution data specific to the display data obtaining apparatus; and a second data deriving unit for deriving second data regarding the optical characteristic distribution of the subject by dividing the first data by the spatial sensitivity distribution data or by multiplying the first data by the spatial sensitivity distribution data.
A device (200, 400, 500) for removal/evacuation of a silicone implant from a subject, the device (200, 400, 500) comprising a collection container (210, 410, 510) comprising a connector (220, 420, 520) for connection to a suction source and a rimmed (240, 440, 540) opening (230, 430, 530) sized and shaped to adhere to or juxtapose the implant, such that when suction is applied, the implant is sucked into said collection container, characterized by the collection container (210, 410, 510) including a skeleton (450, 550) configured to resist collapse of the collection container (210, 410, 510), when suction is applied, wherein the skeleton (450, 550) is internal to or embedded within a wall of the collection container; and further characterized in that the rimmed (240, 440, 540) opening (230, 430, 530) is essentially elliptical and has a major axis in a range of 2 cm to 6 cm. characterized by the collection container (210, 410, 510) including a skeleton (450, 550) configured to resist collapse of the collection container (210, 410, 510), when suction is applied, wherein the skeleton (450, 550) is internal to or embedded within a wall of the collection container; and further characterized in that the rimmed (240, 440, 540) opening (230, 430, 530) is essentially elliptical and has a major axis in a range of 2 cm to 6 cm.
A filter element for use with a respiratory protection device to provide breathable air for a user, comprising: filter media (110, 210) having front and rear walls (111, 211 and 112, 212) each comprising a proximal end (111a, 112a) and a distal end (111b, 112b), a side portion (114, 214) at the proximal ends of the front and rear walls, and an outlet (115, 215); and a breather tube (120, 220) attached to the filter media in fluid communication with the outlet; wherein the filter media comprises a single folded filter media portion that forms the front wall and the rear wall, the side portion interfaces between the front and rear walls, the front and rear walls are joined at least partially along a perimeter (116, 216), and the outlet is positioned at least partially on the side portion. filter media (110, 210) having front and rear walls (111, 211 and 112, 212) each comprising a proximal end (111a, 112a) and a distal end (111b, 112b), a side portion (114, 214) at the proximal ends of the front and rear walls, and an outlet (115, 215); and a breather tube (120, 220) attached to the filter media in fluid communication with the outlet; wherein the filter media comprises a single folded filter media portion that forms the front wall and the rear wall, the side portion interfaces between the front and rear walls, the front and rear walls are joined at least partially along a perimeter (116, 216), and the outlet is positioned at least partially on the side portion.
An assembly comprising a lithium-sulfur battery and a gas suppression device for suppressing gas generation in the lithium-sulfur battery having gone through an activation step, comprising: a voltage measurement unit configured to measure a voltage of the lithium-sulfur battery; a current application unit configured to apply an electric current to the lithium-sulfur battery; and a control unit configured to control the current application unit to maintain the voltage of the lithium-sulfur battery within a predetermined range based on a voltage measurement result of the voltage measurement unit; wherein the activation step includes a formation process and a degassing process, the formation process refers to the process of charging and discharging the battery at least once, and the degassing process refers to a process of removing gas generated in the formation process, wherein the control unit is configured to compare the voltage measured by the voltage measurement unit with a preset reference voltage, and when the voltage measured by the voltage measurement unit is less than the reference voltage, control the current application unit to apply the electric current to the lithium-sulfur battery. a voltage measurement unit configured to measure a voltage of the lithium-sulfur battery; a current application unit configured to apply an electric current to the lithium-sulfur battery; and a control unit configured to control the current application unit to maintain the voltage of the lithium-sulfur battery within a predetermined range based on a voltage measurement result of the voltage measurement unit; wherein the activation step includes a formation process and a degassing process, the formation process refers to the process of charging and discharging the battery at least once, and the degassing process refers to a process of removing gas generated in the formation process, wherein the control unit is configured to compare the voltage measured by the voltage measurement unit with a preset reference voltage, and when the voltage measured by the voltage measurement unit is less than the reference voltage, control the current application unit to apply the electric current to the lithium-sulfur battery.
A reverse hexagonal mesophase comprising at least one amphipathic molecule being glycerol monooleate, at least one phospholipid, at least one of (i) a lipophilic compound and (ii) an antioxidant, and water, wherein said mesophase is for use in the oral or transdermal administration of at least one biomacromolecule.
Hybrid evaporator comprising an evaporator structure forming a heat transfer surface and a working medium reservoir containing a working fluid, the evaporator structure having a coolant duct, a bubble generation structure being provided, the bubble generation structure being arranged in the region of the working medium reservoir in such a way that it can be at least partially flooded by the working fluid and/or wetted with working fluid, and the evaporator structure being arranged in a spraying region of the working fluid in such a way that the heat transfer surface can be wetted with a working fluid film by working fluid that is carried along by gas bubbles which can be generated and/or introduced in the working fluid by the bubble generation structure and which are rising in the working fluid, the bubble generation structure having a fluid-guiding pipe for generating the gas bubbles by means of bulk boiling, and the fluid-guiding pipe and the coolant duct being arranged in series one behind the other in a coolant circuit, characterized in that means are provided in the spraying region for expanding and/or deflecting the spraying region, containing a distributor structure for collecting the working fluid entrained by the gas bubbles and for distributing the working fluid on and/or over the evaporator structure and wherein the working fluid contains, or consists of, water and/or ethanol and/or methanol.
Method for determining the performance of electric vehicle energy storage units comprising a) Providing a vehicle energy storage unit connected to an intermediate circuit, b) Providing a charging device that can be detached from the vehicle energy storage unit or from the intermediate circuit, c) Providing at least two current-carrying power channels, preferably directly from the charging device to the vehicle energy storage unit or the intermediate circuit, d) Determining at least one current, in particular at least one amperage, of the vehicle energy storage unit, e) Determining at least one voltage of the vehicle energy storage unit, f) Determining at least one resistance of the vehicle energy storage unit, and g) Determining further physical variables as measured values, whereby a time-variable current increase or current drop is used to determine the performance, in particular the resistance, of the vehicle energy storage unit, whereby the current and voltage are determined outside of the vehicle, preferably inside the charging device, wherein influences, in particular parasitic effects, of components (8, 9) other than the energy storage device connected to the intermediate circuit and/or components between the charging device and the energy storage device are compensated for to determine the performance of the energy storage device, whereby at least one external physical variable and already known information about the energy storage device or already known information about energy storage devices comparable to the energy storage device are used to compensate for those influences. a) Providing a vehicle energy storage unit connected to an intermediate circuit, b) Providing a charging device that can be detached from the vehicle energy storage unit or from the intermediate circuit, c) Providing at least two current-carrying power channels, preferably directly from the charging device to the vehicle energy storage unit or the intermediate circuit, d) Determining at least one current, in particular at least one amperage, of the vehicle energy storage unit, e) Determining at least one voltage of the vehicle energy storage unit, f) Determining at least one resistance of the vehicle energy storage unit, and g) Determining further physical variables as measured values, whereby a time-variable current increase or current drop is used to determine the performance, in particular the resistance, of the vehicle energy storage unit, whereby the current and voltage are determined outside of the vehicle, preferably inside the charging device, wherein influences, in particular parasitic effects, of components (8, 9) other than the energy storage device connected to the intermediate circuit and/or components between the charging device and the energy storage device are compensated for to determine the performance of the energy storage device, whereby at least one external physical variable and already known information about the energy storage device or already known information about energy storage devices comparable to the energy storage device are used to compensate for those influences.
Acrylic polyols comprising hydroxy functional acrylic copolymers/resin involving an acrylic backbone having carboxylic acid anhydride modified castor oil as hydroxy functional monomer and with hydroxyl value of the acrylic polyols in the range of 40 to about 90 mg KOH/gm.
A link quality obtaining method, comprising: Determining, by a session management network element, a monitoring link, wherein the monitoring link is used to detect quality of service of a service path between a first communications device and a second communications device; Sending, by the session management network element, a first link quality reporting request to the first communications device, wherein the first link quality reporting request is used to indicate the first communications device to report quality of service information of the service path when a reporting policy is met; and Receiving, by the session management network element, a first link quality notification message from the first communications device, wherein the first link quality notification message comprises the quality of service information and an identifier of the monitoring link, wherein the first communications device is a User Plane Function, UPF,, the second communications device is a terminal, the session management network element is a Session Management Function, SMF,, and the service path is a Quality of Service, QoS, flow. Determining, by a session management network element, a monitoring link, wherein the monitoring link is used to detect quality of service of a service path between a first communications device and a second communications device; Sending, by the session management network element, a first link quality reporting request to the first communications device, wherein the first link quality reporting request is used to indicate the first communications device to report quality of service information of the service path when a reporting policy is met; and Receiving, by the session management network element, a first link quality notification message from the first communications device, wherein the first link quality notification message comprises the quality of service information and an identifier of the monitoring link, wherein the first communications device is a User Plane Function, UPF,, the second communications device is a terminal, the session management network element is a Session Management Function, SMF,, and the service path is a Quality of Service, QoS, flow.
Filling device for mobile oxygen stores, having at least one mobile oxygen supply for vehicles and at least one coupling means for establishing an operative connection between the filling device and a mobile oxygen store, wherein, by way of the coupling means, an operative connection between the oxygen supply and the mobile oxygen store is able to be realized at least temporarily, characterized in that, by way of the coupling means, mechanical retention of a carrying apparatus in which the mobile oxygen store is arranged is additionally able to be realized, and in that the filling device has a safety system comprising an oxygen-gas-supply section and at least one bypass section, wherein the oxygen-gas-supply section has at least one pressure sensor, and wherein the bypass section has at least one throttle, one check valve and one bypass valve.