mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forwarding a video-on-demand flow, comprising: receiving , by a Virtual Broadband Remote Access Server, vBRAS, Service Orchestrator, vBRASSO, in a network with virtualization of network functions, user information from a vBRAS in a vBRAS resource pool, wherein the vBRASSO is configured to establish and deploy the vBRAS resource pool and manage vBRASs in the vBRAS pool, and wherein the user information is user information of a first user successfully authenticated on the vBRAS; determining , by the vBRASSO, a first Point Of Presence, POP, switch for forwarding a video-on-demand flow to the first user based on the user information; and notifying , by the vBRASSO, the first POP switch of a route for forwarding the video-on-demand flow to the first user in such a way that the first POP switch advertises the route to a Core Router, CR, in the network with virtualization of network functions, wherein the CR is configured to receive the video-on-demand flow from a video-playing source and send the video-on-demand flow to the first user via the route advertised by the first POP switch without passing through the vBRAS, wherein the CR is connected to a video-playing source through a network without via a vBRAS, a vBRASSO and a POP switch, and configured to receive the video-on-demand flow from the video-playing source via the route advertised by the first POP switch, and send the video-on-demand flow to the first POP switch instead of to the vBRAS, for the first POP to forward the video-on-demand flow to the first user without passing through the vBRAS. receiving , by a Virtual Broadband Remote Access Server, vBRAS, Service Orchestrator, vBRASSO, in a network with virtualization of network functions, user information from a vBRAS in a vBRAS resource pool, wherein the vBRASSO is configured to establish and deploy the vBRAS resource pool and manage vBRASs in the vBRAS pool, and wherein the user information is user information of a first user successfully authenticated on the vBRAS; determining , by the vBRASSO, a first Point Of Presence, POP, switch for forwarding a video-on-demand flow to the first user based on the user information; and notifying , by the vBRASSO, the first POP switch of a route for forwarding the video-on-demand flow to the first user in such a way that the first POP switch advertises the route to a Core Router, CR, in the network with virtualization of network functions, wherein the CR is configured to receive the video-on-demand flow from a video-playing source and send the video-on-demand flow to the first user via the route advertised by the first POP switch without passing through the vBRAS, wherein the CR is connected to a video-playing source through a network without via a vBRAS, a vBRASSO and a POP switch, and configured to receive the video-on-demand flow from the video-playing source via the route advertised by the first POP switch, and send the video-on-demand flow to the first POP switch instead of to the vBRAS, for the first POP to forward the video-on-demand flow to the first user without passing through the vBRAS.
Method for verifying the pressure integrity of a barrier in an annulus outside a pipe string in a wellbore , the method including the steps of: - establishing a fluid connection between an inside of the pipe string and an annulus outside the pipe string at a first position (P1) in the wellbore ; - establishing a fluid connection between the inside of the pipe string and the annulus outside the pipe string at a second position (P2) in the wellbore , the second position (P2) being offset from the first position (P1) along the axial direction of the wellbore , and the barrier in the annulus being located outside the pipe string between the first and second fluid connections at the first (P1) and second (P2) positions; - establishing a retrievable barrier between the fluid connections at the first (P1) and second positions (P2) in the wellbore ; - establishing a pressure differential across the retrievable barrier ; - releasing a tracer below the retrievable barrier in the wellbore ; and - sniffing for tracer above the retrievable barrier to verify a leakage through the retrievable barrier and/or the barrier in the annulus , c haracterised in that the step of sniffing for tracer above the retrievable barrier includes: - sniffing for tracer from a position A adjacent the fluid connection through the pipe string at the first position (P1) in the wellbore ; and - sniffing for tracer from a position B, position B being closer to the retrievable barrier than position A, in the well. - establishing a fluid connection between an inside of the pipe string and an annulus outside the pipe string at a first position (P1) in the wellbore ; - establishing a fluid connection between the inside of the pipe string and the annulus outside the pipe string at a second position (P2) in the wellbore , the second position (P2) being offset from the first position (P1) along the axial direction of the wellbore , and the barrier in the annulus being located outside the pipe string between the first and second fluid connections at the first (P1) and second (P2) positions; - establishing a retrievable barrier between the fluid connections at the first (P1) and second positions (P2) in the wellbore ; - establishing a pressure differential across the retrievable barrier ; - releasing a tracer below the retrievable barrier in the wellbore ; and - sniffing for tracer above the retrievable barrier to verify a leakage through the retrievable barrier and/or the barrier in the annulus , - sniffing for tracer from a position A adjacent the fluid connection through the pipe string at the first position (P1) in the wellbore ; and - sniffing for tracer from a position B, position B being closer to the retrievable barrier than position A, in the well.
Resistive particle sensor for detecting soot in the exhaust gas of an internal combustion engine, comprising a sensor element with two conductor tracks , running at a distance from one another in a region of the sensor element that can be exposed to the exhaust gas, for resistively detecting a quantity of particles, the conductor tracks being connected to one another via a capacitance and the conductor tracks running parallel to one another in meanders in the region of the sensor element that can be exposed to the exhaust gas, the conductor tracks being branch-free conductor tracks which each start from a contact area , which is arranged outside the region that can be exposed to the exhaust gas, for making contact with the sensor element , lead from the contact area to the region of the sensor element that can be exposed to the exhaust gas, run in meanders there and subsequently again lead out of the region that can be exposed to the exhaust gas to a further contact area for making contact with the sensor element , and the conductor tracks being connected to one another by means of the two further contact areas via the capacitance and the value of the capacitance being 50-800 pF (picofarads) and the capacitance being a capacitor which is arranged in a housing of the particle sensor , separately from the sensor element .
An oven comprising: a main body ; a cooking chamber provided inside the main body , wherein a front side of the cooking chamber opens; a door installed on the main body to open or close the cooking chamber ; a camera positioned above the cooking chamber , and configured to photograph an inside of the cooking chamber ; characterized in that the oven comprises a barrier module configured to allow or block an inflow of outside air to the camera according to opening or closing of the door or according to a temperature of a passage formed by an air guide in the barrier module rising to or above or falling to or below a predetermined temperature, the passage communicating the camera with an outside of the main body such that outside air flows to the camera . a main body ; a cooking chamber provided inside the main body , wherein a front side of the cooking chamber opens; a door installed on the main body to open or close the cooking chamber ; a camera positioned above the cooking chamber , and configured to photograph an inside of the cooking chamber ; characterized in that the oven comprises a barrier module configured to allow or block an inflow of outside air to the camera according to opening or closing of the door or according to a temperature of a passage formed by an air guide in the barrier module rising to or above or falling to or below a predetermined temperature, the passage communicating the camera with an outside of the main body such that outside air flows to the camera .
A pulp suitable for the production of lyocell moldings, having a proportion of cellulose from 85 to 50% by weight and a proportion of hemicelluloses of at least 7% by weight, characterized in that the ratio of the C5/xylan fraction to the C6/mannan fraction present in the hemicellulose (C5/C6 ratio) is in the range from 125:1 to 1:3.
A method for feeding items of laundry to a mangle or to some other laundry-treatment arrangement, wherein an item of laundry is gripped, said item of laundry is spread out at two adjacent corners of a front edge and deposited with said front edge on a feed conveyor which transports the item of laundry to the mangle or to some other laundry-treatment arrangement, wherein a surface profile of the item of laundry or of a plurality of items of laundry is recorded, from which an intended or easily gripped location on the item of laundry is determined and the item of laundry is then gripped at this location, characterized in that the surface profile of the item of laundry or of the items of laundry is determined by imaging processes and wherein an arbitrary location on the item of laundry is gripped where, in accordance with the determined surface profile, the item of laundry exhibits the greatest curvature gradient.
A silicon-oxide-coated zinc oxide formed by coating the surfaces of zinc oxide particles with a silicon oxide coating, wherein the average particle diameter of the zinc oxide particles is in a range of 1 nm or more and 50 nm or less, and wherein Q 3 +Q 4 ≥0.6 and Q 4 /(Q 3 +Q 4 )≥0.5; wherein Q 3 is the abundance ratio of silicon, in the silicon oxide coating, which has a chemical structure in which the number of bridging oxygen atoms out of oxygen atoms in a SiO 4 tetrahedral unit which is a constituent unit of the silicon oxide is 3, and Q 4 is the abundance ratio of silicon, in the silicon oxide coating, which has a chemical structure in which the number of bridging oxygen atoms out of oxygen atoms in a SiO 4 tetrahedral unit which is a constituent unit of the silicon oxide is 4, wherein the bridging oxygen atom is an oxygen atom that binds two Si atoms, and the abundance ratios of silicon are determined by obtaining the NMR spectrum of the silicon-oxide-coated zinc oxide using solid-state 29 Si MAS-nuclear magnetic resonance (NMR) spectroscopy and computing the area ratios of signals attributed to individual chemical structures determined depending on the number of bridging oxygen atoms out of oxygen atoms in a SiO 4 tetrahedral unit which is a constituent unit of silicon oxide, from the peak area ratios of the NMR spectrum.
A cooling module for a plurality of electronic devices , comprising: a container , housing the plurality of electronic devices and a liquid coolant, such that a first electronic device is at least partially immersed in the liquid coolant; and a heat sink mounted on a second electronic device , the heat sink comprising: a base , mounted on top of a heat-transmitting surface of the second electronic device and transferring heat from the heat-transmitting surface; and a retaining wall extending from the base, the base and retaining wall defining a volume for holding some of the liquid coolant, such that heat transferred through the base is transferred to the liquid coolant held in the volume; and wherein the base and retaining wall of the heat sink are arranged such that a level of liquid coolant held within the volume of the heat sink is higher than a level of liquid coolant that is at least partially immersing the first electronic device in the container. a container , housing the plurality of electronic devices and a liquid coolant, such that a first electronic device is at least partially immersed in the liquid coolant; and a heat sink mounted on a second electronic device , the heat sink comprising: a base , mounted on top of a heat-transmitting surface of the second electronic device and transferring heat from the heat-transmitting surface; and a retaining wall extending from the base, the base and retaining wall defining a volume for holding some of the liquid coolant, such that heat transferred through the base is transferred to the liquid coolant held in the volume; and a base , mounted on top of a heat-transmitting surface of the second electronic device and transferring heat from the heat-transmitting surface; and a retaining wall extending from the base, the base and retaining wall defining a volume for holding some of the liquid coolant, such that heat transferred through the base is transferred to the liquid coolant held in the volume; and wherein the base and retaining wall of the heat sink are arranged such that a level of liquid coolant held within the volume of the heat sink is higher than a level of liquid coolant that is at least partially immersing the first electronic device in the container.
A method for opening/closing a door arranged in an opening of a fuselage of an aircraft , this opening being defined by a frame structure , the door comprising an inside face as well as front (AV) and rear (AR) parts defined with respect to a longitudinal axis (X'X) of the aircraft oriented conventionally, the door and the frame of the aircraft comprising front and rear positioning stops for positioning the door in the frame , the kinematics of the movements of the door relative to the fuselage taking place from the frame in a main horizontal plane (P) of the aircraft by at least one manipulation arm coupled to an articulation forearm on the door and being piloted, reversibly, by at least one guide between a closed position in abutment in the frame and an open position outside the frame on the inside face of the door against the fuselage , this method it comprises the following steps, for opening the door : - a slide control element for opening the door guides the door to positions towards the front (AV) and towards the rear (AR) of the aircraft ; - this control element generates a first movement of the door towards the rear (AR) - and towards the interior of the aircraft by a combination of slide guides of the front (AV) and rear (AR) parts of the door respectively in rotation and in translation, which releases the stops of the door from the stops of the fuselage ; - then, a movement of the door by rotation about the rear guide and inclined translation towards the front (AV) and the outside (EXT) of the aircraft along the front guide , the front part (AV) of the door and its front stops then disengaging from the frame towards the outside (EXT) of the aircraft ; and - the arm is actuated in rotation about an articulated link on a front side (AV) of the frame in order to move the door towards the front (AV) of the aircraft , its movement ending outside the frame with the inside face of the door against the fuselage . - a slide control element for opening the door guides the door to positions towards the front (AV) and towards the rear (AR) of the aircraft ; - this control element generates a first movement of the door towards the rear (AR) - and towards the interior of the aircraft by a combination of slide guides of the front (AV) and rear (AR) parts of the door respectively in rotation and in translation, which releases the stops of the door from the stops of the fuselage ; - then, a movement of the door by rotation about the rear guide and inclined translation towards the front (AV) and the outside (EXT) of the aircraft along the front guide , the front part (AV) of the door and its front stops then disengaging from the frame towards the outside (EXT) of the aircraft ; and - the arm is actuated in rotation about an articulated link on a front side (AV) of the frame in order to move the door towards the front (AV) of the aircraft , its movement ending outside the frame with the inside face of the door against the fuselage .
An LED signalization light adapted to be externally connected to a vehicle and used especially at tractors, heavy equipment, forklift and commercial vehicles at the automotive sector; wherein it comprises a frame , an LED card placed on clips which are flexible in the frame , a decorative cover to give an aesthetic appearance, a reflector placed on the LED card , a lens connected to the reflector , a bolt that ensures the mounting of the signalization light and subsequently connected to the bolt a nut and a washer , characterized in that the LED signalization light further comprises a TPV thermoplastic sealing gasket providing sealing between the lens and the frame , wherein the TPV thermoplastic sealing gasket is U-shaped, the frame accommodates a socket installation zone, and the lens is welded on the frame by means of an ultrasonic welding (UW) method.
Method for detecting an available parking space from a motor vehicle travelling on a road , said motor vehicle being equipped with an apparatus for capturing an image of a road scene and its immediate surroundings, said method being characterized in that it comprises a learning phase during which features, including at least the dimensions, in relation to known objects likely to be present in the scene are stored locally in a database (BD) in said vehicle, and said method comprising: - a step of acquiring, from said image-capturing apparatus, one or more images of the scene of the road and its immediate surroundings, - an image-processing step, performed by a processing unit on board said vehicle, in which: at least one known object whose features have been learned beforehand and stored locally in the database (BD) is detected (1.2) in the image of the acquired scene, the presence of at least one parking area comprising at least one available parking space is detected (1.3) in the image of the acquired scene and the respective lengths of the available parking spaces are estimated (1.4) from a correlation between the features extracted from the database in relation to the known objects detected in the image. - a step of acquiring, from said image-capturing apparatus, one or more images of the scene of the road and its immediate surroundings, - an image-processing step, performed by a processing unit on board said vehicle, in which: at least one known object whose features have been learned beforehand and stored locally in the database (BD) is detected (1.2) in the image of the acquired scene, the presence of at least one parking area comprising at least one available parking space is detected (1.3) in the image of the acquired scene and the respective lengths of the available parking spaces are estimated (1.4) from a correlation between the features extracted from the database in relation to the known objects detected in the image. at least one known object whose features have been learned beforehand and stored locally in the database (BD) is detected (1.2) in the image of the acquired scene, the presence of at least one parking area comprising at least one available parking space is detected (1.3) in the image of the acquired scene and the respective lengths of the available parking spaces are estimated (1.4) from a correlation between the features extracted from the database in relation to the known objects detected in the image.
An air conditioning device comprising a casing with at least one vertical gap , allowing an air curtain to be produced with the air conditioning device by blowing air from the gap and the air conditioning device comprising an actuator for controlling the direction of air flow, the actuator being arranged to control the direction of the air flow coming from the gap differently at the lower part of the air conditioning device than at the upper part, characterized in that the air conditioning device comprises, in connection with the vertical gap thereof, a vertical bar arranged inside the casing of the air conditioning device and in the vicinity of the gap , whereby the actuator is arranged to deflect the position of the vertical bar with respect to the vertical gap to control the direction of the air flow.
A wireless communication apparatus comprising: circuitry configured to receive a request packet (S11, S12) from a first wireless communication device serving as a data transmission source, the request packet including first duration information and second duration information, wherein the first duration information is included in a legacy signaling, L-SIG, portion and the second duration information is included in a duration field of a media access control, MAC, header, wherein the first and second duration information each correspond to end times of response packet transmissions, set a network allocation vector, NAV, based on the second duration information, detect a response packet (S20, S27), from a second wireless communication device serving as a data transmission destination, responding to the request packet, and reset the NAV (S30), when the wireless communication apparatus does not detect the response packet during a time after an expiration of a first duration indicated by the first duration information (S20, S27) but before an expiration of a second duration indicated by the second duration information. receive a request packet (S11, S12) from a first wireless communication device serving as a data transmission source, the request packet including first duration information and second duration information, wherein the first duration information is included in a legacy signaling, L-SIG, portion and the second duration information is included in a duration field of a media access control, MAC, header, wherein the first and second duration information each correspond to end times of response packet transmissions, set a network allocation vector, NAV, based on the second duration information, detect a response packet (S20, S27), from a second wireless communication device serving as a data transmission destination, responding to the request packet, and reset the NAV (S30), when the wireless communication apparatus does not detect the response packet during a time after an expiration of a first duration indicated by the first duration information (S20, S27) but before an expiration of a second duration indicated by the second duration information.