mhurhangee/patent-ind-claim-en huggingface dataset:
A method for handling Voice over Internet Protocol, VoIP, traffic flows on a computer network, the method comprising: collecting traffic flow data with respect to an IP session; collecting parameters associated with the IP session, wherein the parameters comprise traffic flow bitmasks; determining whether the IP session is a VolP session; correlating IP sessions having similar parameters to the collected parameters of the VoIP session based at least in part on the traffic flow bitmasks; and creating at least one Internet Protocol Detail Record, IPDR, or Call Detail Record, CDR, based on the correlated IP session parameters. collecting traffic flow data with respect to an IP session; collecting parameters associated with the IP session, wherein the parameters comprise traffic flow bitmasks; determining whether the IP session is a VolP session; correlating IP sessions having similar parameters to the collected parameters of the VoIP session based at least in part on the traffic flow bitmasks; and creating at least one Internet Protocol Detail Record, IPDR, or Call Detail Record, CDR, based on the correlated IP session parameters.
A detergent particle having a core and a coating enveloping the core, said detergent particle having perpendicular dimensions x, y and z, wherein x is from 0.2 to 2 mm, y is from 2 to 8mm, and z is from 2 to 8 mm and the particle comprises: i. from 20 to 39 wt% surfactant; ii. from 5 to 40 wt% coating material; and, iii. perfume; wherein the core comprises 95 parts to 100 parts of the total surfactant content and the coating comprises 95 parts to 100 parts of the coating material and the perfume and wherein the detergent particle has an intra-particle porosity in the range from 0 to 0.2 volume fraction. i. from 20 to 39 wt% surfactant; ii. from 5 to 40 wt% coating material; and, iii. perfume;
A transparent substrate comprising a stack of thin layers successively comprising, starting from the substrate, an alternation of three metallic functional layers , in particular of functional layers based on silver or on silver-comprising metal alloy, and of four antireflective coatings , each antireflective coating comprising at least one dielectric layer, so that each metallic functional layer is positioned between two antireflective coatings , characterized in that : - the thicknesses of the metallic functional layers , starting from the substrate, increase as a function of the distance from the substrate, - the second metallic functional layer is directly in contact with at least one blocking layer, referred to as second blocking layer, chosen from a blocking underlayer and a blocking overlayer, respectively referred to as second blocking underlayer and second blocking overlayer, - the second blocking underlayer and/or the second blocking overlayer exhibits a thickness of greater than 1 nm, - the stack optionally comprises at least one blocking layer chosen from a first blocking layer located in contact with the first metallic functional layer and a third blocking layer located in contact with the third metallic functional layer , - the first, second and/or third blocking layers respectively exhibit thicknesses CB1, CB2, CB3 satisfying the following equation: CB1 + CB3 < 1.1 CB2, with at least the thickness CB2 nonzero, - the blocking layers are chosen from metallic layers based on a metal or on a metal alloy, metal nitride layers and metal oxynitride layers, preferably of one or more elements chosen from titanium, nickel, chromium and niobium. - the thicknesses of the metallic functional layers , starting from the substrate, increase as a function of the distance from the substrate, - the second metallic functional layer is directly in contact with at least one blocking layer, referred to as second blocking layer, chosen from a blocking underlayer and a blocking overlayer, respectively referred to as second blocking underlayer and second blocking overlayer, - the second blocking underlayer and/or the second blocking overlayer exhibits a thickness of greater than 1 nm, - the stack optionally comprises at least one blocking layer chosen from a first blocking layer located in contact with the first metallic functional layer and a third blocking layer located in contact with the third metallic functional layer , - the first, second and/or third blocking layers respectively exhibit thicknesses CB1, CB2, CB3 satisfying the following equation: CB1 + CB3 < 1.1 CB2, with at least the thickness CB2 nonzero, - the blocking layers are chosen from metallic layers based on a metal or on a metal alloy, metal nitride layers and metal oxynitride layers, preferably of one or more elements chosen from titanium, nickel, chromium and niobium.
A method for service transmission, the method comprising: after User Equipment, UE, accesses a cell, receiving (S801), by the UE, information sent by a network side through N bits added in a control channel, and N is a positive integer greater than 0, wherein the N bits are used for carrying the information comprising: a UE-specific Guard Period, GP, length, and one of a duration of an uplink service or a duration of a downlink service; determining (S802), by the UE, the other of the duration of the uplink service or the duration of the downlink service according to the information; and sending (S803), by the UE, the uplink service according to the duration of the uplink service, or receiving (S803) the downlink service according to the duration of the downlink service. after User Equipment, UE, accesses a cell, receiving (S801), by the UE, information sent by a network side through N bits added in a control channel, and N is a positive integer greater than 0, wherein the N bits are used for carrying the information comprising: a UE-specific Guard Period, GP, length, and one of a duration of an uplink service or a duration of a downlink service; determining (S802), by the UE, the other of the duration of the uplink service or the duration of the downlink service according to the information; and sending (S803), by the UE, the uplink service according to the duration of the uplink service, or receiving (S803) the downlink service according to the duration of the downlink service.
A method for wireless communication at a user equipment, UE, comprising: identifying a configuration for communication using a secondary cell in a shared frequency spectrum band, wherein transmissions via the secondary cell are subject to a listen-before-talk, LBT, procedure for a shared frequency channel; receiving a transmission from the secondary cell comprising a plurality of subframes; receiving, in a reference subframe, a cross-subframe indicator; and determining a reference signal configuration for at least one subframe of the transmission based at least in part on the cross-subframe indicator, wherein the cross-subframe indicator indicates a value of a subframe offset between the reference subframe and the at least one subframe, characterized by identifying that the at least one subframe has asynchronous symbol timing relative to a licensed cell operating in a dedicated frequency spectrum band; and determining one or more symbol positions within the at least one subframe for at least one reference signal based on a detected symbol preamble associated with the transmission. identifying a configuration for communication using a secondary cell in a shared frequency spectrum band, wherein transmissions via the secondary cell are subject to a listen-before-talk, LBT, procedure for a shared frequency channel; receiving a transmission from the secondary cell comprising a plurality of subframes; receiving, in a reference subframe, a cross-subframe indicator; and determining a reference signal configuration for at least one subframe of the transmission based at least in part on the cross-subframe indicator, wherein the cross-subframe indicator indicates a value of a subframe offset between the reference subframe and the at least one subframe, characterized by identifying that the at least one subframe has asynchronous symbol timing relative to a licensed cell operating in a dedicated frequency spectrum band; and determining one or more symbol positions within the at least one subframe for at least one reference signal based on a detected symbol preamble associated with the transmission.
Anode material for an electrochemical element, in particular a lithium ion cell, comprising nanofibres composed of a metal, a metal alloy, a carbon-metal oxide composite, a carbon-metal composite, a carbon-metal alloy composite, a conductive polymer, a polymer-metal composite, a polymer-metal alloy composite or a composite thereof, characterized in that the space between the nanofibres is filled with an aerogel .
Method for contactless operation of a control element , subsequently called "button", which is configured in hardware, of a user interface in a 3D gesture mode that can be used to operate the user interface by means of gestures carried out freely in space, subsequently called 3D gestures, comprising: - detecting a hand of a user, - assigning the hand to an area of the user interface that is associated with the button , responding thereto by - outputting advice to the user indicating that his hand has reached the detection area associated with the button , wherein the method is characterized in that it further comprises: - recognizing a predefined gesture of a user in an area associated with the button , and - starting a function associated with the button . - detecting a hand of a user, - assigning the hand to an area of the user interface that is associated with the button , responding thereto by - outputting advice to the user indicating that his hand has reached the detection area associated with the button , wherein the method is characterized in that it further comprises: - recognizing a predefined gesture of a user in an area associated with the button , and - starting a function associated with the button .
Method for operating an internal combustion engine , having an injection system with a high-pressure accumulator , wherein a high pressure in the high-pressure accumulator is regulated via a low-pressure-side suction throttle as a first pressure actuator in a first high-pressure control loop, wherein in a normal mode a high-pressure disturbance variable is generated via at least one first high-pressure-side pressure control valve as a further pressure actuator, via which fuel is discharged from the high-pressure accumulator into a fuel reservoir , wherein the at least one pressure control valve is actuated in the normal mode on the basis of a setpoint volumetric flow (Vs) for the fuel to be controlled, characterized in that a development over time of the setpoint volumetric flow (Vs) is detected, and in that the setpoint volumetric flow (Vs) is filtered, wherein a time constant (T V ) for filtering the setpoint volumetric flow (Vs) is selected as a function of the detected development over time.
An additive manufacturing device for manufacturing a mould , wherein the additive manufacturing device comprises - a container for providing at least one mould material , - a build platform having a build surface for holding and/or supporting at least one mould being or having been manufactured by an additive manufacturing process, - a source for providing energy to selectively activate, and if required subsequently solidify, the at least one mould material in or from the container to enable additive manufacturing of the mould, and - an electronic controller adapted to selectively control the source to manufacture the mould as a one-piece sacrificial mould according to a predetermined design producing a one-piece sacrificial additively manufactured mould comprising ○ one or more outer shells circumscribing and enclosing at least a first inner volume , ○ at least one inlet being connected to the first inner volume and being adapted to receive at least one building material , and ○ at least one outlet being connected to the first inner volume and being adapted to release air from the first inner volume when the first inner volume receives the at least one building material via the at least one inlet , characterised in that , the build platform comprises one or more securing elements enabling a transportation mechanism to releasably and mechanically connect with and move the build platform into and/or out from the additive manufacturing device . - a container for providing at least one mould material , - a build platform having a build surface for holding and/or supporting at least one mould being or having been manufactured by an additive manufacturing process, - a source for providing energy to selectively activate, and if required subsequently solidify, the at least one mould material in or from the container to enable additive manufacturing of the mould, and - an electronic controller adapted to selectively control the source to manufacture the mould as a one-piece sacrificial mould according to a predetermined design producing a one-piece sacrificial additively manufactured mould comprising ○ one or more outer shells circumscribing and enclosing at least a first inner volume , ○ at least one inlet being connected to the first inner volume and being adapted to receive at least one building material , and ○ at least one outlet being connected to the first inner volume and being adapted to release air from the first inner volume when the first inner volume receives the at least one building material via the at least one inlet , ○ one or more outer shells circumscribing and enclosing at least a first inner volume , ○ at least one inlet being connected to the first inner volume and being adapted to receive at least one building material , and ○ at least one outlet being connected to the first inner volume and being adapted to release air from the first inner volume when the first inner volume receives the at least one building material via the at least one inlet ,
A braking device for the braking of a wheel, especially a drum brake, comprising two opposite brake shoes , which are pivotably mounted on a backing plate , wherein the brake shoes are pivotably mounted about a common pivot axis , wherein at least one of the brake shoes comprises a ridge arrangement with two brake shoe ridges characterized in that one of the brake shoe ridges has an open bearing eye and the other of the brake shoe ridges has a closed bearing eye or one which is open by less than 180°.
A stent delivery device comprising: a multi-lumen catheter containing a catheter tube for guidewire passage and a core member passage ; a pusher member comprising a core member residing inside the core member passage connected to a handle on a proximal end and an anchor member on a distal end, and a distal guidewire tube on the distal end; the anchor member releasably connected to the stent for inserting or retracting the stent ; characterized in that the distal guidewire tube extends into the catheter tube in a telescoping arrangement; and, as the pusher member slides relative to the catheter , the distal guidewire tube and the catheter tube maintain a continuous passage for a guidewire , including as the catheter is retracted relative to the pusher . a multi-lumen catheter containing a catheter tube for guidewire passage and a core member passage ; a pusher member comprising a core member residing inside the core member passage connected to a handle on a proximal end and an anchor member on a distal end, and a distal guidewire tube on the distal end; the anchor member releasably connected to the stent for inserting or retracting the stent ; characterized in that the distal guidewire tube extends into the catheter tube in a telescoping arrangement; and, as the pusher member slides relative to the catheter , the distal guidewire tube and the catheter tube maintain a continuous passage for a guidewire , including as the catheter is retracted relative to the pusher .
A method for receiving an Enhanced Physical Downlink Control Channel, EPDCCH, from a base station by a user equipment, UE, in a wireless communication system, the method comprising: monitoring at least one EPDCCH candidate comprising one or more enhanced control channel elements, ECCEs, in resource blocks for the EPDCCH, wherein a number of ECCEs forming each of the at least one EPDCCH candidate corresponds to an aggregation level; and obtaining downlink control information, DCI, by blind decoding the at least one EPDCCH candidate, wherein the number of ECCEs per resource block is 4, wherein the aggregation level is one of 1, 2, 4 and 8, characterized wherein, when the number of the resource blocks for the EPDCCH is 2, the total number of the at least one EPDCCH candidate corresponding to the aggregation level is set to a value obtained by dividing a total number of ECCEs in all of the resource blocks by the aggregation level, and wherein, when the number of resource blocks for the EPDCCH is not 2, the total number of the at least one EPDCCH candidate corresponding to the aggregation level is set to a predefined value. monitoring at least one EPDCCH candidate comprising one or more enhanced control channel elements, ECCEs, in resource blocks for the EPDCCH, wherein a number of ECCEs forming each of the at least one EPDCCH candidate corresponds to an aggregation level; and obtaining downlink control information, DCI, by blind decoding the at least one EPDCCH candidate, wherein the number of ECCEs per resource block is 4, wherein the aggregation level is one of 1, 2, 4 and 8, characterized wherein, when the number of the resource blocks for the EPDCCH is 2, the total number of the at least one EPDCCH candidate corresponding to the aggregation level is set to a value obtained by dividing a total number of ECCEs in all of the resource blocks by the aggregation level, and wherein, when the number of resource blocks for the EPDCCH is not 2, the total number of the at least one EPDCCH candidate corresponding to the aggregation level is set to a predefined value.
System for detecting, monitoring and / or controlling media conditions and / or media consumptions on a piping system , comprising: - a control unit , - at least one connection interface , which is designed to connect components for detecting, monitoring and / or controlling media conditions and / or media consumptions to the control unit , and - at least one communication interface , via which the control unit communicates data based on the detected, monitored or controlled media conditions and / or media consumptions, wherein the components of the system for monitoring the media consumption comprise at least one pressure sensor for detecting the media pressure in the piping system , wherein the components of the system for controlling the media consumption comprise at least one valve which can be actuated via the at least one connection interface and with which the media flow in the piping system can be controlled, characterized in that the controllable valve has an actuator with end position switches, wherein the end position switches are set up to signal a closed or open controllable valve , wherein the components of the system for detecting the media consumption comprise a detection interface which is designed to detect a media consumption counted by a media consumption meter , wherein the control unit is set up to send a suspected manipulation message and / or defect message to a supplier if the media consumption meter detects a flow rate when the valve is closed or if there is no flow when the valve is open, despite a pressure drop at the pressure sensor . - a control unit , - at least one connection interface , which is designed to connect components for detecting, monitoring and / or controlling media conditions and / or media consumptions to the control unit , and - at least one communication interface , via which the control unit communicates data based on the detected, monitored or controlled media conditions and / or media consumptions, wherein the components of the system for monitoring the media consumption comprise at least one pressure sensor for detecting the media pressure in the piping system , wherein the components of the system for controlling the media consumption comprise at least one valve which can be actuated via the at least one connection interface and with which the media flow in the piping system can be controlled,
A composition comprising an iron-binding glycoprotein and a casein hydrolysate, the casein hydrolysate being α-casozepine; wherein the weight ratio of iron-binding glycoprotein to α-casozepine is from 0.5 to 3.
A light emitting device comprising: a flip-chip light emitting diode (LED) semiconductor die comprising an upper surface , a lower surface opposite to the upper surface , an edge surface , and a set of electrodes , wherein the edge surface extends between the upper surface of the LED semiconductor die and the lower surface of the LED semiconductor die , and the set of electrodes is disposed on the lower surface of the LED semiconductor die ; and a packaging structure covering the upper surface of the LED semiconductor die and the edge surface of the LED semiconductor die , wherein the packaging structure comprises an upper surface which is spaced from the upper surface of the LED semiconductor die and has a concave curvature, a lower surface which is opposite to the upper surface of the packaging structure and is gradually displaced upwardly from the lower surface of the LED semiconductor die , and an edge surface extending between the upper surface of the packaging structure and the lower surface of the packaging structure ; wherein the edge surface of the packaging structure is deformed or displaced away from a perpendicular orientation with respect to the lower surface of the LED semiconductor die , such that the edge surface forms an angle less than 90° with respect to the lower surface . a flip-chip light emitting diode (LED) semiconductor die comprising an upper surface , a lower surface opposite to the upper surface , an edge surface , and a set of electrodes , wherein the edge surface extends between the upper surface of the LED semiconductor die and the lower surface of the LED semiconductor die , and the set of electrodes is disposed on the lower surface of the LED semiconductor die ; and a packaging structure covering the upper surface of the LED semiconductor die and the edge surface of the LED semiconductor die , wherein the packaging structure comprises an upper surface which is spaced from the upper surface of the LED semiconductor die and has a concave curvature, a lower surface which is opposite to the upper surface of the packaging structure and is gradually displaced upwardly from the lower surface of the LED semiconductor die , and an edge surface extending between the upper surface of the packaging structure and the lower surface of the packaging structure ; wherein the edge surface of the packaging structure is deformed or displaced away from a perpendicular orientation with respect to the lower surface of the LED semiconductor die , such that the edge surface forms an angle less than 90° with respect to the lower surface .