mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine having an air flow measurement system, the air flow measurement system comprising: a plurality of acoustic sensors , the acoustic sensors located upstream of a compressor of the turbomachine; the acoustic sensors comprising at least one acoustic transmitter configured to transmit an acoustic waveform through an intake airflow to an acoustic receiver ; and where the acoustic sensors are located in a single plane and mounted at angular spacing about a central axis of an intake ; the turbomachine having an internal component that axially extends within the airflow, characterized in that the internal component intercepts the single plane defined by the plurality of acoustic sensors , the internal component has a further acoustic sensor configured to communicate with the plurality of acoustic sensors , the internal component rotates about an axial axis and the further sensor is configured to rotate with the internal component. a plurality of acoustic sensors , the acoustic sensors located upstream of a compressor of the turbomachine; the acoustic sensors comprising at least one acoustic transmitter configured to transmit an acoustic waveform through an intake airflow to an acoustic receiver ; and where the acoustic sensors are located in a single plane and mounted at angular spacing about a central axis of an intake ; the turbomachine having an internal component that axially extends within the airflow, characterized in that the internal component intercepts the single plane defined by the plurality of acoustic sensors , the internal component has a further acoustic sensor configured to communicate with the plurality of acoustic sensors , the internal component rotates about an axial axis and the further sensor is configured to rotate with the internal component.
A method for enhancing a sounding reference signal (SRS) in a non-root wireless communication device (102a-c, 804), comprising: determining that all SRS transmissions for the wireless communication device (102a-c, 804) are to occur in an uplink pilot time slot (UpPTS) portion of a transition subframe, wherein the transition subframe is used to transition between a downlink subframe and a uplink subframe; determining whether available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for a normal uplink subframe; transmitting a current SRS using the available uplink bandwidth for the UpPTS portion when the available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for the normal uplink subframe; and transmitting the current SRS using the available uplink bandwidth for the normal uplink subframe when the available uplink bandwidth for the UpPTS portion is not greater than available uplink bandwidth for the normal uplink subframe; wherein a non-root wireless communication device (102a-c, 804) has a lower bandwidth than a root wireless communication device (102a-c, 804), and wherein the available uplink bandwidth refers to the amount of available bandwidth that may be used for SRS transmissions. determining that all SRS transmissions for the wireless communication device (102a-c, 804) are to occur in an uplink pilot time slot (UpPTS) portion of a transition subframe, wherein the transition subframe is used to transition between a downlink subframe and a uplink subframe; determining whether available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for a normal uplink subframe; transmitting a current SRS using the available uplink bandwidth for the UpPTS portion when the available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for the normal uplink subframe; and transmitting the current SRS using the available uplink bandwidth for the normal uplink subframe when the available uplink bandwidth for the UpPTS portion is not greater than available uplink bandwidth for the normal uplink subframe; wherein a non-root wireless communication device (102a-c, 804) has a lower bandwidth than a root wireless communication device (102a-c, 804), and wherein the available uplink bandwidth refers to the amount of available bandwidth that may be used for SRS transmissions.
An elongate profiled object useful for scaffolds having a cross section, the object being a plank and comprising: a peripheral wall , forming a hollow profile extending in a longitudinal direction, wherein the peripheral wall has a rectangular shaped cross section, the peripheral wall comprising two longitudinal profile sidewalls , an upper wall and a bottom wall , wherein the elongate profiled object is made of a fiber filled thermoplastic material, and wherein at least part of the peripheral wall is provided with a reinforcement element , and the reinforcement element is provided in at least one of the upper wall and the bottom wall , wherein the reinforcement element is formed by at least one fiber monofilament extending in the longitudinal direction of the profiled object, and wherein: i) the reinforcement element is an outer layer exposed to the exterior of the object ; or ii) the upper and bottom walls form a laminate with an outer layer of thermoplastic covering a layer of the reinforcement element in the object, wherein the layer of the reinforcement element is an embedded layer or a plurality of embedded continuous fiber rods . a peripheral wall , forming a hollow profile extending in a longitudinal direction, wherein the peripheral wall has a rectangular shaped cross section, the peripheral wall comprising two longitudinal profile sidewalls , an upper wall and a bottom wall , wherein the elongate profiled object is made of a fiber filled thermoplastic material, and wherein at least part of the peripheral wall is provided with a reinforcement element , and the reinforcement element is provided in at least one of the upper wall and the bottom wall , wherein the reinforcement element is formed by at least one fiber monofilament extending in the longitudinal direction of the profiled object, and wherein: i) the reinforcement element is an outer layer exposed to the exterior of the object ; or ii) the upper and bottom walls form a laminate with an outer layer of thermoplastic covering a layer of the reinforcement element in the object, wherein the layer of the reinforcement element is an embedded layer or a plurality of embedded continuous fiber rods . i) the reinforcement element is an outer layer exposed to the exterior of the object ; or ii) the upper and bottom walls form a laminate with an outer layer of thermoplastic covering a layer of the reinforcement element in the object, wherein the layer of the reinforcement element is an embedded layer or a plurality of embedded continuous fiber rods .
A method, performed by an access apparatus, for connecting a user device to a network, wherein the access apparatus has a first Internet Protocol, IP, address and a second IP address, the first IP address corresponds to an interface of a fixed broadband network link , and the second IP address corresponds to an interface of a radio link ; and the method comprises: receiving , by the access apparatus, a first packet with a corresponding service type from a user device; obtaining , by the access apparatus, a second packet based on the first packet and a translated IP address, wherein the second packet comprises the translated IP address, the translated IP address being either the first IP address or the second IP address, and the translated IP address is selected according to the service type extracted from the first packet; and sending , by the access apparatus, the second packet to an interface of the link corresponding to the translated IP address, wherein the access apparatus stores a correspondence between translated IP address and link interface for each of first and second IP address. receiving , by the access apparatus, a first packet with a corresponding service type from a user device; obtaining , by the access apparatus, a second packet based on the first packet and a translated IP address, wherein the second packet comprises the translated IP address, the translated IP address being either the first IP address or the second IP address, and the translated IP address is selected according to the service type extracted from the first packet; and sending , by the access apparatus, the second packet to an interface of the link corresponding to the translated IP address, wherein the access apparatus stores a correspondence between translated IP address and link interface for each of first and second IP address.
A vehicle comprising: a display configured to display a user interface, UI, including a plurality of objects a touch input device including a concave region, the touch input device being configured to detect a touch gesture; and a controller configured to control the display to display a selection of an object corresponding to a first position among the plurality of objects when a gesture moving from the first position on a periphery of the concave region to the center thereof is detected, wherein the display is configured to display a text input user interface arranged so that a plurality of text objects surround a predetermined reference point (P), wherein the concave region comprises a first region disposed on the center of the concave region and a second region disposed on an edge portion of the first region , and the second region includes a gradient greater than a gradient in a tangential direction of the first region at a boundary between the first region and the second region . a display configured to display a user interface, UI, including a plurality of objects a touch input device including a concave region, the touch input device being configured to detect a touch gesture; and a controller configured to control the display to display a selection of an object corresponding to a first position among the plurality of objects when a gesture moving from the first position on a periphery of the concave region to the center thereof is detected, wherein the display is configured to display a text input user interface arranged so that a plurality of text objects surround a predetermined reference point (P), wherein the concave region comprises a first region disposed on the center of the concave region and a second region disposed on an edge portion of the first region , and the second region includes a gradient greater than a gradient in a tangential direction of the first region at a boundary between the first region and the second region .
An apparatus comprising: a semiconductor switch (S1) configured to interrupt a current between a circuit interruption device and a load; an inductor (L1) coupled in series with the semiconductor switch (S1); a capacitor (C) coupled to a node between the inductor and the load; a first current sensor (CS1) coupled between the inductor (L1) and the load; a second current sensor (CS2) coupled between the circuit interruption device and the inductor (L1); and a control circuit coupled to the first and the second current sensors (CS1, CS2) and configured to control the semiconductor switch (S1) responsive to the first and second current sensed by the first and the second current sensors (CS1, CS2); characterised in that the control circuit is further configured to: determine a rate of change of the sensed current and to responsively control the semiconductor switch (S1). a semiconductor switch (S1) configured to interrupt a current between a circuit interruption device and a load; an inductor (L1) coupled in series with the semiconductor switch (S1); a capacitor (C) coupled to a node between the inductor and the load; a first current sensor (CS1) coupled between the inductor (L1) and the load; a second current sensor (CS2) coupled between the circuit interruption device and the inductor (L1); and a control circuit coupled to the first and the second current sensors (CS1, CS2) and configured to control the semiconductor switch (S1) responsive to the first and second current sensed by the first and the second current sensors (CS1, CS2); characterised in that the control circuit is further configured to: determine a rate of change of the sensed current and to responsively control the semiconductor switch (S1).
Cutting head, in particular for a lopper, with a hollow, flat housing which is formed by two housing halves , has a handle connector for attachment to a manipulation handle , and is designed to accommodate a blade which is pivotable about a shaft that is fixed to the housing and a counter blade , the ends of which that support the cutting elements protrude from a narrow side of the housing, and with a driving means for the blade disposed in the housing, which driving means include a first connecting element which acts on a lever arm of the blade and a second connecting element which extends through the handle connector to actuating means on the handle, and a gearwheel consisting of two circular first and second parts with different diameters which are attached coaxially to one another, which is supported so as to be rotatable inside the housing about an axis of rotation , wherein the first part of the gearwheel has a smaller diameter than the second part and is at least partly surrounded by the first connecting element , the first end of which is attached to the first part and the second end of which is connected to the lever arm of the blade , and wherein the second part of the gearwheel is at least partly surrounded by the second connecting element , one end of which is attached to the second part and the other end of which extends into the handle connector , characterized in that the first part of the gearwheel is disposed in the plane of the blade , the rear end of the counter blade has a profile which is adapted to the shape and size of the second part of the gearwheel , the second part of the gearwheel is disposed at least substantially in the plane of the counter blade and the other end of the second connecting element surrounding the second part passes over an idler pulley into the handle connector .
A method for mining a new block in a blockchain of a distributed blockchain consensus network, 'DBCN' based on a proof-of-stake protocol, comprising the steps of: - Generating a new transaction including reference information of the most recent block of said blockchain by a peer of said blockchain, - Validating, by a mining computing entity, 'MCE' with a trusted execution environment entity, 'TEEE', said new transaction by checking whether said most recent block refers to an active blockchain branch of said MCE, - Upon successful validation of said transaction, initiating a request for new block generation, - Comparing block height information of the block saved in said TEEE from the last block generation request with the block height information of the block of the actual block generation request, - Providing trusted time information by said TEEE of said MCE, - Computing a block signature by said TEEE of said MCE using secret signing information of said TEEE of said MCE, - Computing a new block including said block signature, the provided trusted time information and transaction information of said transaction, - Computing differences between the trusted time information of said new block and trusted time information of said MCE when said MCE has been registered with said blockchain by a peer of said blockchain, - Comparing said computed differences with one or more predefined security parameters and providing a result, and - Adding the new block, by said peer, to the blockchain based on said result. - Generating a new transaction including reference information of the most recent block of said blockchain by a peer of said blockchain, - Validating, by a mining computing entity, 'MCE' with a trusted execution environment entity, 'TEEE', said new transaction by checking whether said most recent block refers to an active blockchain branch of said MCE, - Upon successful validation of said transaction, initiating a request for new block generation, - Comparing block height information of the block saved in said TEEE from the last block generation request with the block height information of the block of the actual block generation request, - Providing trusted time information by said TEEE of said MCE, - Computing a block signature by said TEEE of said MCE using secret signing information of said TEEE of said MCE, - Computing a new block including said block signature, the provided trusted time information and transaction information of said transaction, - Computing differences between the trusted time information of said new block and trusted time information of said MCE when said MCE has been registered with said blockchain by a peer of said blockchain, - Comparing said computed differences with one or more predefined security parameters and providing a result, and - Adding the new block, by said peer, to the blockchain based on said result.
A phosphor, which is a phosphor comprising an inorganic compound which is a composition containing at least M Element, A Element, D Element, E Element, and X Element, which has the same crystal structure as that of CaAlSiN 3 , and which emits a fluorescent light having a peak in the range of a wavelength of 570 nm to 700 nm by irradiation with an excitation source, or a phosphor comprising an inorganic compound which is represented by the composition formula M a A b D c E d X e , wherein the parameters a, c, d and e satisfy all the requirements: 0.00001 ≤ a ≤ 0.1 0.5 ≤ c ≤ 1.8 0.5 ≤ d ≤ 1.8 0.8 × 2 / 3 + 4 / 3 × c + d ≤ e e ≤ 1.2 × 2 / 3 + 4 / 3 × c + d and a + b = 1 , and which emits a fluorescent light having a peak in the range of a wavelength of 570 nm to 700 nm by irradiation with an excitation source, wherein in the phosphors and , M Element is one or two or more elements selected from the group consisting of Mn, Ce, Sm, Eu, Th, Dy, Er, and Yb, and contains Eu as an essential element; A Element is one or two or more elements selected from the group consisting of Mg, Ca, Sr, and Ba, and contains Ca as an essential element; D Element is one or two or more elements selected from the group consisting of Si, Ge, Ti, Zr, and Hf, and contains Si as an essential element; E Element is one or two or more elements selected from the group consisting of B, Al, Sc, and Y, and contains Al as an essential element; X Element is one or two or more elements selected from the group consisting of O, N, and F, and contains N as an essential element. a phosphor comprising an inorganic compound which is a composition containing at least M Element, A Element, D Element, E Element, and X Element, which has the same crystal structure as that of CaAlSiN 3 , and which emits a fluorescent light having a peak in the range of a wavelength of 570 nm to 700 nm by irradiation with an excitation source, or a phosphor comprising an inorganic compound which is represented by the composition formula M a A b D c E d X e , wherein the parameters a, c, d and e satisfy all the requirements: 0.00001 ≤ a ≤ 0.1 0.5 ≤ c ≤ 1.8 0.5 ≤ d ≤ 1.8 0.8 × 2 / 3 + 4 / 3 × c + d ≤ e e ≤ 1.2 × 2 / 3 + 4 / 3 × c + d and a + b = 1 , and which emits a fluorescent light having a peak in the range of a wavelength of 570 nm to 700 nm by irradiation with an excitation source, wherein in the phosphors and , M Element is one or two or more elements selected from the group consisting of Mn, Ce, Sm, Eu, Th, Dy, Er, and Yb, and contains Eu as an essential element; A Element is one or two or more elements selected from the group consisting of Mg, Ca, Sr, and Ba, and contains Ca as an essential element; D Element is one or two or more elements selected from the group consisting of Si, Ge, Ti, Zr, and Hf, and contains Si as an essential element; E Element is one or two or more elements selected from the group consisting of B, Al, Sc, and Y, and contains Al as an essential element; X Element is one or two or more elements selected from the group consisting of O, N, and F, and contains N as an essential element.
A light-emitting package comprising: a light-emitting unit selected from a light-emitting diode (LED), an organic LED (OLED), a laser diode (LD), a laser and a vertical-cavity surface-emitting laser (VCSEL); a photo-conversion substrate disposed on one surface of the light-emitting unit ; and an adhesive member disposed between the light-emitting unit and the photo-conversion substrate , the adhesive member comprising inorganic nanoparticles dispersed in a silicone-based resin, wherein a refractive index of the adhesive member is higher than a refractive index of the photo-conversion substrate , a difference in refractive index between the adhesive member and the photo-conversion substrate is 0.8 or less, and the silicone-based resin is a phenyl silicone resin, wherein the inorganic nanoparticles are TiO 2 or ZrO 2 , wherein the photo-conversion substrate is in direct contact with the adhesive member , wherein if the nanoparticles are TiO 2 , the inorganic nanoparticles have particle sizes of 50nm to 200nm, and wherein if the nanoparticles are ZrO 2 , the inorganic nanoparticles have particle sizes of 10 nm to 150 nm, characterized in that when the nanoparticles are TiO 2 , the inorganic nanoparticles are configured to have a content of 0.04% to 0.06% by weight in the adhesive member, and when the nanoparticles are ZrO 2 , the inorganic particles are configured to have a content of 7% to 11.5% by weight in the adhesive member. a light-emitting unit selected from a light-emitting diode (LED), an organic LED (OLED), a laser diode (LD), a laser and a vertical-cavity surface-emitting laser (VCSEL); a photo-conversion substrate disposed on one surface of the light-emitting unit ; and an adhesive member disposed between the light-emitting unit and the photo-conversion substrate , the adhesive member comprising inorganic nanoparticles dispersed in a silicone-based resin, wherein a refractive index of the adhesive member is higher than a refractive index of the photo-conversion substrate , a difference in refractive index between the adhesive member and the photo-conversion substrate is 0.8 or less, and the silicone-based resin is a phenyl silicone resin, wherein the inorganic nanoparticles are TiO 2 or ZrO 2 , wherein the photo-conversion substrate is in direct contact with the adhesive member , wherein if the nanoparticles are TiO 2 , the inorganic nanoparticles have particle sizes of 50nm to 200nm, and wherein if the nanoparticles are ZrO 2 , the inorganic nanoparticles have particle sizes of 10 nm to 150 nm, characterized in that when the nanoparticles are TiO 2 , the inorganic nanoparticles are configured to have a content of 0.04% to 0.06% by weight in the adhesive member, and when the nanoparticles are ZrO 2 , the inorganic particles are configured to have a content of 7% to 11.5% by weight in the adhesive member.