mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an enclosed laser powder bed fusion, LPBF, build volume ; a powder drain below the build volume configured to receive powder dropping from the build volume by force of gravity; a valve below the powder drain configured to: allow passage with the valve in an open state of unfused powder from the drain into a powder collection volume separated from the build volume by the valve; and prevent passage of powder from the powder drain into the collection volume with the valve in a closed state; a source of wetting agent selectively in fluid communication with the powder collection volume, wherein the source of wetting agent connects downstream of the valve for capturing powder in the collection volume by wetting the powder; and a moisture trap operatively connected to the powder drain above the valve configured to capture moisture to prevent moisture from the collection volume migrating into the build volume. an enclosed laser powder bed fusion, LPBF, build volume ; a powder drain below the build volume configured to receive powder dropping from the build volume by force of gravity; a valve below the powder drain configured to: allow passage with the valve in an open state of unfused powder from the drain into a powder collection volume separated from the build volume by the valve; and prevent passage of powder from the powder drain into the collection volume with the valve in a closed state; allow passage with the valve in an open state of unfused powder from the drain into a powder collection volume separated from the build volume by the valve; and prevent passage of powder from the powder drain into the collection volume with the valve in a closed state; a source of wetting agent selectively in fluid communication with the powder collection volume, wherein the source of wetting agent connects downstream of the valve for capturing powder in the collection volume by wetting the powder; and a moisture trap operatively connected to the powder drain above the valve configured to capture moisture to prevent moisture from the collection volume migrating into the build volume.
An air freshening formulation comprising; a) water 30-65% weight %; b) alcohol 10 - 50 weight %; c) co-solvent 10 - 30 weight %; d) fragrance composition 0.1 -15 weight %; wherein the air freshening composition comprises no surfactant, and wherein the alcohol is ethanol and the co-solvent is dipropylene glycol n-propyl ether (DPnP). a) water 30-65% weight %; b) alcohol 10 - 50 weight %; c) co-solvent 10 - 30 weight %; d) fragrance composition 0.1 -15 weight %; wherein the air freshening composition comprises no surfactant, and wherein the alcohol is ethanol and the co-solvent is dipropylene glycol n-propyl ether (DPnP).
A communication system comprising a detection server ; a mobile terminal ; and a control apparatus ; the detection server comprising: detecting means for detecting a change of an interval time of communication of a mobile terminal based on an event notice that indicates the change, the event notice being transmitted from the mobile terminal; and notifying means for transmitting, upon the detecting means detecting said change of the interval time of the communication, a first parameter indicating changed interval time of communication of the mobile terminal corresponding to the change of the interval time of the communication, to the control apparatus ; and the control apparatus comprising: control means for determining a second parameter related to idle transition of the mobile terminal and a third parameter related to an intermittent reception interval of the mobile terminal using the first parameter. parameter; and notifying means for transmitting the second parameter and the third parameter to a radio base station . detecting means for detecting a change of an interval time of communication of a mobile terminal based on an event notice that indicates the change, the event notice being transmitted from the mobile terminal; and notifying means for transmitting, upon the detecting means detecting said change of the interval time of the communication, a first parameter indicating changed interval time of communication of the mobile terminal corresponding to the change of the interval time of the communication, to the control apparatus ; and the control apparatus comprising: control means for determining a second parameter related to idle transition of the mobile terminal and a third parameter related to an intermittent reception interval of the mobile terminal using the first parameter. parameter; and notifying means for transmitting the second parameter and the third parameter to a radio base station . control means for determining a second parameter related to idle transition of the mobile terminal and a third parameter related to an intermittent reception interval of the mobile terminal using the first parameter. parameter; and notifying means for transmitting the second parameter and the third parameter to a radio base station .
A method of manufacturing a corrosion sensor, said sensor comprising a chip module and a connecting module both formed on a substrate , wherein a layer of insulator material is deposited upon said substrate, and wherein, upon said insulator material, a number of metallic strips are mounted on said substrate comprising said insulator material, said module forming electrical connections to the metallic strips to enable communication between the strips and monitoring equipment for the sensor, the module including a number of wire connections, the method including the steps of manually coating each of the wire connections with one of selected preliminary sealing compounds, respectively, and curing the preliminary sealing compounds followed by encapsulating the wire connections within a flexible chemical and heat resistant sealing compound, and subsequently, encapsulating the whole connecting module comprising the flexible sealing compound as well as an enclosed part of the chip within a second sealing compound of aircraft sealant by an injection moulding process.
A method of processing touch events in a terminal device with a touchscreen , comprising: when a multi-point touch event exists and a phone application program is running in a foreground, determining that the multi-point touch event is not processed and is to be discarded; determining (S120), in touch points in the multi-point touch event, a first touch point falling within a target control response area of a current display interface of the phone application program and a second touch point not falling within the target control response area; obtaining (S130) a new touch event according to the first touch point falling within the target control response area, wherein the new touch event does not comprise the second touch point; and transferring (S140) the new touch event to the phone application program. when a multi-point touch event exists and a phone application program is running in a foreground, determining that the multi-point touch event is not processed and is to be discarded; determining (S120), in touch points in the multi-point touch event, a first touch point falling within a target control response area of a current display interface of the phone application program and a second touch point not falling within the target control response area; obtaining (S130) a new touch event according to the first touch point falling within the target control response area, wherein the new touch event does not comprise the second touch point; and transferring (S140) the new touch event to the phone application program.
A light emitting diode, comprising: a lower semiconductor layer formed on a substrate ; an upper semiconductor layer disposed above the lower semiconductor layer to expose at least a portion of the lower semiconductor layer forming an inclined mesa surface by a mesa-etching; a first electrode formed on a region of the upper semiconductor layer , with an insulation layer interposed between the first electrode and the region of the upper semiconductor , to supply electric current to the lower semiconductor layer ; a second electrode formed on another region of the upper semiconductor layer to supply electric current to the upper semiconductor layer ; and a DBR layer formed on a bottom side of the substrate , wherein the first electrode comprises an inclined extension part formed on the inclined mesa surface extending from the first electrode to the exposed portion of the lower semiconductor layer , and wherein the insulation layer is formed on the upper surface of the upper semiconductor layer and the inclined mesa surface. a lower semiconductor layer formed on a substrate ; an upper semiconductor layer disposed above the lower semiconductor layer to expose at least a portion of the lower semiconductor layer forming an inclined mesa surface by a mesa-etching; a first electrode formed on a region of the upper semiconductor layer , with an insulation layer interposed between the first electrode and the region of the upper semiconductor , to supply electric current to the lower semiconductor layer ; a second electrode formed on another region of the upper semiconductor layer to supply electric current to the upper semiconductor layer ; and a DBR layer formed on a bottom side of the substrate , wherein the first electrode comprises an inclined extension part formed on the inclined mesa surface extending from the first electrode to the exposed portion of the lower semiconductor layer , and wherein the insulation layer is formed on the upper surface of the upper semiconductor layer and the inclined mesa surface.
Device for storing and releasing heat comprising at least two heat storage volumes (TES1, TES2, TES3) delimited by concentric walls , said heat storage volumes (TES1, TES2, TES3) comprising a heat storage material , characterized in that the thicknesses of said consecutive walls delimiting said heat storage volumes (TES1, TES2, TES3) decrease from said wall delimiting said central heat storage volume (TES3) to said wall delimiting said peripheral heat storage volume (TES1).
A method of geotagging a digital photo on a handheld electronic device comprising a camera and GPS position-determining subsystem, the method comprising: monitoring , by a user activity monitoring application, user activity with respect to the camera in the device; determining that current position data for a current position of the device is not currently available from the position-determining subsystem; initiating acquisition of a GPS position fix prior to initiating capture of a digital photo by the camera in dependence on monitored user activity and determining that the current position data is not currently available; providing an onscreen user interface for the camera; prior to capture of the digital photo using the camera, presenting an indication of acquisition status for a GPS position fix on the user interface while displaying a viewfinder on the user interface, the indication of acquisition status comprising an indication that GPS acquisition is progressing; prior to completion of GPS acquisition and as the GPS acquisition is progressing, capturing the digital photo using the camera; and geotagging the digital photo by appending the current position data to the digital photo when available. monitoring , by a user activity monitoring application, user activity with respect to the camera in the device; determining that current position data for a current position of the device is not currently available from the position-determining subsystem; initiating acquisition of a GPS position fix prior to initiating capture of a digital photo by the camera in dependence on monitored user activity and determining that the current position data is not currently available; providing an onscreen user interface for the camera; prior to capture of the digital photo using the camera, presenting an indication of acquisition status for a GPS position fix on the user interface while displaying a viewfinder on the user interface, the indication of acquisition status comprising an indication that GPS acquisition is progressing; prior to completion of GPS acquisition and as the GPS acquisition is progressing, capturing the digital photo using the camera; and geotagging the digital photo by appending the current position data to the digital photo when available.
Method for initializing a bus system for a process facility , wherein the bus system comprises at least a first bus subscriber and a second bus subscriber , wherein the first bus subscriber and the second bus subscriber are each installed at an installation site in the process facility , wherein the first bus subscriber is an administrative bus subscriber and wherein a list of at least two installation sites of the bus subscribers is stored in the first bus subscriber , wherein the first bus subscriber and the second bus subscriber are connected to one another via a data bus , characterized in that at least the second bus subscriber has an identification sensor , wherein in a prompting step the identification sensor of the second bus subscriber is prompted with an identification prompt , wherein in a transmitting step the second bus subscriber , after the identification senor receives the identification prompt , transmits an identification signal identifying the second bus subscriber to the administrative bus subscriber , and wherein in a match-up step the administrative bus subscriber , after receiving the identification signal identifying the second bus subscriber , matches up the second bus subscriber with an installation site of the installation sites included in the stored list. wherein the first bus subscriber and the second bus subscriber are each installed at an installation site in the process facility , wherein the first bus subscriber is an administrative bus subscriber and wherein a list of at least two installation sites of the bus subscribers is stored in the first bus subscriber , wherein the first bus subscriber and the second bus subscriber are connected to one another via a data bus , characterized in that at least the second bus subscriber has an identification sensor , wherein in a prompting step the identification sensor of the second bus subscriber is prompted with an identification prompt , wherein in a transmitting step the second bus subscriber , after the identification senor receives the identification prompt , transmits an identification signal identifying the second bus subscriber to the administrative bus subscriber , and wherein in a match-up step the administrative bus subscriber , after receiving the identification signal identifying the second bus subscriber , matches up the second bus subscriber with an installation site of the installation sites included in the stored list.
A method for assessing an incident flow at a rotor blade of a wind power installation , comprising the steps of: - recording at least part of a pressure spectrum of a pressure (P), in particular wall pressure at the rotor blade at at least one measurement position, - determining at least two characteristic values (P1, P2) from the pressure spectrum, - forming an indicator value (I) from a relationship between the at least two characteristic values (P1, P2) and - assessing whether a critical incident flow is present, depending on the indicator value (I). - recording at least part of a pressure spectrum of a pressure (P), in particular wall pressure at the rotor blade at at least one measurement position, - determining at least two characteristic values (P1, P2) from the pressure spectrum, - forming an indicator value (I) from a relationship between the at least two characteristic values (P1, P2) and - assessing whether a critical incident flow is present, depending on the indicator value (I).
An assembly comprising: an aircraft fuel tank ; a captive nut with an internal thread; a secondary structure ; and a fastener which secures the secondary structure to the fuel tank, wherein the fastener comprises a shaft which passes through the secondary structure and has an external thread coupled to the internal thread of the captive nut, the fuel tank comprises a fuel tank element with a hole, and the captive nut comprises a sleeve which is located in the hole with an interference fit between an outer surface of the sleeve and an inner surface of the wall of the hole, wherein the fuel tank comprises a fuel tank wall , the fuel tank element is a fitting which is inside the fuel tank and carried by the fuel tank wall, and the shaft passes through the secondary structure and the fuel tank wall, wherein the secondary structure is outside the fuel tank.
System for conveying viscous media with a positive displacement pump and a conveying unit , which is arranged in the direction of flow of the viscous medium before the positive displacement pump and is fluidly connected to the positive displacement pump , whereby the positive displacement pump and the conveying unit have mutually independent drive units , characterized in that the positive displacement pump and the delivery unit are arranged in a line, so that a conveying direction of the conveying unit is aligned coaxially with an axis of rotation of the positive displacement pump .
An article comprising: an incline adjuster comprising a main body , a variable-volume lateral chamber extending outward on a lateral side of the main body , and a variable-volume medial chamber extending outward on a medial side of the main body , and wherein the incline adjuster further comprises: a transfer channel defined in a central portion of the main body and extending between the lateral chamber and the medial chamber ; an electrorheological fluid filling the lateral chamber, the transfer channel, and the medial chamber; a conductive rubber first electrode embedded in the central portion and exposed to the electrorheological fluid along the transfer channel ; and a conductive rubber second electrode embedded in the central portion in a position opposite the first electrode and exposed to the electrorheological fluid along the transfer channel , wherein a concave side of the first electrode is exposed to the electrorheological fluid, and a portion of the second electrode projecting into a concavity of the concave side is exposed to the electrorheological fluid. a transfer channel defined in a central portion of the main body and extending between the lateral chamber and the medial chamber ; an electrorheological fluid filling the lateral chamber, the transfer channel, and the medial chamber; a conductive rubber first electrode embedded in the central portion and exposed to the electrorheological fluid along the transfer channel ; and a conductive rubber second electrode embedded in the central portion in a position opposite the first electrode and exposed to the electrorheological fluid along the transfer channel , wherein a concave side of the first electrode is exposed to the electrorheological fluid, and a portion of the second electrode projecting into a concavity of the concave side is exposed to the electrorheological fluid.
A method for manufacturing a water-soluble laundry detergent sheet, the method comprising, consisting essentially of or consisting of the steps: (i) providing an aqueous liquid, preferably homogenous, composition comprising, consisting essentially of or consisting of the following components: (a) at least one textile stiffening agent, (b) at least one surfactant, (c) at least one water-soluble polymer, (d) optionally at least one perfume component, and (e) optionally at least one adjunct detergent ingredient; (ii) applying the composition of step (i) onto a surface such that it forms a layer on said surface; (iii) drying said layer to obtain a laundry detergent sheet; and (iv) optionally cutting the laundry detergent sheet into pieces of a desired shape and size; and (v) optionally packaging one or more laundry detergent sheets obtained in step (iv), characterized in that the at least one textile stiffening agent is selected from the group consisting of keratin, silk, casein, terephthalates, and lanolin. (i) providing an aqueous liquid, preferably homogenous, composition comprising, consisting essentially of or consisting of the following components: (a) at least one textile stiffening agent, (b) at least one surfactant, (c) at least one water-soluble polymer, (d) optionally at least one perfume component, and (e) optionally at least one adjunct detergent ingredient; (a) at least one textile stiffening agent, (b) at least one surfactant, (c) at least one water-soluble polymer, (d) optionally at least one perfume component, and (e) optionally at least one adjunct detergent ingredient; (ii) applying the composition of step (i) onto a surface such that it forms a layer on said surface; (iii) drying said layer to obtain a laundry detergent sheet; and (iv) optionally cutting the laundry detergent sheet into pieces of a desired shape and size; and (v) optionally packaging one or more laundry detergent sheets obtained in step (iv),
A method for calibrating an array path of beam forming test equipment for a base station, the method comprising: (a) receiving (S10) at a beam forming test equipment a signal y n (t) transmitted by a base station using a plurality of array antenna paths, wherein the received signal y n (t) includes a Synchronization Signal Block SSB signal Ŷ i,n ; (b) detecting (S20) the SSB signal Ŷ i,n by analyzing the received signal y n (t) ; (c) measuring (S30) a path characteristic H̃ n of all array antenna paths of the base station by applying a beam forming coefficient W i,n to the SSB signal Ŷ i,n detected in (b), wherein the beam forming coefficient W i,n is a compensation coefficient applied to each array antenna path; (d) calculating (S40) a compensation coefficient C n = 1/ H̃ n for compensating the path characteristic H̃ n of the array antenna paths of the base station measured in (c); and (e) performing (S50) calibration on the received signal y n (t) by applying the compensation coefficient C n calculated in (d), wherein i represents the index of a beam and n represents the index of an array antenna path, wherein the path characteristic H n measured in (c) are calculated by H ̃ n = Y ^ n W i , n , n = 0 , 1 , ... N − 1 , and an actual path characteristic H n is calculated by H n = Y n W i , n ⋅ S i , n = 0 , 1 , ... N − 1 wherein the connection between the path characteristic H̃ n and the actual path characteristic H n are H ̃ n ≈ 1 S i ⋅ H n , n = 0 , 1 , ... N − 1 H ̃ 0 H ̃ 1 ⋮ H ̃ N − 1 ≈ 1 S i ⋅ H 0 H 1 ⋮ H N − 1 and S i is a reference symbol of the SSB included in an i-th beam forming target signal s i (t). (a) receiving (S10) at a beam forming test equipment a signal y n (t) transmitted by a base station using a plurality of array antenna paths, wherein the received signal y n (t) includes a Synchronization Signal Block SSB signal Ŷ i,n ; (b) detecting (S20) the SSB signal Ŷ i,n by analyzing the received signal y n (t) ; (c) measuring (S30) a path characteristic H̃ n of all array antenna paths of the base station by applying a beam forming coefficient W i,n to the SSB signal Ŷ i,n detected in (b), wherein the beam forming coefficient W i,n is a compensation coefficient applied to each array antenna path; (d) calculating (S40) a compensation coefficient C n = 1/ H̃ n for compensating the path characteristic H̃ n of the array antenna paths of the base station measured in (c); and (e) performing (S50) calibration on the received signal y n (t) by applying the compensation coefficient C n calculated in (d), wherein the path characteristic H n measured in (c) are calculated by H ̃ n = Y ^ n W i , n , n = 0 , 1 , ... N − 1 , and an actual path characteristic H n is calculated by H n = Y n W i , n ⋅ S i , n = 0 , 1 , ... N − 1 wherein the connection between the path characteristic H̃ n and the actual path characteristic H n are H ̃ n ≈ 1 S i ⋅ H n , n = 0 , 1 , ... N − 1 H ̃ 0 H ̃ 1 ⋮ H ̃ N − 1 ≈ 1 S i ⋅ H 0 H 1 ⋮ H N − 1 and S i is a reference symbol of the SSB included in an i-th beam forming target signal s i (t).