mhurhangee/patent-ind-claim-en huggingface dataset:
A method of painting an object , wherein the object is at least part of an aircraft and wherein the at least part of the aircraft is a panel, frame, rib, trailing edge spar, or left hand horizontal tail, the method comprising: performing a chromate conversion coating process to dispose a chromate conversion coating onto the entirety of a surface of the object ; partially masking the chromate conversion coating disposed on the object ; performing an etching process to remove, from the object , an unmasked portion of the chromate conversion coating while retaining the masked portion of the chromate conversion coating on the object ; performing an anodising process to dispose an anodic layer onto a region of the surface of the object from which the unmasked portion of the chromate conversion coating was removed; and applying a layer of paint onto the anodic layer and not onto the portion of the chromate conversion coating retained on the object . performing a chromate conversion coating process to dispose a chromate conversion coating onto the entirety of a surface of the object ; partially masking the chromate conversion coating disposed on the object ; performing an etching process to remove, from the object , an unmasked portion of the chromate conversion coating while retaining the masked portion of the chromate conversion coating on the object ; performing an anodising process to dispose an anodic layer onto a region of the surface of the object from which the unmasked portion of the chromate conversion coating was removed; and applying a layer of paint onto the anodic layer and not onto the portion of the chromate conversion coating retained on the object .
A method for preparing compound of formula (J): comprising the steps of: (a) contacting a compound of formula (R): with a compound of formula (S): under conditions sufficient to form a compound of formula (P): or a solvate or a hydrate thereof, (b) contacting a compound of formula (P), or a solvate or a hydrate thereof, with a base under conditions sufficient to form a compound of formula (O): or a salt, a solvate, or a hydrate thereof, (c) contacting a compound of formula (O), or a salt, a solvate, or a hydrate thereof, with a reductant and a catalyst under conditions sufficient to form a compound of formula (N): (d) contacting a compound of formula (N) with a compound of formula (M): under conditions sufficient to form a compound of formula (L): (e) contacting a compound of formula (L) with a reductant under conditions sufficient to form a compound of formula (K): and (f) contacting a compound of formula (K) with a reductant under conditions sufficient to form a compound of formula (J); wherein R 4 is C 1-3 alkyl and each R 5 is independently an optionally substituted C 1-6 alkyl or an optionally substituted C 1-6 aryl. (a) contacting a compound of formula (R): with a compound of formula (S): under conditions sufficient to form a compound of formula (P): or a solvate or a hydrate thereof, (b) contacting a compound of formula (P), or a solvate or a hydrate thereof, with a base under conditions sufficient to form a compound of formula (O): or a salt, a solvate, or a hydrate thereof, (c) contacting a compound of formula (O), or a salt, a solvate, or a hydrate thereof, with a reductant and a catalyst under conditions sufficient to form a compound of formula (N): (d) contacting a compound of formula (N) with a compound of formula (M): under conditions sufficient to form a compound of formula (L): (e) contacting a compound of formula (L) with a reductant under conditions sufficient to form a compound of formula (K):
A method of generating a ceiling gas stream in the course of additively manufacturing of a three-dimensional object in a process chamber by layer-wise applying and selectively solidifying of a building material within a build area arranged in the process chamber, wherein the process chamber has a chamber wall having a process chamber ceiling located above the build area , wherein, at least temporarily prior to and/or during and/or after manufacturing of the object , a ceiling gas stream of a process gas is passed through the process chamber , which ceiling gas stream flows from the process chamber ceiling towards the build area in a controlled manner, and wherein the ceiling gas stream is supplied to the process chamber through multiple ceiling inlets formed in the process chamber ceiling , which ceiling inlets are distributed over a region of the process chamber ceiling and are designed and/or arranged and/or controlled such that the ceiling gas stream is directed substantially perpendicularly to the build area downwards onto the build area as it exits the ceiling inlets , wherein the process chamber ceiling comprises a hollow space having a wall which is substantially closed in an outer wall region facing away from the process chamber and which wall comprises ceiling inlets in an inner wall region that is adjacent to the process chamber , wherein the inner wall region is substantially formed by a plate, preferably a perforated plate , and the ceiling inlets are at least partially formed by holes of the plate or of the perforated plate, wherein the plate or the perforated plate has at least 100 holes, preferably at least 1000 holes.
A deactivation apparatus (300; 700) for a secondary cell, SCell, configured for use in a user equipment, UE, the UE being configured with a first SCell carrying a physical uplink control channel, PUCCH, and one or more second SCells carrying no PUCCH, the first SCell and one or more second SCells whose uplink control information is transmitted via the PUCCH constituting a secondary PUCCH cell group; wherein the deactivation apparatus (300; 700) is characterised by further comprising: a determining unit (302; 703) configured to determine: whether a physical downlink control channel, PDCCH, indicating an uplink grant or downlink assignment is received in any one of the second SCells, or whether a PDCCH scheduling any one of the second SCells and indicating an uplink grant or downlink assignment is received in another serving cell, or whether a channel quality indicator report is transmitted in any one of the second SCells in the secondary PUCCH cell group; and a restarting unit (301; 702) configured to restart a deactivation timer of said one second SCell if the determining unit (302; 703) determines that either of the said PDCCH is received, wherein the restarting unit (301; 702) is further configured to restart a deactivation timer associated with the first SCell carrying the PUCCH, in a case where: the deactivation timer is restarted in the said one second SCell, or the channel quality indicator report is transmitted in the said one second SCell in the secondary PUCCH cell group. a determining unit (302; 703) configured to determine: whether a physical downlink control channel, PDCCH, indicating an uplink grant or downlink assignment is received in any one of the second SCells, or whether a PDCCH scheduling any one of the second SCells and indicating an uplink grant or downlink assignment is received in another serving cell, or whether a channel quality indicator report is transmitted in any one of the second SCells in the secondary PUCCH cell group; and whether a physical downlink control channel, PDCCH, indicating an uplink grant or downlink assignment is received in any one of the second SCells, or whether a PDCCH scheduling any one of the second SCells and indicating an uplink grant or downlink assignment is received in another serving cell, or whether a channel quality indicator report is transmitted in any one of the second SCells in the secondary PUCCH cell group; and a restarting unit (301; 702) configured to restart a deactivation timer of said one second SCell if the determining unit (302; 703) determines that either of the said PDCCH is received, wherein the restarting unit (301; 702) is further configured to restart a deactivation timer associated with the first SCell carrying the PUCCH, in a case where: the deactivation timer is restarted in the said one second SCell, or the channel quality indicator report is transmitted in the said one second SCell in the secondary PUCCH cell group. the deactivation timer is restarted in the said one second SCell, or the channel quality indicator report is transmitted in the said one second SCell in the secondary PUCCH cell group.
A method for constructing a dot-matrix code, comprising: constructing a plurality of information units arranged in an NxN matrix, wherein N is a natural number greater than or equal to 2; configuring the plurality of information units as information unit modules and/or marker unit modules, wherein each information unit contains one and only one information point; storing, in each of the information unit modules, a value based on a relative position of the information point within the corresponding information unit module; and signaling identification information of the dot-matrix code through an arrangement of a subset of the information points, wherein the subset of the information points are contained in the marker unit modules; wherein, of the information points that are located in the marker unit modules, those representing a top boundary, a bottom boundary, or vertices of the dot-matrix code are located in centers of the marker unit modules, and those representing a left boundary or a right boundary, not including vertices of the dot-matrix code, are alternately located in left or right portions of the marker unit modules. constructing a plurality of information units arranged in an NxN matrix, wherein N is a natural number greater than or equal to 2; configuring the plurality of information units as information unit modules and/or marker unit modules, wherein each information unit contains one and only one information point; storing, in each of the information unit modules, a value based on a relative position of the information point within the corresponding information unit module; and signaling identification information of the dot-matrix code through an arrangement of a subset of the information points, wherein the subset of the information points are contained in the marker unit modules; wherein, of the information points that are located in the marker unit modules, those representing a top boundary, a bottom boundary, or vertices of the dot-matrix code are located in centers of the marker unit modules, and those representing a left boundary or a right boundary, not including vertices of the dot-matrix code, are alternately located in left or right portions of the marker unit modules.
A refractory plate for use in a slide gate valve for controlling a flow of molten metal, comprising the following features: 1.1 a channel passing through said plate through which molten metal can flow; 1.2 a first portion made of a first refractory material; wherein 1.3 said channel is at least partially passing through said first portion ; and 1.4 a second portion made of a second refractory material; wherein 1.5 said channel is spaced from said second portion ; and wherein 1.6 said first refractory material is bonded by a carbon bond or a coking binder; and wherein 1.7 said second refractory material is not bonded by a carbon bond or a coking binder; and wherein 1.8 said second refractory material is comprised of 35 to 99 % by mass Al 2 O 3 , of below 2 % by mass carbon and of 1 to 65 % by mass at least one of the following: SiO 2 , CaO and Fe 2 O 3 ; and wherein 1.9 said first portion and said second portion abut at an interface . 1.1 a channel passing through said plate through which molten metal can flow; 1.2 a first portion made of a first refractory material; wherein 1.3 said channel is at least partially passing through said first portion ; and 1.4 a second portion made of a second refractory material; wherein 1.5 said channel is spaced from said second portion ; and wherein 1.6 said first refractory material is bonded by a carbon bond or a coking binder; and wherein 1.7 said second refractory material is not bonded by a carbon bond or a coking binder; and wherein 1.8 said second refractory material is comprised of 35 to 99 % by mass Al 2 O 3 , of below 2 % by mass carbon and of 1 to 65 % by mass at least one of the following: SiO 2 , CaO and Fe 2 O 3 ; and wherein 1.9 said first portion and said second portion abut at an interface .
A method for presenting an estimated elevator car arrival time by a mobile device , the method comprising: receiving an elevator call at the mobile device ; sending an elevator call to an elevator controller ; obtaining the estimated elevator car arrival time from the elevator controller in response to the elevator call; and generating a user interface depicting the estimated elevator car arrival time, the user interface depicting the estimated elevator car arrival time including a dynamic component that changes appearance in response to the estimated elevator car arrival time, characterised by receiving an updated estimated elevator arrival time from the elevator controller , when the estimated elevator car arrival time has changed by more than a threshold time; and updating the user interface to reflect a change in the estimated elevator car arrival time, the dynamic component changing appearance in response to the updated estimated elevator car arrival time. receiving an elevator call at the mobile device ; sending an elevator call to an elevator controller ; obtaining the estimated elevator car arrival time from the elevator controller in response to the elevator call; and generating a user interface depicting the estimated elevator car arrival time, the user interface depicting the estimated elevator car arrival time including a dynamic component that changes appearance in response to the estimated elevator car arrival time, characterised by receiving an updated estimated elevator arrival time from the elevator controller , when the estimated elevator car arrival time has changed by more than a threshold time; and updating the user interface to reflect a change in the estimated elevator car arrival time, the dynamic component changing appearance in response to the updated estimated elevator car arrival time.
A method of operating a mobile device to access a voice service available at a cellular network, the mobile device having a cellular network interface for accessing the voice service via a cellular network base station and a non-cellular wireless local area network interface for accessing the voice service via a wireless routing device and a cellular network gateway, the method comprising: connecting to a non-cellular wireless local area network of the wireless routing device; sending a request, via the non-cellular wireless local area network interface, to the cellular network gateway to access the voice service; receiving a request, from a voice service access controller and via the non-cellular wireless local area network interface, for any observed wireless local area networks and cellular networks; generating a list of any observed non-cellular wireless local area networks and observed cellular networks; sending said list to the voice service access controller via the non-cellular wireless local area network interface; receiving, via the non-cellular wireless local area network interface, an identity of one of the listed networks from the voice service access controller, the identified network representing a candidate network for accessing the voice service; and enabling the respective cellular or non-cellular wireless network interface associated with the identified network to access the voice service. connecting to a non-cellular wireless local area network of the wireless routing device; sending a request, via the non-cellular wireless local area network interface, to the cellular network gateway to access the voice service; receiving a request, from a voice service access controller and via the non-cellular wireless local area network interface, for any observed wireless local area networks and cellular networks; generating a list of any observed non-cellular wireless local area networks and observed cellular networks; sending said list to the voice service access controller via the non-cellular wireless local area network interface; receiving, via the non-cellular wireless local area network interface, an identity of one of the listed networks from the voice service access controller, the identified network representing a candidate network for accessing the voice service; and enabling the respective cellular or non-cellular wireless network interface associated with the identified network to access the voice service.
A production method for a removable dental splint made of a thermoplastic film or plate , wherein - the dental splint is at least partially adapted to the shape of the upper jaw and/or lower jaw, wherein - on the basis of a three-dimensional data set of at least one part of an upper jaw and/or lower jaw a digital three-dimensional working model is created in a computer-aided manner, - the gingival line is determined automatically and/or manually in the digital working model, an auxiliary line is created at a fixed distance in the direction of the gingiva, parallel to the gingival line, and is used as a cutting line model, - the digital working model is supplemented by an auxiliary structure automatically or by way of manual input means before the physical working model is produced, wherein - the auxiliary structure is formed as an elevation or depression , - the auxiliary structure extends along the digital cutting line model in the working model, - a physical working model is produced in accordance with the supplemented digital working model , - the plastic film or plate is deep-drawn on the physical working model within a deep-drawing device and - the dental splint is created from the deep-drawn plastic film or plate by means of separation along a cutting line , - the dental splint is manually separated from the deep-drawn plastic film or plate using a cutting tool , wherein the tool at least partially removes the auxiliary structure or at least partially reaches into the auxiliary structure during the separation. - the dental splint is at least partially adapted to the shape of the upper jaw and/or lower jaw, wherein - on the basis of a three-dimensional data set of at least one part of an upper jaw and/or lower jaw a digital three-dimensional working model is created in a computer-aided manner, - the gingival line is determined automatically and/or manually in the digital working model, an auxiliary line is created at a fixed distance in the direction of the gingiva, parallel to the gingival line, and is used as a cutting line model, - the digital working model is supplemented by an auxiliary structure automatically or by way of manual input means before the physical working model is produced, wherein - the auxiliary structure is formed as an elevation or depression , - the auxiliary structure extends along the digital cutting line model in the working model, - a physical working model is produced in accordance with the supplemented digital working model , - the plastic film or plate is deep-drawn on the physical working model within a deep-drawing device and - the dental splint is created from the deep-drawn plastic film or plate by means of separation along a cutting line , - the dental splint is manually separated from the deep-drawn plastic film or plate using a cutting tool , wherein the tool at least partially removes the auxiliary structure or at least partially reaches into the auxiliary structure during the separation.
A composition for use as a remedy in the treatment of coughs, or symptoms of colds, with or without symptoms of flu, wherein said composition comprises: (i) 5 - 42.3% menthol by total weight dissolved in a digestible oil, characterised in that said digestible oil is a medium-chain triglyceride, so that said composition is a liquid at 20°C after rising to that temperature from a lower temperature at which the menthol in oil preparation was previously semisolid. (i) 5 - 42.3% menthol by total weight dissolved in a digestible oil,
A calibration unit for a roller nip gauge, which calibration unit comprises an upper part and a lower part , wherein it has means to place a part acting on a sensor element of a sensor during calibration in parallel with a surface of the calibration unit receiving the sensor , characterized in that the lower part and upper part are locked to each other by means of at least two hooks on the upper part co-operating with cavities on the lower part and that a top part and a middle part of the upper part are fixed to each other.
A method for wireless communication, the method comprising: establishing , at a first base station, at least one wireless connection with at least one user equipment, UE, using time division duplexing, TDD, in a first frequency band of a set of frequency bands, wherein the set of frequency bands has an associated baseline TDD configuration; identifying , at the first base station based at least in part on an amount of data for communication between the first base station and the at least one UE, a first TDD configuration that is different than the baseline TDD configuration for communications between the first base station and the at least one UE; selecting , at the first base station, an interference mitigation procedure based at least in part on the identified first TDD configuration; communicating between the first base station and the at least one UE using the first TDD configuration and the interference mitigation procedure; selecting , after the communicating using the first TDD configuration, the baseline TDD configuration for further communications with the at least one UE; discontinuing the interference mitigation procedure based at least in part on the selecting the baseline TDD configuration; and communicating with the at least one UE using the baseline TDD configuration. establishing , at a first base station, at least one wireless connection with at least one user equipment, UE, using time division duplexing, TDD, in a first frequency band of a set of frequency bands, wherein the set of frequency bands has an associated baseline TDD configuration; identifying , at the first base station based at least in part on an amount of data for communication between the first base station and the at least one UE, a first TDD configuration that is different than the baseline TDD configuration for communications between the first base station and the at least one UE; selecting , at the first base station, an interference mitigation procedure based at least in part on the identified first TDD configuration; communicating between the first base station and the at least one UE using the first TDD configuration and the interference mitigation procedure; selecting , after the communicating using the first TDD configuration, the baseline TDD configuration for further communications with the at least one UE; discontinuing the interference mitigation procedure based at least in part on the selecting the baseline TDD configuration; and communicating with the at least one UE using the baseline TDD configuration.
A sliding member including a base member and a hard carbon coating that is formed on the base member and has a hydrogen content of 3 atomic % or less and a thickness of 3 μm or more; characterized in that , where HM represents a Martens hardness of the hard carbon coating and HIT represents an indentation hardness of the hard carbon coating , the ratio HM/HIT is 0.40 or more, and the hard carbon coating is formed by an ion plating process with a bias voltage of -50 V or more and 0 V or less and a discharge current of 50 A or more and 200 A or less. characterized in that , where HM represents a Martens hardness of the hard carbon coating and HIT represents an indentation hardness of the hard carbon coating , the ratio HM/HIT is 0.40 or more, and the hard carbon coating is formed by an ion plating process with a bias voltage of -50 V or more and 0 V or less and a discharge current of 50 A or more and 200 A or less.