mhurhangee/patent-ind-claim-en huggingface dataset:
A method of communicating data in a telecommunications system comprising a base station and a plurality of terminals operable to communicate data to and from the base station, the system being configured to transmit downlink signals using downlink resources in a frequency band and in a first time period, the method comprising: upon identification of uplink data to be transmitted by a first terminal of the plurality of terminals, dynamically selecting (S802) a set of resources for transmitting the uplink data, wherein selecting the set of resources comprises selecting a subset of the frequency band and a subset of the time period of the downlink resources, the selected set of resources being based on the subset of the frequency band and the subset of the time period, wherein one or more frequency guard bands and/or one or more guard periods are inserted around each of the selected set of resources; notifying (S803) the first terminal of the selected set of resources; the first terminal transmitting (S804) the uplink data using the selected set of resources, wherein the one or more frequency guard bands and/or the one or more guard periods are deactivated if a power with which the uplink data is transmitted is below a predefined threshold. upon identification of uplink data to be transmitted by a first terminal of the plurality of terminals, dynamically selecting (S802) a set of resources for transmitting the uplink data, wherein selecting the set of resources comprises selecting a subset of the frequency band and a subset of the time period of the downlink resources, the selected set of resources being based on the subset of the frequency band and the subset of the time period, wherein one or more frequency guard bands and/or one or more guard periods are inserted around each of the selected set of resources; notifying (S803) the first terminal of the selected set of resources; the first terminal transmitting (S804) the uplink data using the selected set of resources, wherein the one or more frequency guard bands and/or the one or more guard periods are deactivated if a power with which the uplink data is transmitted is below a predefined threshold.
A personal basic service point / access point, PCP/AP, communication device, comprising: a frame generating circuit configured to generate a Directional Multi-Gigabit, DMG, Beacon frame including a Sector Sweep, SSW, field, the SSW field comprising a differential gain subfield for indicating a difference value obtained by subtracting a reception antenna gain in Association Beamforming Training, A-BFT, of the PCP/AP communication device from a value of Transmission Equivalent Isotropic Radiated Power, TX EIRP, the DMG Beacon frame transmission of the PCP/AP communication device; and a transmission circuit configured to transmit the DMG Beacon frame in a Beacon Transmission Interval, BTI. a frame generating circuit configured to generate a Directional Multi-Gigabit, DMG, Beacon frame including a Sector Sweep, SSW, field, the SSW field comprising a differential gain subfield for indicating a difference value obtained by subtracting a reception antenna gain in Association Beamforming Training, A-BFT, of the PCP/AP communication device from a value of Transmission Equivalent Isotropic Radiated Power, TX EIRP, the DMG Beacon frame transmission of the PCP/AP communication device; and a transmission circuit configured to transmit the DMG Beacon frame in a Beacon Transmission Interval, BTI.
A electrical switch comprising a first electrically conductive arm comprising a first electrically conductive arcing portion and an electrically conductive main portion ; a second electrically conductive arm comprising an electrically conductive body portion at least one of the first and second arms being adapted to be displaced relative to the other to move the switch between an open configuration in which the first and second arms are spaced apart and a closed configuration in which the main portion is in contact with the body portion ; the electrical switch further comprising a pivot mechanism to pivot the arcing portion and the main portion into contact with the body portion characterised in that the second electrically conductive arm further comprises an electrically conductive wheel connected to the body portion by a wheel axle which extends along a wheel axis, the wheel being free to rotate about the wheel axis, the wheel being in electrical contact with the body portion , wherein in the closed configuration the arcing portion is in contact with the wheel , the switch being adapted such that as the switch is switched from the open configuration to the closed configuration the arcing portion contacts the wheel before the main portion contacts the body portion ; wherein the arcing portion comprises at least one pair of spaced apart arcing fingers , the wheel being adapted to be received between the fingers , and in that the pivot mechanism is adapted to pivot the arcing portion into contact with the wheel . at least one of the first and second arms being adapted to be displaced relative to the other to move the switch between an open configuration in which the first and second arms are spaced apart and a closed configuration in which the main portion is in contact with the body portion ; the electrical switch further comprising a pivot mechanism to pivot the arcing portion and the main portion into contact with the body portion characterised in that the second electrically conductive arm further comprises an electrically conductive wheel connected to the body portion by a wheel axle which extends along a wheel axis, the wheel being free to rotate about the wheel axis, the wheel being in electrical contact with the body portion , wherein in the closed configuration the arcing portion is in contact with the wheel , the switch being adapted such that as the switch is switched from the open configuration to the closed configuration the arcing portion contacts the wheel before the main portion contacts the body portion ; wherein the arcing portion comprises at least one pair of spaced apart arcing fingers , the wheel being adapted to be received between the fingers , and in that the pivot mechanism is adapted to pivot the arcing portion into contact with the wheel .
A compound of formula I wherein HetAr is a five or six membered heteroaryl group, selected from wherein R 1 is hydrogen, halogen, C 1 -C 7 alkyl, C 1 -C 7 alkoxy or C 1 -C 7 alkyl substituted by halogen, and may be the same or different, if two R 1 occur; R 2 is C 1 -C 7 alkyl or a mono- or polydeutered derivative thereof, C 1 -C 7 alkyl substituted by halogen or C 1 -C 7 alkoxy, C 2 -C 4 alkenyl unsubstituted or substituted by halogen, cycloalkyl or CH 2 -cycloalkyl unsubstituted or substituted by halogen, heterocycloalkyl or CH 2 -heterocycloalkyl unsubstituted or substituted by C 1 -C 7 alkyl; R 3 is halogen, C 1 -C 7 alkyl, C 1 -C 7 alkyl substituted by halogen, C 1 -C 7 alkoxy substituted by halogen or S(O) 2 -C 1 -C 7 alkyl; n is 1, 2 or 3; if n is > 1, then R 3 may be the same or different; or a pharmaceutically active acid addition salt thereof, a racemic mixture or its corresponding enantiomer and/or an optical isomer and/or stereoisomer thereof. R 1 is hydrogen, halogen, C 1 -C 7 alkyl, C 1 -C 7 alkoxy or C 1 -C 7 alkyl substituted by halogen, and may be the same or different, if two R 1 occur; R 2 is C 1 -C 7 alkyl or a mono- or polydeutered derivative thereof, C 1 -C 7 alkyl substituted by halogen or C 1 -C 7 alkoxy, C 2 -C 4 alkenyl unsubstituted or substituted by halogen, cycloalkyl or CH 2 -cycloalkyl unsubstituted or substituted by halogen, heterocycloalkyl or CH 2 -heterocycloalkyl unsubstituted or substituted by C 1 -C 7 alkyl; R 3 is halogen, C 1 -C 7 alkyl, C 1 -C 7 alkyl substituted by halogen, C 1 -C 7 alkoxy substituted by halogen or S(O) 2 -C 1 -C 7 alkyl; n is 1, 2 or 3; if n is > 1, then R 3 may be the same or different;
A lubricant comprising: a multidentate lubricant comprising an anchoring moiety R a attached to a plurality of sidechain moieties -(R b -R e ) according to a general formula: R a -(R b -R e ) x ; wherein R a is a multivalent radical of valence x; wherein each R b is, independently, a divalent moiety comprising the general formula: -OCH 2 CF 2 -O-(CF 2 CF 2 O) b -C(R # ) 2 CH 2 -; wherein each R # is a hydrogen atom; wherein each b is, independently, from 1 to 10; wherein x is greater than or equal to 2; and wherein each R e is a hydroxyl (-OH) group. wherein R a is a multivalent radical of valence x; wherein each R b is, independently, a divalent moiety comprising the general formula: -OCH 2 CF 2 -O-(CF 2 CF 2 O) b -C(R # ) 2 CH 2 -; wherein each R # is a hydrogen atom; wherein each b is, independently, from 1 to 10; wherein x is greater than or equal to 2; and wherein each R e is a hydroxyl (-OH) group.
A method for identifying a target site of a nuclease, the method comprising: (a) providing a nuclease that cuts a double-stranded nucleic acid target site, wherein cutting of the target site results in cut nucleic acid strands comprising a 5' phosphate moiety; (b) contacting the nuclease of step (a) with a library of candidate nucleic acid molecules, wherein each nucleic acid molecule comprises a concatemer of a sequence comprising a candidate nuclease target site and a constant insert sequence of at least 10 and not more than 80 nucleotides, under conditions suitable for the nuclease to cut a candidate nucleic acid molecule comprising a target site of the nuclease; and (c) identifying nuclease target sites cut by the nuclease in step (b) by determining the sequence of an uncut nuclease target site on the nucleic acid strand that was cut by the nuclease in step (b), wherein the determining of step (c) comprises (i) ligating a first nucleic acid adapter to the 5' end of a nucleic acid strand that was cut by the nuclease in step (b) via 5'-phosphate-dependent ligation, and (ii) amplifying a fragment of the concatemer cut by the nuclease that comprises an uncut target site via a PCR reaction using a PCR primer that hybridizes with the adapter and a PCR primer that hybridizes with the constant insert sequence. (a) providing a nuclease that cuts a double-stranded nucleic acid target site, wherein cutting of the target site results in cut nucleic acid strands comprising a 5' phosphate moiety; (b) contacting the nuclease of step (a) with a library of candidate nucleic acid molecules, wherein each nucleic acid molecule comprises a concatemer of a sequence comprising a candidate nuclease target site and a constant insert sequence of at least 10 and not more than 80 nucleotides, under conditions suitable for the nuclease to cut a candidate nucleic acid molecule comprising a target site of the nuclease; and (c) identifying nuclease target sites cut by the nuclease in step (b) by determining the sequence of an uncut nuclease target site on the nucleic acid strand that was cut by the nuclease in step (b), wherein the determining of step (c) comprises (i) ligating a first nucleic acid adapter to the 5' end of a nucleic acid strand that was cut by the nuclease in step (b) via 5'-phosphate-dependent ligation, and (ii) amplifying a fragment of the concatemer cut by the nuclease that comprises an uncut target site via a PCR reaction using a PCR primer that hybridizes with the adapter and a PCR primer that hybridizes with the constant insert sequence.
A photonics package, comprising: an interposer (202; 402); a patch (205; 405) over the interposer (202; 402), wherein the patch (205; 405) overhangs an edge of the interposer (202; 402); a photonics die (225; 425) on the patch (205; 405); and a Faraday rotator (230; 430) passing through a thickness of the patch (205; 405), wherein the Faraday rotator (230; 430) is below the photonics die (225; 425). an interposer (202; 402); a patch (205; 405) over the interposer (202; 402), wherein the patch (205; 405) overhangs an edge of the interposer (202; 402); a photonics die (225; 425) on the patch (205; 405); and a Faraday rotator (230; 430) passing through a thickness of the patch (205; 405), wherein the Faraday rotator (230; 430) is below the photonics die (225; 425).
A method for controlling driving of an inkjet head including a plurality of recording elements each including a nozzle through which ink is ejected and a driving element that applies a pressure fluctuation to ink supplied to the nozzle according to an applied driving pulse, wherein a reference pulse width (AL) of the driving pulse that maximizes a predetermined characteristic value related to ink droplets ejected by each of the recording elements according to the driving pulse applied to the driving element with respect to a change in a pulse width of the driving pulse has a variation equal to or greater than a predetermined standard, the driving control method includes a pulse width setting step (S106, S107) in which, when two or more of ink droplets ejected according to a predetermined number of driving pulses are made to land in the same pixel range, a predetermined number of first driving pulses each having a pulse width longer than the reference pulse width (AL) and a predetermined number of second driving pulses each having a pulse width shorter than the reference pulse width (AL) are combined for each of the plurality of recording elements and obtained combinations are respectively output to the plurality of recording elements , wherein the reference pulse width (AL) is equal to the acoustic length of a nozzle, characterised in that in the pulse width setting step (S106, S107), an order of the first driving pulse and the second driving pulse is set such that a pulse width closer to the reference pulse width (AL) corresponding to a minimum one of the maximum characteristic values related to the plurality of recording elements becomes a last driving pulse. wherein a reference pulse width (AL) of the driving pulse that maximizes a predetermined characteristic value related to ink droplets ejected by each of the recording elements according to the driving pulse applied to the driving element with respect to a change in a pulse width of the driving pulse has a variation equal to or greater than a predetermined standard, the driving control method includes a pulse width setting step (S106, S107) in which, when two or more of ink droplets ejected according to a predetermined number of driving pulses are made to land in the same pixel range, a predetermined number of first driving pulses each having a pulse width longer than the reference pulse width (AL) and a predetermined number of second driving pulses each having a pulse width shorter than the reference pulse width (AL) are combined for each of the plurality of recording elements and obtained combinations are respectively output to the plurality of recording elements , wherein the reference pulse width (AL) is equal to the acoustic length of a nozzle, characterised in that in the pulse width setting step (S106, S107), an order of the first driving pulse and the second driving pulse is set such that a pulse width closer to the reference pulse width (AL) corresponding to a minimum one of the maximum characteristic values related to the plurality of recording elements becomes a last driving pulse.
Method for controlling a wireless access point , executed by a control device , comprising: - receiving (S1), from a target wireless access point , management data representative of, for respective wireless end points associated with the target wireless access point , a received signal strength and a number of retransmissions associated with said wireless end point and of, for respective neighboring wireless access points detected by the target wireless access point , an ID, a received signal strength and a channel used associated with said neighboring wireless access point , - identifying (S2) at least one wireless end point affected by a hidden node problem based on the corresponding received signal strength and number of retransmissions, and obtaining, from the identified wireless end points , management data specifying IDs associated with neighboring wireless access points detected by the identified wireless end points , - identifying (S3) at least one potential hidden node based on the channel used and the received signal strength of a detected neighboring wireless access points , - identifying (S4) a hidden node wireless access point in response to determining that said hidden node wireless access point is one of the wireless access points detected by the wireless end point identified as affected by a hidden node problem and one of the identified potential hidden nodes. - receiving (S1), from a target wireless access point , management data representative of, for respective wireless end points associated with the target wireless access point , a received signal strength and a number of retransmissions associated with said wireless end point and of, for respective neighboring wireless access points detected by the target wireless access point , an ID, a received signal strength and a channel used associated with said neighboring wireless access point , - identifying (S2) at least one wireless end point affected by a hidden node problem based on the corresponding received signal strength and number of retransmissions, and obtaining, from the identified wireless end points , management data specifying IDs associated with neighboring wireless access points detected by the identified wireless end points , - identifying (S3) at least one potential hidden node based on the channel used and the received signal strength of a detected neighboring wireless access points , - identifying (S4) a hidden node wireless access point in response to determining that said hidden node wireless access point is one of the wireless access points detected by the wireless end point identified as affected by a hidden node problem and one of the identified potential hidden nodes.
A patient support apparatus comprising a base having a variable length; a pair of telescopic lifts extending upwardly from the base; an upper frame supported on the telescopic lifts , the upper frame movable between a chair configuration and a bed configuration; and a pair of independent drive wheels positioned on lateral sides of the base , each of the drive wheels receiving an independent input from a patient supported on the patient support apparatus and responsive to the independent input from the patient to drive each of the drive wheels to move and control the direction of movement of the patient support apparatus over a floor supporting the patient support apparatus , wherein each drive wheel has a respective independent user input device accessible to the patient and connected to the respective drive wheel , the respective drive wheel responsive to a force applied to the respective user input device associated with the drive wheel . a base having a variable length; a pair of telescopic lifts extending upwardly from the base; an upper frame supported on the telescopic lifts , the upper frame movable between a chair configuration and a bed configuration; and a pair of independent drive wheels positioned on lateral sides of the base , each of the drive wheels receiving an independent input from a patient supported on the patient support apparatus and responsive to the independent input from the patient to drive each of the drive wheels to move and control the direction of movement of the patient support apparatus over a floor supporting the patient support apparatus , wherein each drive wheel has a respective independent user input device accessible to the patient and connected to the respective drive wheel , the respective drive wheel responsive to a force applied to the respective user input device associated with the drive wheel .
A press for producing a pellet of a powdered material, comprising - a press frame with an upper and a lower retaining plate , which are connected to one another by several vertical spacers and with at least one supporting element , which is disposed between the upper and the lower retaining plate , - a tool guiding unit with at least one upper punch unit with at least an upper press punch and/or with at least one lower punch unit with at least one lower press punch and with a die assembly with at least one holder for the powdered material, which is to be pressed by the upper and/or lower press punches, wherein the tool guiding unit is disposed at the supporting element , and wherein the die assembly and the supporting element of the press frame are disposed in the same location plane or in location planes at a slight distance from one another, - at least one upper drive unit for moving the upper punch unit in the vertical direction and/or at least one lower drive unit for moving the lower punch unit and/or the die assembly in the vertical direction, wherein the upper drive unit and/or the lower drive unit are supported at the supporting element during the operation of the press, such that the reaction forces, which are generated by the pressing forces, produced during the pressing of the powdered material in the at least one holder, are generated as action forces, are passed into the supporting element. - a press frame with an upper and a lower retaining plate , which are connected to one another by several vertical spacers and with at least one supporting element , which is disposed between the upper and the lower retaining plate , - a tool guiding unit with at least one upper punch unit with at least an upper press punch and/or with at least one lower punch unit with at least one lower press punch and with a die assembly with at least one holder for the powdered material, which is to be pressed by the upper and/or lower press punches, wherein the tool guiding unit is disposed at the supporting element , and wherein the die assembly and the supporting element of the press frame are disposed in the same location plane or in location planes at a slight distance from one another, - at least one upper drive unit for moving the upper punch unit in the vertical direction and/or at least one lower drive unit for moving the lower punch unit and/or the die assembly in the vertical direction, wherein the upper drive unit and/or the lower drive unit are supported at the supporting element during the operation of the press, such that the reaction forces, which are generated by the pressing forces, produced during the pressing of the powdered material in the at least one holder, are generated as action forces, are passed into the supporting element.
A solar selective coating for a metal substrate comprising at least one absorber layer and at least one semi-absorber layer selected from the structures of AlTiN and AlTiSiN, wherein the absorber and semi-absorber layers have different elemental ratios, and wherein; the composition of the absorber layer has the following components; - Al; 25-40 at %, - Ti; 15-40 at %, - N; 20-45 at. %, and - Si; 0.5-5 at %, if AlTiSiN is used in the absorber layer, and the composition of the semi-absorber layer has the following components; - Al; 20-35 at %, - Ti; 1-15 at. %, - N; 40-80 at %, - Si; 0.5-5 at %, if AlTiSiN is used in the semi-absorber layer. the composition of the absorber layer has the following components; - Al; 25-40 at %, - Ti; 15-40 at %, - N; 20-45 at. %, and - Si; 0.5-5 at %, if AlTiSiN is used in the absorber layer, - Al; 25-40 at %, - Ti; 15-40 at %, - N; 20-45 at. %, and - Si; 0.5-5 at %, if AlTiSiN is used in the absorber layer, and the composition of the semi-absorber layer has the following components; - Al; 20-35 at %, - Ti; 1-15 at. %, - N; 40-80 at %, - Si; 0.5-5 at %, if AlTiSiN is used in the semi-absorber layer. - Al; 20-35 at %, - Ti; 1-15 at. %, - N; 40-80 at %, - Si; 0.5-5 at %, if AlTiSiN is used in the semi-absorber layer.