mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a wind power installation for generating electrical power from wind, wherein the wind power installation is operated selectively in a first or a second operating mode, and the wind power installation in the first operating mode generates as much electrical power (P 1 ) as is possible on the basis of the prevailing wind and the design of the wind power installation, and the wind power installation in the second operating mode generates less electrical power (P 2 ) than in the first operating mode, wherein the wind power installation is controlled in the first operating mode with a first adjustment parameter set and in the second operating mode with a second adjustment parameter set different from the first adjustment parameter set, wherein the first and second parameter set specifies a first and a second rotary speed power characteristic respectively, wherein the power which can be generated with the first adjustment parameter set and which is associated with the second adjustment parameter is previously obtained entirely or partially by comparative measurements, interpolation and/or extrapolation and a measurement is effected in respect of the installation performance with the first adjustment parameter set and with the second adjustment parameter set as the wind power installation is successively operated both with the first and with the second adjustment parameter set under identical wind conditions and when the wind power installation is operated in the second operating mode the power which can be generated at a maximum with the first adjustment parameter set or a differential power (ΔP) as the difference between that maximum power which can be generated and the power currently generated in the second operating mode, in dependence on the second adjustment parameter set, is ascertained, and/or the second adjustment parameter set is selected in dependence on a desired power reduction by which a power (P) to be generated by the wind power installation is to be lower with respect to the power which can be generated at the maximum by the wind power installation in the first operating mode.
A method of communication traffic management on a portable communication device having a computer processor and a network connection to a computer server for transmitting (420;515, 550) or receiving (425, 440; 525, 545) data with the processor over a network , the method comprising: identifying, by a traffic manager application running on the processor , a first application running on the processor and delivering (420; 515) first data to or from the server over the network ; and intercepting, by the traffic manager application , electronic traffic (410, 420; 510, 515, 550) of the first data to or from the first application ; characterized by controlling, by the traffic manager application , a rate of delivery (425, 435, 440; 520, 540) of the first data to or from the first application over a data path internal to the portable communication device between the first application and the traffic manager application . identifying, by a traffic manager application running on the processor , a first application running on the processor and delivering (420; 515) first data to or from the server over the network ; and intercepting, by the traffic manager application , electronic traffic (410, 420; 510, 515, 550) of the first data to or from the first application ; characterized by controlling, by the traffic manager application , a rate of delivery (425, 435, 440; 520, 540) of the first data to or from the first application over a data path internal to the portable communication device between the first application and the traffic manager application .
A transparent film for a face protection shield comprising: a transparent base material having flexibility; and a transparent resin layer configured to be laminated on at least one of surfaces of the transparent base material , the transparent resin layer having on a surface a plurality of structural bodies including concavities or convexities provided at a pitch of less than or equal to a visible light wavelength, wherein a refractive index of the transparent base material is different from a refractive index of the transparent resin layer , an interface between the transparent base material and the transparent resin layer has a concave-convex shape, and the concave-convex shape has a pitch of the concavities and convexities which is more than or equal to 100 times the length of the pitch of the arrangement pattern of the structural bodies . a transparent base material having flexibility; and a transparent resin layer configured to be laminated on at least one of surfaces of the transparent base material , the transparent resin layer having on a surface a plurality of structural bodies including concavities or convexities provided at a pitch of less than or equal to a visible light wavelength, wherein a refractive index of the transparent base material is different from a refractive index of the transparent resin layer , an interface between the transparent base material and the transparent resin layer has a concave-convex shape, and the concave-convex shape has a pitch of the concavities and convexities which is more than or equal to 100 times the length of the pitch of the arrangement pattern of the structural bodies .
An apparatus for solidifying a polar substance, in particular water, the apparatus comprising a) a container , said container comprising i) a supply volume for containing the polar substance in liquid form, ii) an evaporation volume for retaining evaporated substance from the supply volume , iii) a hydrophobic condensation surface located within the evaporation volume , b) means for cooling the hydrophobic condensation surface to a temperature T cond below a solidification temperature T solid of the polar substance, c) means for removing solidified polar substance from the container , in particular from the supply volume of the container , characterized in that d) the hydrophobic condensation surface is oleophilic, preferably super-oleophilic. a) a container , said container comprising i) a supply volume for containing the polar substance in liquid form, ii) an evaporation volume for retaining evaporated substance from the supply volume , iii) a hydrophobic condensation surface located within the evaporation volume , i) a supply volume for containing the polar substance in liquid form, ii) an evaporation volume for retaining evaporated substance from the supply volume , iii) a hydrophobic condensation surface located within the evaporation volume , b) means for cooling the hydrophobic condensation surface to a temperature T cond below a solidification temperature T solid of the polar substance, c) means for removing solidified polar substance from the container , in particular from the supply volume of the container , characterized in that d) the hydrophobic condensation surface is oleophilic, preferably super-oleophilic.
An additive composition for a tile cement mortar, the additive composition comprising: cellulose ether and urea, wherein the amount of the urea is from 5 parts by weight to 43 parts by weight based on 100 parts by weight of the cellulose ether, wherein the cellulose ether comprises hydroxypropylmethylcellulose, hydroxyethylmethylcellulose, hydroxyethylethylcellulose, or a combination thereof. cellulose ether and urea, wherein the amount of the urea is from 5 parts by weight to 43 parts by weight based on 100 parts by weight of the cellulose ether, wherein the cellulose ether comprises hydroxypropylmethylcellulose, hydroxyethylmethylcellulose, hydroxyethylethylcellulose, or a combination thereof.
An image forming apparatus comprising: a motor ; a development cartridge , which is attachable to a main body ; a driving gear rotated by the motor and to engage with a developer roller gear of the development cartridge when the development cartridge is attached to the main body of the image forming apparatus; and a driving coupler located coaxially with the driving gear and to engage, based on a shaft connection method, with a driven coupler of a photosensitive drum of the development cartridge when the development cartridge is attached to the main body ; wherein the developer roller gear is provided on a rotatable shaft of a developer roller of the development cartridge , wherein the photosensitive drum and the developer roller are individually connected to a driver provided in the main body when the development cartridge is attached to the main body , and wherein the shaft connection method refers to a method of directly connecting a shaft to a shaft. a motor ; a development cartridge , which is attachable to a main body ; a driving gear rotated by the motor and to engage with a developer roller gear of the development cartridge when the development cartridge is attached to the main body of the image forming apparatus; and a driving coupler located coaxially with the driving gear and to engage, based on a shaft connection method, with a driven coupler of a photosensitive drum of the development cartridge when the development cartridge is attached to the main body ; wherein the developer roller gear is provided on a rotatable shaft of a developer roller of the development cartridge , wherein the photosensitive drum and the developer roller are individually connected to a driver provided in the main body when the development cartridge is attached to the main body , and wherein the shaft connection method refers to a method of directly connecting a shaft to a shaft.
Drone for combating a target using a shaped HPEM pulse , - wherein the drone is configured for a flight along a direction of gravity , - comprising a landing gear , which is configured for carrying the rest of the drone in an intended landing state (ZL), - comprising an HPEM source for emitting the unshaped HPEM pulse , - wherein at least in a working state (ZA) of the drone : - the drone contains a horn , which is connected, in radiation terms, downstream of the HPEM source and which is configured to guide the unshaped HPEM pulse that has been emitted from the HPEM source into the horn and to emit it again in a beam direction as a shaped HPEM pulse , characterized in that - at least part of the horn is formed by at least part of the landing gear . - wherein the drone is configured for a flight along a direction of gravity , - comprising a landing gear , which is configured for carrying the rest of the drone in an intended landing state (ZL), - comprising an HPEM source for emitting the unshaped HPEM pulse , - wherein at least in a working state (ZA) of the drone : - the drone contains a horn , which is connected, in radiation terms, downstream of the HPEM source and which is configured to guide the unshaped HPEM pulse that has been emitted from the HPEM source into the horn and to emit it again in a beam direction as a shaped HPEM pulse , characterized in that - at least part of the horn is formed by at least part of the landing gear .
A flow cell assembly for use in an NMR spectrometer for performing NMR measurements on a liquid NMR sample , the assembly comprising - a flow cell for receiving the NMR sample , the flow cell forming a first opening at a first end of the flow cell and a second opening at a second end, and the flow cell being substantially hollow-cylindrical along a longitudinal axis (A L ), and - a connecting piece for connecting a flow line to the flow cell in a fluid-tight manner, the connecting piece being arranged at the first opening of the flow cell , wherein a sealing head of the connecting piece is arranged in the first opening of the flow cell , and wherein a sealing head diameter d dicht of the sealing head of the connecting piece is larger than an opening diameter d off of the first opening of the flow cell , characterized in that the hollow-cylindrical flow cell has a cross-section which continuously tapers in the region of the first opening along the longitudinal axis (A L ) such that the opening diameter d off of the first opening of the flow cell is smaller than an inner flow cell diameter d inn . - a flow cell for receiving the NMR sample , the flow cell forming a first opening at a first end of the flow cell and a second opening at a second end, and the flow cell being substantially hollow-cylindrical along a longitudinal axis (A L ), and - a connecting piece for connecting a flow line to the flow cell in a fluid-tight manner, the connecting piece being arranged at the first opening of the flow cell , wherein a sealing head of the connecting piece is arranged in the first opening of the flow cell , and wherein a sealing head diameter d dicht of the sealing head of the connecting piece is larger than an opening diameter d off of the first opening of the flow cell ,
A base station , wherein the base station comprises a processor , a memory , and a transceiver , the memory is configured to store at least one instruction, and as configured, the instruction is executed by the processor; the processor is configured to allocate a same uplink shared resource to m user equipments, UEs, wherein m≥2; the processor is further configured to control the transceiver to receive uplink data on the uplink shared resource, wherein the uplink data comprises an identifier of UE, identifiers of different UEs represent the different UEs, and the UE represented by the identifier of the UE is at least one of the m UEs; the processor is further configured to determine n UEs, wherein uplink data of the n UEs is successfully received, and m≥n≥1; wherein x pieces of the uplink data comprise buffer status information of the UE, n>x≥1, and the buffer status information of the UE is used to indicate information about remaining to-be-sent data; the processor is configured to obtain, by means of decoding, the identifiers of the n UEs and buffer status information corresponding to x UEs; the processor is configured to generate x uplink scheduling grants respectively corresponding to the x UEs, wherein the x uplink scheduling grants are generated according to the buffer status information of the x UEs; the processor is further configured to generate feedback information, wherein the feedback information comprises n identifiers and the x uplink scheduling grants corresponding to the x UEs, and different identifiers represent different UEs; the processor is further configured to control the transceiver to send the feedback information by using a Media Access Control protocol data unit, MAC PDU; and the processor is configured to generate the feedback information, wherein the feedback information comprises a quantity of significant bits, a bit mapping sequence, the n identifiers, and the x uplink scheduling grants; the quantity of significant bits is used to indicate a quantity of significant bits in the bit mapping sequence; the bit mapping sequence is a bit sequence with a fixed bit quantity; and when the i th bit in the bit mapping sequence is a first value and is significant, it indicates that the i th identifier of UE in the feedback information is followed by the corresponding uplink scheduling grant with a fixed bit quantity; or when the i th bit in the bit mapping sequence is a second value and is significant, it indicates that the i th identifier of UE in the feedback information is not followed by the corresponding uplink scheduling grant with a fixed bit quantity, wherein the first value is 0 and the second value is 1, or the first value is 1 and the second value is 0.
An apparatus (530; 630) for performing cardiac valve repairs, comprising: a handle (535; 635); an actuator operably coupled to the handle (535; 635); a pusher device (537; 637) defining a lumen; a puncture member (541; 641) coupled to the actuator and at least partially disposed within the lumen of the pusher device (537; 637); and an artificial chordae (542; 642) having a distal end portion and a proximal end portion, the distal end portion defining a distal anchor (540; 640) having a delivery configuration and a deployed configuration, and the proximal end portion extending through a lumen of the puncture member (541; 641), wherein the distal anchor (540; 640) is disposed in an elongated coiled configuration when in the delivery configuration and in a coiled knot configuration when in the deployed configuration, characterised in that the proximal end of the artificial chordae (542; 642) is coupled to the handle (535; 635), and the actuator is configured to be actuated such that the puncture member (541; 641) is moved distally a preset distance, and the pusher device (537; 637) is moved distally such that the distal anchor (540; 640) is (a) moved distal to a distal end (547; 647) of the puncture member (541; 641), and (b) moved from the delivery configuration to the deployed configuration. a handle (535; 635); an actuator operably coupled to the handle (535; 635); a pusher device (537; 637) defining a lumen; a puncture member (541; 641) coupled to the actuator and at least partially disposed within the lumen of the pusher device (537; 637); and an artificial chordae (542; 642) having a distal end portion and a proximal end portion, the distal end portion defining a distal anchor (540; 640) having a delivery configuration and a deployed configuration, and the proximal end portion extending through a lumen of the puncture member (541; 641), wherein the distal anchor (540; 640) is disposed in an elongated coiled configuration when in the delivery configuration and in a coiled knot configuration when in the deployed configuration, characterised in that the proximal end of the artificial chordae (542; 642) is coupled to the handle (535; 635), and the actuator is configured to be actuated such that the puncture member (541; 641) is moved distally a preset distance, and the pusher device (537; 637) is moved distally such that the distal anchor (540; 640) is (a) moved distal to a distal end (547; 647) of the puncture member (541; 641), and (b) moved from the delivery configuration to the deployed configuration.
A method for exchanging heat with an object said method comprising removing excess heat generated by the functioning of electrical or electronic equipment using a heat transfer fluid wherein said heat transfer fluid comprises one or more chemical compounds having the general formula: R f -O-CF 2 -O-CX=CYZ (I) wherein: - R f can be any C 2 -C 6 linear, branched or C 5 C 6 cyclic saturated carbon chain which can be partially or fully fluorinated, and can comprise 0-5 Oxygen atoms which, when present, are all engaged in ether bonds - X, Y and Z can be independently selected from halogens or hydrogen, with the proviso that at least one of X, Y or Z is a halogen. - R f can be any C 2 -C 6 linear, branched or C 5 C 6 cyclic saturated carbon chain which can be partially or fully fluorinated, and can comprise 0-5 Oxygen atoms which, when present, are all engaged in ether bonds - X, Y and Z can be independently selected from halogens or hydrogen, with the proviso that at least one of X, Y or Z is a halogen.
Apparatus for providing cardiopulmonary resuscitation by applying compressions to the chest of a patient (P), said apparatus comprising - a chest compression unit , in particular comprising an automatic actuation, - at least one band to be passed around said patient's chest and for maintaining the chest compression unit in position on the patient's chest, wherein at least one end of the band is releasably connectable to the unit , characterized in that the apparatus comprises an application aid in functional connection or connectable with the band , wherein the band is received by said application aid and said application aid being movable relative to the band and enforces the band to allow pushing the band underneath said patient's chest, in particular on the side where said patient contacts the ground G, wherein the application aid is stiffer than the band and the application aid is sleeve like. - a chest compression unit , in particular comprising an automatic actuation, - at least one band to be passed around said patient's chest and for maintaining the chest compression unit in position on the patient's chest, wherein at least one end of the band is releasably connectable to the unit , characterized in that the apparatus comprises an application aid in functional connection or connectable with the band , wherein the band is received by said application aid and said application aid being movable relative to the band and enforces the band to allow pushing the band underneath said patient's chest, in particular on the side where said patient contacts the ground G, wherein the application aid is stiffer than the band and the application aid is sleeve like.
A method for a joint multi-carrier operation of narrowband Internet-of-Things, NB-IoT, in both licensed and unlicensed frequency spectrum by extending the existing NB-IoT standard Release 14 in licensed spectrum by additional uplink and/or downlink NB-IoT carriers operating in unlicensed spectrum, wherein additional data depending on a scheduled medium access procedure is added to configuration data which is broadcasted by a base station for ensuring regulatory compliance during operation on both the UE and base station side, wherein the scheduled medium access procedure is based on listen-before-talk, LBT, wherein both the uplink and optionally the downlink are scheduled in unlicensed spectrum, wherein uplink transmissions on narrowband physical uplink shared channel, NPUSCH, are scheduled by the base station, wherein the UE processes the LBT procedure within a defined NPUSCH LBT window on frequency resources assigned by the base station in order to prevent any blocking due to other UEs scheduled simultaneously on different sub-carriers.
A trolley of a crane, arranged to move along a main support structure of the crane, whereby the trolley (1; 100; 200; 300; 400) comprises a support frame structure (3; 103; 203; 303; 403); bearing wheels which are fastened to the support frame structure and by means of which the trolley is arranged to move along said main support structure;. a hoisting mechanism that has a rope drum for a hoisting rope , a rope pulley arrangement which has upper and lower rope pulley arrangements and through which the hoisting rope may be guided from the rope drum to a fixed fastening point (X) on the trolley, and a hoisting member in cooperation with the hoisting rope for hoisting a load. whereby the rope drum is supported to the support frame structure of the trolley so that the axle of the rope drum is parallel to the main support structure; whereby the rope pulley arrangement is located, in the axial direction of the rope drum , at least partly outside the rope drum end which is on the side of said fastening point (X); characterised in that the support frame structure (3; 103; 203; 303; 403) is divided into two separate frame parts, that is, a first frame part (3a; 103a; 203a; 303a; 403a) and a second frame part (3b; 103b; 203b; 303b; 403b), whereby the first frame part supports the rope pulley arrangement and the rope drum end on the side thereof, and whereby the second frame part supports the opposite end of the rope drum.