mhurhangee/patent-ind-claim-en huggingface dataset:
Method for treating thermal bridges between a pre-slab floor (1; 101) and a wall (2; 102; 202) adjacent to the pre-slab floor, the method comprising the steps of: - bringing thermal insulation elements (6; 106; 206; 306) and structural connection elements (7; 107; 207; 307) of the floor close to a portion of the wall, substantially at the level where a compression slab (9; 109) of the floor must be cast, in such a way as to arrange a thermal insulation element and a structural connection element in an alternating manner along the portion of the wall, each thermal insulation element comprising a block of thermally insulating material and each structural connection element comprising a concrete block (28; 128; 228; 328) comprising reinforcements (29; 129; 229; 329) extending through the concrete block so as to project from either side of the concrete block, each structural connection element being arranged along the wall such that first reinforcements projecting from one side of the concrete block are positioned above the portion of the wall and such that second reinforcements projecting from the other side of the concrete block are positioned at the level of the future compression slab and above a concrete body of a pre-slab of the pre-slab floor, - casting concrete in order to extend the portion of the wall such that the first reinforcements are embedded in the concrete of the extension of the wall and casting the concrete in order to form the compression slab of the pre-slab floor such that the second projecting reinforcements are embedded in the concrete of the compression slab of the pre-slab floor. - bringing thermal insulation elements (6; 106; 206; 306) and structural connection elements (7; 107; 207; 307) of the floor close to a portion of the wall, substantially at the level where a compression slab (9; 109) of the floor must be cast, in such a way as to arrange a thermal insulation element and a structural connection element in an alternating manner along the portion of the wall, each thermal insulation element comprising a block of thermally insulating material and each structural connection element comprising a concrete block (28; 128; 228; 328) comprising reinforcements (29; 129; 229; 329) extending through the concrete block so as to project from either side of the concrete block, each structural connection element being arranged along the wall such that first reinforcements projecting from one side of the concrete block are positioned above the portion of the wall and such that second reinforcements projecting from the other side of the concrete block are positioned at the level of the future compression slab and above a concrete body of a pre-slab of the pre-slab floor, - casting concrete in order to extend the portion of the wall such that the first reinforcements are embedded in the concrete of the extension of the wall and casting the concrete in order to form the compression slab of the pre-slab floor such that the second projecting reinforcements are embedded in the concrete of the compression slab of the pre-slab floor.
A refrigerator comprising a body ; a door ; and a door shelf placed onto the door and having a shelf body with open base having two opposite side walls and a front wall extending between the side walls , the door shelf further having an inner receptacle which is placed into the shelf body , which is suitable for being moved vertically in the shelf body and which has a base , two side supports which extend perpendicular to the base from the two sides of the base and a front support which extends between the side supports , characterized by a plurality of carrier members which are oppositely arranged on the side walls and which are positioned one above the other in the vertical direction; and at least two holders which are provided on the side supports and which each have at least one housing engaging with the aligning carrier members at the level of the inner receptacle and enabling the position of the inner receptacle on the shelf body to be fixed.
An optical device having a surface for transmitting light energy, the device comprising: an electronic structure having a plurality of energy transfer regions , wherein the electronic structure exhibits an electronic band gap with an associated energy; a plurality of cavities extending from the surface of the device through the electronic structure and penetrating the respective energy transfer regions, each cavity having a predetermined cross-sectional shape with one or more corresponding sidewalls extending from the surface of the device through the electronic structure; and, a plurality of optically responsive particles , said particles disposed on one or more sidewalls of each cavity in close spatial proximity to the respective energy transfer region, wherein the optically responsive particles are adapted for: emitting light energy towards the surface of the device via a respective cavity; and, energy transfer with the respective energy transfer region using a non-radiative energy transfer mechanism, wherein the electronic band gap energy of the electronic structure is greater than an electronic band gap energy of each optically responsive particle whereby, when an electric potential is applied to the electronic structure, energy is transferred non-radiatively to the optically responsive particles from the electronic structure via the respective energy transfer region through non-contact dipole-dipole interaction and is emitted as light energy by the optically responsive particles. an electronic structure having a plurality of energy transfer regions , wherein the electronic structure exhibits an electronic band gap with an associated energy; a plurality of cavities extending from the surface of the device through the electronic structure and penetrating the respective energy transfer regions, each cavity having a predetermined cross-sectional shape with one or more corresponding sidewalls extending from the surface of the device through the electronic structure; and, a plurality of optically responsive particles , said particles disposed on one or more sidewalls of each cavity in close spatial proximity to the respective energy transfer region, wherein the optically responsive particles are adapted for: emitting light energy towards the surface of the device via a respective cavity; and, energy transfer with the respective energy transfer region using a non-radiative energy transfer mechanism, emitting light energy towards the surface of the device via a respective cavity; and, energy transfer with the respective energy transfer region using a non-radiative energy transfer mechanism, wherein the electronic band gap energy of the electronic structure is greater than an electronic band gap energy of each optically responsive particle whereby, when an electric potential is applied to the electronic structure, energy is transferred non-radiatively to the optically responsive particles from the electronic structure via the respective energy transfer region through non-contact dipole-dipole interaction and is emitted as light energy by the optically responsive particles.
An in-cell touch panel, comprising: a first substrate and a second substrate arranged opposite to each other, and a touch detection chip , the in-cell touch panel further comprising a common electrode layer disposed on one side of the first substrate facing the second substrate , wherein the common electrode layer includes a plurality of mutually independent self-capacitance electrodes and a plurality of leads configured to connect the self-capacitance electrodes to the touch detection chip ; the touch detection chip is configured to apply common electrode signals to the self-capacitance electrodes in a display period; each lead is electrically connected with two mutually separated self-capacitance electrodes , and the self-capacitance electrodes electrically connected with different leads are not overlapped with each other; and the touch detection chip is configured to determine a touch position by determination of capacitance variation of adjacent self-capacitance electrodes connected with different leads in a touch period.
A cutter for cutting an implant , characterized by : a gearbox ; a primary milling bit , a secondary milling bit and a lead screw spaced apart along a substantially linear path and operatively coupled to the gearbox; an input coupling coupled to the primary milling bit; and an implant coupler coupled to the lead screw, wherein the gearbox is operable to translate with respect to the lead screw and to drive the secondary milling bit in response to a rotational driving force applied to the input coupling, wherein the gearbox comprises: a translation drive assembly operable to translate the gearbox with respect to the lead screw in response to the rotational driving force applied to the input coupling, and a milling drive assembly operable to drive the secondary milling bit in response to the rotational driving force applied to the input coupling. a gearbox ; a primary milling bit , a secondary milling bit and a lead screw spaced apart along a substantially linear path and operatively coupled to the gearbox; an input coupling coupled to the primary milling bit; and an implant coupler coupled to the lead screw, wherein the gearbox is operable to translate with respect to the lead screw and to drive the secondary milling bit in response to a rotational driving force applied to the input coupling, wherein the gearbox comprises: a translation drive assembly operable to translate the gearbox with respect to the lead screw in response to the rotational driving force applied to the input coupling, and a milling drive assembly operable to drive the secondary milling bit in response to the rotational driving force applied to the input coupling. a translation drive assembly operable to translate the gearbox with respect to the lead screw in response to the rotational driving force applied to the input coupling, and a milling drive assembly operable to drive the secondary milling bit in response to the rotational driving force applied to the input coupling.
Device for recovering heat from a liquid medium (G), comprising: - a heat exchanger having at least two heat-exchanger cells (3.1, 3.2, 3.3, 3.4) which are at least partially thermally separated from one another and which serve for receiving the liquid medium (G), wherein each of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) has a temperature sensor for ascertaining a temperature of the liquid medium (G) which is situated therein, - at least one pipeline (4, 4.1) for conducting drinking water and/or heating water, which at least one pipeline passes through at least one of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4), - a feed line in which the liquid medium (G) is conducted, - a distributor device by means of which the liquid medium (G) is selectively suppliable to the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) from the feed line , - at least one temperature sensor for measuring a temperature of the liquid medium (G) in the feed line , wherein the distributor device is open loop and/or closed loop controllable in such a way that the liquid medium (G) is fed from the feed line to that heat-exchanger cell (3.1, 3.2, 3.3, 3.4) whose present temperature is the least colder than that of the liquid medium (G) in the feed line , characterized in that a further pipeline (4.1) is provided as a return line of a heating installation, which passes through the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) from bottom to top, wherein, between the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) and above the uppermost heat-exchanger cell (3.1), the pipeline (4.1) is connected via connecting pipes in each case to a supply line , wherein, in the connecting pipes , controllable flaps are provided by means of which a predefined supply temperature is settable in the supply line . - a heat exchanger having at least two heat-exchanger cells (3.1, 3.2, 3.3, 3.4) which are at least partially thermally separated from one another and which serve for receiving the liquid medium (G), wherein each of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) has a temperature sensor for ascertaining a temperature of the liquid medium (G) which is situated therein, - at least one pipeline (4, 4.1) for conducting drinking water and/or heating water, which at least one pipeline passes through at least one of the heat-exchanger cells (3.1, 3.2, 3.3, 3.4), - a feed line in which the liquid medium (G) is conducted, - a distributor device by means of which the liquid medium (G) is selectively suppliable to the heat-exchanger cells (3.1, 3.2, 3.3, 3.4) from the feed line , - at least one temperature sensor for measuring a temperature of the liquid medium (G) in the feed line ,
A method for manufacturing a row of artificial eyelashes, having at least the two following steps of: (a) knitting an assembly for forming rows of artificial eyelashes to be fixed to the edge of an eyelid, this assembly having at least two base parts , at least one of which is intended to be fixed to the edge of an eyelid, which are disposed parallel and symmetrically to one another with respect to a median plane (P), and false eyelashes , each base part having a first chain-stitch knitted warp thread forming stitches, the false eyelashes passing through the chain stitches without being tied thereto, and a second chain-stitch knitted warp thread forming stitches, the false eyelashes passing through the chain stitches without being tied thereto, and (b) curving the row of artificial eyelashes and/or the base part and/or the false eyelashes by applying a mechanical load in the presence of an energy stimulus causing the material of the false eyelashes to heat up, in particular by applying ultrasound or high frequencies or by heating, the method is characterized in that , the first and second warp threads are interwoven. (a) knitting an assembly for forming rows of artificial eyelashes to be fixed to the edge of an eyelid, this assembly having at least two base parts , at least one of which is intended to be fixed to the edge of an eyelid, which are disposed parallel and symmetrically to one another with respect to a median plane (P), and false eyelashes , each base part having a first chain-stitch knitted warp thread forming stitches, the false eyelashes passing through the chain stitches without being tied thereto, and a second chain-stitch knitted warp thread forming stitches, the false eyelashes passing through the chain stitches without being tied thereto, and (b) curving the row of artificial eyelashes and/or the base part and/or the false eyelashes by applying a mechanical load in the presence of an energy stimulus causing the material of the false eyelashes to heat up, in particular by applying ultrasound or high frequencies or by heating, the method is characterized in that , the first and second warp threads are interwoven.
A surveying device for performing a survey by tracking a survey target, comprising: a measurer configured to measure a distance to the survey target and horizontal and vertical angles of the survey target; a main body supporting the measurer ; a time obtainer configured to obtain external time information; and tilt sensor configured to detect the tilt of the main body , characterised by a calibrator configured to calibrate the tilt sensor ; and a controller configured to cause the calibrator to perform calibration during a period in which the time obtainer obtains the time information, as advance preparation to be performed before the measurement by the measurer . a measurer configured to measure a distance to the survey target and horizontal and vertical angles of the survey target; a main body supporting the measurer ; a time obtainer configured to obtain external time information; and tilt sensor configured to detect the tilt of the main body , characterised by a calibrator configured to calibrate the tilt sensor ; and a controller configured to cause the calibrator to perform calibration during a period in which the time obtainer obtains the time information, as advance preparation to be performed before the measurement by the measurer .
A wireless communication device for use in a system based on IEEE 802.11, the wireless communication device comprising: means for generating a first packet including a preamble, a Physical Layer Convergence Protocol header, which follows the preamble, and a Physical Layer Service Data Unit; and means for transmitting the packet; characterized in that : the Physical Layer Convergence Protocol header includes information indicating the duration until the transmission from another wireless communication device of a second packet, which is to be transmitted as a result of reception of the first packet, is completed. means for generating a first packet including a preamble, a Physical Layer Convergence Protocol header, which follows the preamble, and a Physical Layer Service Data Unit; and means for transmitting the packet; characterized in that : the Physical Layer Convergence Protocol header includes information indicating the duration until the transmission from another wireless communication device of a second packet, which is to be transmitted as a result of reception of the first packet, is completed.
A solvate of abscisic acid with a N-substituted pyrrolidone of the formula (I) wherein R is a linear or branched, saturated alkyl group with 3 to 6 carbon atoms, more preferably 4 to 5, in particular 4 carbon atoms, wherein the N-substituted pyrrolidone of the formula (I) is preferably N-n-butylpyrrolidone (NBP). wherein R is a linear or branched, saturated alkyl group with 3 to 6 carbon atoms, more preferably 4 to 5, in particular 4 carbon atoms, wherein the N-substituted pyrrolidone of the formula (I) is preferably N-n-butylpyrrolidone (NBP).
A method, comprising: i) providing a plurality of at least 10,000 microfluidic droplets containing cells, at least about 90% of the plurality of droplets containing one cell or no cell; ii) lysing the cells within the plurality of microfluidic droplets to release nucleic acid from the cells; and iii) bonding the released nucleic acid to oligonucleotide tags, a) wherein the oligonucleotide tag uniquely identifies the released nucleic acids from nucleic acids released from other cells by means of a barcode sequence and the tag additionally comprises a primer sequence, b) wherein for at least about 90% of the droplets, the oligonucleotide tag within the droplet is distinguishable from oligonucleotide tags within other droplets of the plurality of droplets, and preferably, c) at least some of the oligonucleotide tags comprise a poly-T sequence, wherein the plurality of droplets is provided by use of a microfluidic device with four inlets for i) oligonucleotide tags, ii) cells, iii) nucleic acid amplification reagents and iv) carrier oil, and one outlet port for droplet collection. i) providing a plurality of at least 10,000 microfluidic droplets containing cells, at least about 90% of the plurality of droplets containing one cell or no cell; ii) lysing the cells within the plurality of microfluidic droplets to release nucleic acid from the cells; and iii) bonding the released nucleic acid to oligonucleotide tags, a) wherein the oligonucleotide tag uniquely identifies the released nucleic acids from nucleic acids released from other cells by means of a barcode sequence and the tag additionally comprises a primer sequence, b) wherein for at least about 90% of the droplets, the oligonucleotide tag within the droplet is distinguishable from oligonucleotide tags within other droplets of the plurality of droplets, and preferably, c) at least some of the oligonucleotide tags comprise a poly-T sequence, wherein the plurality of droplets is provided by use of a microfluidic device with four inlets for i) oligonucleotide tags, ii) cells, iii) nucleic acid amplification reagents and iv) carrier oil, and one outlet port for droplet collection. a) wherein the oligonucleotide tag uniquely identifies the released nucleic acids from nucleic acids released from other cells by means of a barcode sequence and the tag additionally comprises a primer sequence, b) wherein for at least about 90% of the droplets, the oligonucleotide tag within the droplet is distinguishable from oligonucleotide tags within other droplets of the plurality of droplets, and preferably, c) at least some of the oligonucleotide tags comprise a poly-T sequence, wherein the plurality of droplets is provided by use of a microfluidic device with four inlets for i) oligonucleotide tags, ii) cells, iii) nucleic acid amplification reagents and iv) carrier oil, and one outlet port for droplet collection.
A pharmaceutical composition for use in a method of treating a cognitive disorder selected from the group consisting of an agnosia, an amnesia, an aphasia, an apraxia, a delirium, a dementia and a learning disorder comprising: (i) the cholinesterase inhibitor physostigmine, and (ii) a compound of Formula I or a pharmaceutically acceptable salt thereof (i) the cholinesterase inhibitor physostigmine, and (ii) a compound of Formula I or a pharmaceutically acceptable salt thereof
A solid electrolyte having a melilite structure and a composition represented by the following expression ; La 2-y M y X 3-z Mg z O 7+α ··· , where M represents an alkaline earth metal element other than Mg, X represents a trivalent metal element, 0 < y < 2, 0 < z < 3, and α represents a value retaining electrical neutrality. M represents an alkaline earth metal element other than Mg, X represents a trivalent metal element, 0 < y < 2, 0 < z < 3, and α represents a value retaining electrical neutrality.
Sinusoidal pump - having a pump housing which has a cover a rear wall and a lateral wall arranged between them, - having a rotor which is co-rotationally connected to a drive shaft that can be connected to a motor drive, and which has a radially projecting rotor collar rotating in a wave shape, - having two boundary surfaces of the rotor collar , which delimit the rotor collar on both sides in the axial direction and leave a pump channel free between them, - having an inlet and an outlet for the pump channel , - having a sealing slide (50, 50.2) that is adjustable in the axial direction , rests in a sealing manner on both sides in the axial direction between the two boundary surfaces of the rotor collar and subdivides the pump channel between the inlet and the outlet , - having a slide guide (52, 52.2), on which the sealing slide (50, 50.2) rests in a sealing manner and can be adjusted in the axial direction by means of the rotation of the rotor collar , - characterized in that - the pump housing has a recess , - the slide guide (52, 52.2) is inserted into this recess in a fixed position. - having a pump housing which has a cover a rear wall and a lateral wall arranged between them, - having a rotor which is co-rotationally connected to a drive shaft that can be connected to a motor drive, and which has a radially projecting rotor collar rotating in a wave shape, - having two boundary surfaces of the rotor collar , which delimit the rotor collar on both sides in the axial direction and leave a pump channel free between them, - having an inlet and an outlet for the pump channel , - having a sealing slide (50, 50.2) that is adjustable in the axial direction , rests in a sealing manner on both sides in the axial direction between the two boundary surfaces of the rotor collar and subdivides the pump channel between the inlet and the outlet , - having a slide guide (52, 52.2), on which the sealing slide (50, 50.2) rests in a sealing manner and can be adjusted in the axial direction by means of the rotation of the rotor collar , - characterized in that - the pump housing has a recess , - the slide guide (52, 52.2) is inserted into this recess in a fixed position.