mhurhangee/ep-ind-claims huggingface dataset:
Isolator switch, in particular rapid-action isolator switch, comprising a first conductor piece, a second conductor piece and a third conductor piece which connects the first and the second conductor piece (12, 14) in a first position, wherein the third conductor piece is centrally fastened to a first shaft of a first rotary drive, characterized in that a connection between two conductor pieces (12, 14, 22) comprises two connecting elements (30, 36) which are connected by means of a tongue-and-groove connection which is designed with an interference fit, wherein the first of the connecting elements is connected to one of the conductor pieces, and the second of the connecting elements is connected to the other conductor piece (12, 14) by means of a spring element.
A method for scheduling uplink multi-antenna transmission of a user equipment, UE, the method being performed by a base station, BS, and comprising: generating Downlink Control Information, DCI, including two modulation and coding scheme, MCS, fields each indicating a combination of a modulation order, transport block size, TBS, information, and a redundancy version, and precoding information indicating both of a transmission rank and a precoding matrix among precoding matrices available for uplink transmission; transmitting, through a downlink control channel, the generated DCI for scheduling uplink transmission of one or two codewords; and receiving, through an uplink data channel, the one or two codewords scheduled according to the DCI, wherein a size of the precoding information is determined according to a number of multiple antennas of the UE, wherein a number of the precoding matrices available for uplink transmission varies according to the transmission rank, the number of the multiple antennas and a number of the one or two codewords scheduled according to the DCI, wherein the number of the one or two scheduled codewords is indicated through the MCS fields of the DCI, and wherein, when a codeword is disabled, a MCS field of the DCI is configured as a combination of a highest modulation order, a largest TBS, and a lowest redundancy version. generating Downlink Control Information, DCI, including two modulation and coding scheme, MCS, fields each indicating a combination of a modulation order, transport block size, TBS, information, and a redundancy version, and precoding information indicating both of a transmission rank and a precoding matrix among precoding matrices available for uplink transmission; transmitting, through a downlink control channel, the generated DCI for scheduling uplink transmission of one or two codewords; and receiving, through an uplink data channel, the one or two codewords scheduled according to the DCI, wherein a size of the precoding information is determined according to a number of multiple antennas of the UE, wherein a number of the precoding matrices available for uplink transmission varies according to the transmission rank, the number of the multiple antennas and a number of the one or two codewords scheduled according to the DCI, wherein the number of the one or two scheduled codewords is indicated through the MCS fields of the DCI, and wherein, when a codeword is disabled, a MCS field of the DCI is configured as a combination of a highest modulation order, a largest TBS, and a lowest redundancy version.
Interferometer for the real-time measurement of absolute distances and/or relative position movements between a first and a second machine part, comprising a measurement unit and a reflector unit, wherein the reflector unit comprises at least one optical reflector; wherein the measurement unit comprises a housing with at least one wall made of heat-conducting material, wherein the heat-conducting material has a thermal conductivity lambda of more than 30 W/(m · K) at 0°C, wherein the housing has external dimensions of less than 75 mm x 75 mm x 200 mm, wherein several measurement elements are arranged in the housing, wherein the measurement elements comprise a laser source, a Peltier element and a digital control, wherein the measurement elements are thermally coupled to the wall of the housing made of heat-conducting material, and wherein the measurement elements comprise fibre-optic components and miniaturized digital electronics; and wherein the housing has cooling ribs in at least one region, which promotes thermalization with the surrounding air masses. comprising a measurement unit and a reflector unit, wherein the reflector unit comprises at least one optical reflector; wherein the measurement unit comprises a housing with at least one wall made of heat-conducting material, wherein the heat-conducting material has a thermal conductivity lambda of more than 30 W/(m · K) at 0°C, wherein the housing has external dimensions of less than 75 mm x 75 mm x 200 mm, wherein several measurement elements are arranged in the housing, wherein the measurement elements comprise a laser source, a Peltier element and a digital control, wherein the measurement elements are thermally coupled to the wall of the housing made of heat-conducting material, and wherein the measurement elements comprise fibre-optic components and miniaturized digital electronics; and wherein the housing has cooling ribs in at least one region, which promotes thermalization with the surrounding air masses.
A method of applying an erosion shield to a leading edge region of a wind turbine blade, the method comprising; providing a wind turbine blade comprising a blade shell having an aerodynamic profile and defining a leading edge region; providing an erosion shield made of a polymer material, the erosion shield having an inner surface to be bonded to the leading edge region of the blade shell, and an outer surface (38, 84, 98) to be exposed in use; activating the inner surface of the erosion shield; cleaning the inner surface of the erosion shield using a solvent preferably after activating the inner surface; applying a layer of wet adhesive (66, 68, 72A) to the inner surface of the erosion shield; applying a layer of wet adhesive (66, 68, 72A) to the leading edge region of the blade shell; arranging the erosion shield against the leading edge region of the blade shell such that wet-to-wet adhesive (66, 68, 72A, 72, 96) contact is established between the inner surface of the erosion shield and the blade shell; and curing the adhesive (66, 68, 72A, 72, 96) to bond the erosion shield to the leading edge region of the blade shell, wherein prior to arranging the erosion shield against the leading edge region of the blade shell, the method further comprises; applying a length of removable reinforcing tape along a longitudinal edge (74, 80) of the erosion shield to increase the stiffness of said longitudinal edge (74, 80) temporarily during arrangement of the erosion shield and curing of the adhesive (66, 68, 72A, 72, 96).
An apparatus for measuring a dimension of a secondary battery, which comprises an electrode assembly and a pouch accommodating the electrode assembly, the apparatus comprising: an ultraviolet irradiation unit configured for irradiating ultraviolet rays to fluoresce the fluorescent reference marker, which is applied to a portion of an outer surface of the pouch and comprises a fluorescent material; and a laser measurement unit configured for irradiating/receiving laser light to/from the pouch to measure the dimension of the secondary battery on the basis of the fluorescent reference marker that fluoresces to be detected, wherein the laser measurement unit comprises: a laser irradiation part configured for irradiating the laser light to the pouch; a light receiving part configured for receiving reflected light of the laser light irradiated to the pouch and receiving the fluorescence of the fluorescent reference marker that fluoresces by the ultraviolet rays irradiated by the ultraviolet irradiation unit; and a calculation part configured for analyzing the reflected light of the laser light received through the light receiving part and a fluorescence detection value of the fluorescent reference marker for calculating the dimension of the secondary battery on the basis of the fluorescent reference marker. an ultraviolet irradiation unit configured for irradiating ultraviolet rays to fluoresce the fluorescent reference marker, which is applied to a portion of an outer surface of the pouch and comprises a fluorescent material; and a laser measurement unit configured for irradiating/receiving laser light to/from the pouch to measure the dimension of the secondary battery on the basis of the fluorescent reference marker that fluoresces to be detected, wherein the laser measurement unit comprises: a laser irradiation part configured for irradiating the laser light to the pouch; a light receiving part configured for receiving reflected light of the laser light irradiated to the pouch and receiving the fluorescence of the fluorescent reference marker that fluoresces by the ultraviolet rays irradiated by the ultraviolet irradiation unit; and a calculation part configured for analyzing the reflected light of the laser light received through the light receiving part and a fluorescence detection value of the fluorescent reference marker for calculating the dimension of the secondary battery on the basis of the fluorescent reference marker. a laser irradiation part configured for irradiating the laser light to the pouch; a light receiving part configured for receiving reflected light of the laser light irradiated to the pouch and receiving the fluorescence of the fluorescent reference marker that fluoresces by the ultraviolet rays irradiated by the ultraviolet irradiation unit; and a calculation part configured for analyzing the reflected light of the laser light received through the light receiving part and a fluorescence detection value of the fluorescent reference marker for calculating the dimension of the secondary battery on the basis of the fluorescent reference marker.
A method for determining a state of a water heating system for providing an anomaly identification, said method comprising: /a/ measuring a water temperature at least at one location and repeatedly in the heating system; /b/ repeatedly measuring vibrations of at least part of the heating system; /c/ sending data corresponding to said measurements to a processing unit; /d/ determining at least the temporal evolution of the temperature and vibrations by the processing unit; /e/ providing an anomaly identification based on the result of the determination step; characterised in that the heating system comprises a motor arranged to cause the circulation of water; during step /a/, the water temperature is measured at the inlet of said motor. /a/ measuring a water temperature at least at one location and repeatedly in the heating system; /b/ repeatedly measuring vibrations of at least part of the heating system; /c/ sending data corresponding to said measurements to a processing unit; /d/ determining at least the temporal evolution of the temperature and vibrations by the processing unit; /e/ providing an anomaly identification based on the result of the determination step; characterised in that the heating system comprises a motor arranged to cause the circulation of water; during step /a/, the water temperature is measured at the inlet of said motor.
A self-folding box for packing pizzas with compartments and a carry handle, which are made of a first folded blank (A, A1) for forming the box and a second folded blank for forming the handle, formed by folding and gluing into a flat form of said box which is formed from upright surfaces into a vertical position comprises a box of a prism shape with rhomboid bases (2, 3) and two parallel rectangular lateral panels (4, 4'), while the other two parallel sides are rectangular surfaces of flaps, wherein said formed box is made of a flat form of said box, comprising two upright rectangular lateral panels (4, 4'), folded along parallel folding lines (2.1, 2.2 3.1, 3.2), upright flaps (9.1, 9.2, 9.3, 9.4) which are continued on said upright rectangular lateral panels (4, 4'), and upright rectangular parts of flaps folded along folding lines (2.3), so that surfaces of the upright rectangular lateral panels (4, 4'), surfaces of the upright flaps (9.1, 9.2, 9.3, 9.4) and surfaces of the rectangular parts of flaps are placed vertically in relation to the rhomboid bases (2, 3), at one side of first base a first side of a flap is connected through a folding line (2.1), whereas a second parallel side of flap is defined by a further folding line (6.1) through which a fist side of a rhomboid compartment flap is connected whereas a second parallel side of said rhomboid compartment flap is defined by a further folding line (6.2) through which a first side of a further flap is inseparably connected to the first upright lateral panel while a second parallel side of said further flap is defined by a further folding line (7.1) through which a first side of a further rhomboid compartment flap is connected, whereas a second parallel side of said further rhomboid compartment flap is defined by a further folding line (7.2) through which a first side of a second further flap is inseparably connected to flap while on the other side said second further flap is inseparably connected to the second upright lateral panel, at the second side of first base said first lateral panel is connected through a further folding line (2.2) parallel to a folding line (2.1), whereas said lateral panel is defined by further folding line (3.1), through which the surface of the second base is connected, whereas a second parallel side of the second base is defined by a further folding line (3.2), through which the upright surface of the second lateral panel is inseparably connected to a surface of the second further flap, where the compartments (6, 7) are bordered by the lateral panels (4,4'), where a semicircular part of the flap is pulled in below the second base and a folded flap which is connected to the second base with a folding line (8.3) is inserted through cutting line (5.2) provided on a folding line (5.1) between said semicircular part of the flap and said rectangular surface of the flap.
A line mount, comprising: a medical treatment machine having a housing with one or more magnets or ferromagnetic elements (107A, 107B, 107C) mounted thereon; and a line holder (108, 208) having at least one complementary one of magnets and ferromagnetic elements (110, 112, 210, 212) such as to cause the line holder (108, 208) to be attachable magnetically to the housing, characterized in that the one or more magnets or ferromagnetic elements (107A, 107B, 107C) being numbered and arranged to permit the line holder (108, 208) to be supported thereby in multiple positions and orientations relative to the housing, and the housing has a boss or a recess onto or into which one of the ferromagnetic elements (110, 112, 210, 212) of the line holder (108, 208) fits. a medical treatment machine having a housing with one or more magnets or ferromagnetic elements (107A, 107B, 107C) mounted thereon; and a line holder (108, 208) having at least one complementary one of magnets and ferromagnetic elements (110, 112, 210, 212) such as to cause the line holder (108, 208) to be attachable magnetically to the housing, characterized in that the one or more magnets or ferromagnetic elements (107A, 107B, 107C) being numbered and arranged to permit the line holder (108, 208) to be supported thereby in multiple positions and orientations relative to the housing, and the housing has a boss or a recess onto or into which one of the ferromagnetic elements (110, 112, 210, 212) of the line holder (108, 208) fits.
Device for generating heat, having a shaft which is rotatably arranged within a surround, wherein at least one magnet is arranged on the shaft so that the surround as a result of the magnet which rotates with the shaft can be heated at least in regions by means of magnetic interaction and wherein the surround has at least one flow path in order to heat a fluid which is guided in this flow path, characterised in that the surround comprises at least in regions an aluminium/magnesium/silicon alloy (AlMgSi).
A display apparatus comprising: a display panel; a bottom chassis supporting the display panel; a first circuit board and a second circuit board mounted on the bottom chassis; characterised by at least one waveguide for wireless communication formed between the first circuit board and the second circuit board. a display panel; a bottom chassis supporting the display panel; a first circuit board and a second circuit board mounted on the bottom chassis; characterised by at least one waveguide for wireless communication formed between the first circuit board and the second circuit board.
A memristive system comprising - means for generating a spin polarization process - means for generating a memory effect in the voltage-current phase plane characterized in that - the mentioned means are arranged in a feedback loop architecture, such that the feedback loop is established by combining the spin polarization process with the action of a classical Hall effect, wherein a Hall current is fed back by transforming the Hall current to a magnetic flux. - means for generating a spin polarization process - means for generating a memory effect in the voltage-current phase plane - the mentioned means are arranged in a feedback loop architecture, such that the feedback loop is established by combining the spin polarization process with the action of a classical Hall effect, wherein a Hall current is fed back by transforming the Hall current to a magnetic flux.
An apparatus for processing food products, comprising: a product conveyor (31, 51) having a frame (35, 55) and a conveyor unit for conveying products along a conveying direction, wherein the conveyor unit is arranged at the frame (35, 55) projecting laterally with respect to the conveying direction; and a work unit which is associated with the processing of the conveyed products and which is arranged at least partly beneath the projecting conveyor unit of the product conveyor (31, 51), characterized in that the frame (35, 55) of the product conveyor (31, 51) is supported or held at the work unit, and is in particular fixed to it, via a mechanical connection. a product conveyor (31, 51) having a frame (35, 55) and a conveyor unit for conveying products along a conveying direction, wherein the conveyor unit is arranged at the frame (35, 55) projecting laterally with respect to the conveying direction; and a work unit which is associated with the processing of the conveyed products and which is arranged at least partly beneath the projecting conveyor unit of the product conveyor (31, 51), characterized in that
A method of identifying a detection nucleotide in a primary target sequence, said primary target sequence comprising a first target domain, a second target domain and said detection nucleotide, said method comprising: (a) providing a first ligation probe comprising: in order, (i) a first address sequence, (ii) a first priming domain, (iii) a first hybridization domain that is complementary to said first target domain and (iv) a first interrogation nucleotide; (b) providing a second ligation probe comprising: in order, (i) a second hybridization domain that is complementary to said second target domain and (ii) a second priming domain, wherein one of said first and second ligation probes comprises a cleavage site; (c) hybridizing said first and second ligation probes to said first and second target domains, respectively, to form a first hybridization complex; (d) subjecting said first hybridization complex to conditions whereby if said interrogation nucleotide is perfectly complementary to said detection nucleotide, ligation occurs to form a first ligated probe; (e) forming a first circularized probe from said first ligated probe; (f) cleaving said first circularized probe at said cleavage site to form a first secondary target sequence comprising, in order, said second priming domain, said first address sequence and said first priming domain; (g) amplifying said first address sequence using said priming domains on said first secondary target sequence to form a first tertiary target sequence; and (h) detecting the presence of said first tertiary target sequence to identify said detection nucleotide, wherein said first and second ligation probes are different molecules. (a) providing a first ligation probe comprising: in order, (i) a first address sequence, (ii) a first priming domain, (iii) a first hybridization domain that is complementary to said first target domain and (iv) a first interrogation nucleotide; (b) providing a second ligation probe comprising: in order, (i) a second hybridization domain that is complementary to said second target domain and (ii) a second priming domain, wherein one of said first and second ligation probes comprises a cleavage site; (c) hybridizing said first and second ligation probes to said first and second target domains, respectively, to form a first hybridization complex; (d) subjecting said first hybridization complex to conditions whereby if said interrogation nucleotide is perfectly complementary to said detection nucleotide, ligation occurs to form a first ligated probe; (e) forming a first circularized probe from said first ligated probe; (f) cleaving said first circularized probe at said cleavage site to form a first secondary target sequence comprising, in order, said second priming domain, said first address sequence and said first priming domain; (g) amplifying said first address sequence using said priming domains on said first secondary target sequence to form a first tertiary target sequence; and (h) detecting the presence of said first tertiary target sequence to identify said detection nucleotide, wherein said first and second ligation probes are different molecules.