mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented process for managing a plurality of mix designs within the mix design catalog of a concrete producer, comprising: collecting slump curve data obtained during monitoring of individual concrete loads made from a plurality of various mix designs, characterized in that each mix design is identified by a different identification code regardless of whether the mix components are different or are identical, the process further comprises: clustering slump curve data having same movement characteristics into at least two slump curve data clusters; associating each mix design within the slump curve data cluster to an assigned strength value; and selecting a mix design to produce, from among the two or more individual mix designs within the same slump curve data cluster, the selection being based on same assigned strength value and on at least one selection factor chosen from cost, performance, physical aspect, quality, or combination thereof, wherein in the selecting step, the concrete mix design is selected from a cluster of slump curve data for an assigned strength by operation of a computer processor, the computer processor being programmed to select the concrete mix design and to instruct that a concrete mix is generated according to the selected mix design, and the computer processor being programmed to initiate this function without further inputs from a human operator. clustering slump curve data having same movement characteristics into at least two slump curve data clusters; associating each mix design within the slump curve data cluster to an assigned strength value; and selecting a mix design to produce, from among the two or more individual mix designs within the same slump curve data cluster, the selection being based on same assigned strength value and on at least one selection factor chosen from cost, performance, physical aspect, quality, or combination thereof, wherein in the selecting step, the concrete mix design is selected from a cluster of slump curve data for an assigned strength by operation of a computer processor, the computer processor being programmed to select the concrete mix design and to instruct that a concrete mix is generated according to the selected mix design, and the computer processor being programmed to initiate this function without further inputs from a human operator.
Electrical coil device of an electric machine, comprising - a winding carrier which is formed from an elongate hollow tube and which is shaped in the manner of a ring, such that, overall, a superordinate loop of the coil device is formed by the ring shape of the winding carrier, - and a winding which is applied to the winding carrier and which is composed of a superconductive conductor, - wherein the superconductive conductor is wound in a multiplicity of individual turns (w) helically around the hollow tube, such that the ring shape of the winding carrier results in at least one superordinate turn of the overall helix, - and wherein the interior of the hollow tube is designed as a coolant channel for the circulation of a fluid coolant, wherein the superconductive conductor comprises at least one strip conductor and the thickness of the strip conductor is at most 150 μm. - a winding carrier which is formed from an elongate hollow tube and which is shaped in the manner of a ring, such that, overall, a superordinate loop of the coil device is formed by the ring shape of the winding carrier, - and a winding which is applied to the winding carrier and which is composed of a superconductive conductor, - wherein the superconductive conductor is wound in a multiplicity of individual turns (w) helically around the hollow tube, such that the ring shape of the winding carrier results in at least one superordinate turn of the overall helix, - and wherein the interior of the hollow tube is designed as a coolant channel for the circulation of a fluid coolant, wherein the superconductive conductor comprises at least one strip conductor and the thickness of the strip conductor is at most 150 μm.
An automatic drain assembly for a floating roof (10, 12) covering a liquid product stored in tank, the roof including a deck and a drain pipe extending vertically from the top surface of the deck and providing a conduit for water to be drained from the deck, the drain assembly comprising: a drain pipe sealing cover characterized in that the drain assembly comprises at least two buoyant members wherein the buoyant members are secured in spaced apart relation to the underside of the cover for imparting a buoyant force to lift the cover, gaps being provided between the buoyant members in order to provide a water passage to allow water to flow into the drainpipe. a drain pipe sealing cover characterized in that the drain assembly comprises at least two buoyant members wherein the buoyant members are secured in spaced apart relation to the underside of the cover for imparting a buoyant force to lift the cover, gaps being provided between the buoyant members in order to provide a water passage to allow water to flow into the drainpipe.
An Electric Double Layer Capacitor (EDLC) device comprising: a) a positive electrode and a negative electrode wherein each of the positive and the negative electrodes comprise an activated carbon cryogel having a tunable pore structure; b) an inert porous separator; and c) an electrolyte; wherein the positive electrode and the negative electrode are separated by the inert porous separator; and wherein the activated carbon cryogel comprises: a surface area of greater than about 1500 m 2 /g as determined by nitrogen sorption at 77 K and BET analysis; a pore structure comprising mesopores having a diameter ranging from about 2.0 to about 10.0 nm and a pore volume ranging from about 0.01 cc/g to about 0.25 cc/g for pores having a pore diameter of 0.6 to 1.0 nm as determined from N 2 sorption derived DFT; and micropores having an effective length of less than about 10 nm as determined by TEM measurements; and the specific capacitance of each of the positive and negative electrodes is independently at least 75 F/g and the specific power of each of the positive and negative electrodes is independently at least 10 W/g when each of the specific capacitance and specific power is measured in an electric double layer capacitor device comprising an electrolyte comprising equal volumes of propylene carbonate and dimethylcarbonate and further comprising about 1.0 M tetraethylammonium tetrafluoroborate. a) a positive electrode and a negative electrode wherein each of the positive and the negative electrodes comprise an activated carbon cryogel having a tunable pore structure; b) an inert porous separator; and c) an electrolyte; a surface area of greater than about 1500 m 2 /g as determined by nitrogen sorption at 77 K and BET analysis; a pore structure comprising mesopores having a diameter ranging from about 2.0 to about 10.0 nm and a pore volume ranging from about 0.01 cc/g to about 0.25 cc/g for pores having a pore diameter of 0.6 to 1.0 nm as determined from N 2 sorption derived DFT; and micropores having an effective length of less than about 10 nm as determined by TEM measurements; and the specific capacitance of each of the positive and negative electrodes is independently at least 75 F/g and the specific power of each of the positive and negative electrodes is independently at least 10 W/g when each of the specific capacitance and specific power is measured in an electric double layer capacitor device comprising an electrolyte comprising equal volumes of propylene carbonate and dimethylcarbonate and further comprising about 1.0 M tetraethylammonium tetrafluoroborate.
A method in a radio device (10; 900; 1200) of controlling radio transmission in a wireless communication network, the method comprising: receiving, from a node (100; 1100; 1300) of the wireless communication network, control information via a Radio Resource Control message for semi-persistent allocation of radio resources of an unlicensed frequency spectrum, wherein the control information defines a first configuration applicable for a first uplink carrier and a second configuration applicable for a second uplink carrier, and wherein at least one of the first uplink carrier frequency and the second uplink carrier frequency is from the unlicensed frequency spectrum; sending, in a control element of a Medium Access Control protocol, unlicensed spectrum semi-persistent scheduling grant confirmation information to the node (100; 1100; 1300) of the wireless communication network, the unlicensed spectrum semi-persistent scheduling grant confirmation information consisting of at least one multi-bit value, wherein each bit of the multi-bit value indicating individually for each of the first and second uplink carrier whether semi-persistent allocation of radio resources is activated; and based on the control information, controlling at least one uplink radio transmission on the radio resources of the unlicensed frequency spectrum. receiving, from a node (100; 1100; 1300) of the wireless communication network, control information via a Radio Resource Control message for semi-persistent allocation of radio resources of an unlicensed frequency spectrum, wherein the control information defines a first configuration applicable for a first uplink carrier and a second configuration applicable for a second uplink carrier, and wherein at least one of the first uplink carrier frequency and the second uplink carrier frequency is from the unlicensed frequency spectrum; sending, in a control element of a Medium Access Control protocol, unlicensed spectrum semi-persistent scheduling grant confirmation information to the node (100; 1100; 1300) of the wireless communication network, the unlicensed spectrum semi-persistent scheduling grant confirmation information consisting of at least one multi-bit value, wherein each bit of the multi-bit value indicating individually for each of the first and second uplink carrier whether semi-persistent allocation of radio resources is activated; and based on the control information, controlling at least one uplink radio transmission on the radio resources of the unlicensed frequency spectrum.
A cam follower, comprising: - a tappet having a cylindrical outer surface adapted to slide in a housing receiving the cam follower, - a pin extending along a first axis and comprising two opposite ends (36, 37), each adapted to be fitted in the tappet for radial and/or axial retention of the pin relative to the first axis, - a roller element movable in rotation relative to the pin around the first axis, characterised in that - at least one outer insert (91, 92; 191, 192; 291, 292; 391, 392) is positioned at the cylindrical outer surface of the tappet for reducing wear of the cylindrical outer surface of the tappet sliding in the housing wherein the tappet is overmolded onto the outer insert (91, 92; 291, 292; 391, 392). - a tappet having a cylindrical outer surface adapted to slide in a housing receiving the cam follower, - a pin extending along a first axis and comprising two opposite ends (36, 37), each adapted to be fitted in the tappet for radial and/or axial retention of the pin relative to the first axis, - a roller element movable in rotation relative to the pin around the first axis, characterised in that - at least one outer insert (91, 92; 191, 192; 291, 292; 391, 392) is positioned at the cylindrical outer surface of the tappet for reducing wear of the cylindrical outer surface of the tappet sliding in the housing
Actuator having at least one mechanical activation device (2, 3), to which at least one activation cable (3, 5, 6) for activating field elements (12, 13, 14, 15) in the external system of the actuator is mounted, characterised in that the activation cable (4, 5, 6) is guided to a mechanical-electronic converter arrangement, from which at least one electrical line (8, 9, 10) leads to electronic systems of the field elements (12, 13, 14, 15) of the external system of the actuator.
A processing station for two-dimensional substrates including at least two processing units (12, 14) and at least two conveyor lines (16, 18) for substrates arranged in parallel to another, wherein both the processing units (12, 14) are placed between the two conveyor lines (16, 18), and means for moving the substrates from the conveyor lines (16, 18) to the processing units (12, 14) and back, wherein the means for moving the substrates include four linear conveyor units (24, 26, 28, 30) each having at least one substrate support (32, 34, 36, 38), characterized in that a first linear conveyor unit is disposed between a transfer point in the second conveyor line and the first processing unit, a second linear conveyor unit is disposed between a transfer point in the first conveyor line and the first processing unit, a third linear conveyor unit is disposed between a transfer point in the first conveyor line and the second processing unit, and a fourth linear conveyor unit is disposed between a transfer point in the second conveyor line and the second processing unit.
Method for determining the cutting performance of a knife, wherein the blade of the knife is pressed into a test piece and the push-in force and the penetration depth are measured as the knife is pressed in, characterised in that the test piece consists of a plastic with a hardness between 30 and 90 Shore A and a skin-like/film-like layer of polypropylene.
A recovery system for recovering an autonomous underwater vehicle from a ship, said underwater vehicle comprising a front part called the nose, said system comprising: - a receiving device, - a flexible connection intended to provide the interface between the receiving device and the ship, characterised in that it further comprises: - a stop against which the nose of the underwater vehicle can bear, - blocking means making it possible to fix the underwater vehicle to the stop, the flexible connection being arranged such that the ship pulls the assembly formed by the receiving device and the underwater vehicle on the front of the underwater vehicle when the latter is fixed to the stop, - stabilisation means configured so as permit the depth and the attitude, in particular the list and the trim of the assembly formed by the receiving device and the underwater vehicle when the latter is fixed to the stop to be monitored. - a receiving device, - a flexible connection intended to provide the interface between the receiving device and the ship, - a stop against which the nose of the underwater vehicle can bear, - blocking means making it possible to fix the underwater vehicle to the stop, the flexible connection being arranged such that the ship pulls the assembly formed by the receiving device and the underwater vehicle on the front of the underwater vehicle when the latter is fixed to the stop, - stabilisation means configured so as permit the depth and the attitude, in particular the list and the trim of the assembly formed by the receiving device and the underwater vehicle when the latter is fixed to the stop to be monitored.
A radioimmunoconjugate that binds human CD37 comprising: a) an antibody molecule that binds to human CD37, and that is a chimeric antibody, defined by: i) a variable heavy chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO: 1; ii) a variable light chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:3, iii) constant heavy and light chains that are of human origin, wherein said constant heavy chain i) comprises amino acid sequences encoded by the nucleic acid sequences shown in SEQ ID NO:5, SEQ ID NO:6, and SEQ ID NO:7 and wherein said constant light chain ii) comprises an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:9, b) a linker, and c) a 212 Pb radionuclide. a) an antibody molecule that binds to human CD37, and that is a chimeric antibody, defined by: i) a variable heavy chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO: 1; ii) a variable light chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:3, iii) constant heavy and light chains that are of human origin, wherein said constant heavy chain i) comprises amino acid sequences encoded by the nucleic acid sequences shown in SEQ ID NO:5, SEQ ID NO:6, and SEQ ID NO:7 and wherein said constant light chain ii) comprises an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:9, i) a variable heavy chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO: 1; ii) a variable light chain comprising an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:3, iii) constant heavy and light chains that are of human origin, wherein said constant heavy chain i) comprises amino acid sequences encoded by the nucleic acid sequences shown in SEQ ID NO:5, SEQ ID NO:6, and SEQ ID NO:7 and wherein said constant light chain ii) comprises an amino acid sequence encoded by the nucleic acid sequence shown in SEQ ID NO:9, b) a linker, and c) a 212 Pb radionuclide.
A grid connector for communicating with a printed memory, comprising: a substrate; and a plurality of first conductive pads coupled to the substrate, wherein each of the first conductive pads protrudes outward with respect to an outer surface of the substrate, and wherein a subset of the first conductive pads is configured to contact a second conductive pad of the printed memory, regardless of an orientation of the printed memory with respect to the grid connector as long as the second conductive pad is within a boundary of the first conductive pads. a substrate; and a plurality of first conductive pads coupled to the substrate, wherein each of the first conductive pads protrudes outward with respect to an outer surface of the substrate, and wherein a subset of the first conductive pads is configured to contact a second conductive pad of the printed memory, regardless of an orientation of the printed memory with respect to the grid connector as long as the second conductive pad is within a boundary of the first conductive pads.
A grinding material comprising: a base; and a grinding layer overlaid on a front face side of the base and containing abrasive grains and a binder, wherein the grinding layer comprises a plurality of columnar grinding portions, each of the grinding portions contains a plurality of the abrasive grains and the binder, the plurality of the grinding portions are configured so that the grinding portions are arranged in a staggered manner, an average thickness of the grinding portions is no less than 300 μm, an area of a top face of each of the grinding portions is no less than 15 mm 2, an average thickness of the base is no less than 300 μm and no greater than 3,000 μm, a value obtained by dividing the area of the top face of each of the grinding portions by the average thickness of the grinding portions is no less than 0.015 mm 2 /μm and no greater than 0.04 mm 2 /μm, and a ratio of the average thickness of the grinding portions to the average thickness of the base is no less than 0.7 and no greater than 4. a base; and a grinding layer overlaid on a front face side of the base and containing abrasive grains and a binder, wherein the grinding layer comprises a plurality of columnar grinding portions, each of the grinding portions contains a plurality of the abrasive grains and the binder, the plurality of the grinding portions are configured so that the grinding portions are arranged in a staggered manner, an average thickness of the grinding portions is no less than 300 μm, an area of a top face of each of the grinding portions is no less than 15 mm 2, an average thickness of the base is no less than 300 μm and no greater than 3,000 μm, a value obtained by dividing the area of the top face of each of the grinding portions by the average thickness of the grinding portions is no less than 0.015 mm 2 /μm and no greater than 0.04 mm 2 /μm, and a ratio of the average thickness of the grinding portions to the average thickness of the base is no less than 0.7 and no greater than 4.
Method for two-dimensional reconstruction of wave fronts of light in an optical system comprising: measuring the distribution function of the light intensity in at least two images at different optical planes (101, 102) of the optical system having an optical path difference, wherein said measuring comprises: determining a plurality of one-dimensional cumulative distribution functions of the light intensity in each plane (101, 102) over a range of different angles within each plane, matching the determined one-dimensional cumulative distribution functions of the different optical planes to derive two-dimensional wave-front slopes estimates in a plane, e.g. the midway plane, located between said different optical planes, and integrating said wave-front slopes estimates to reconstruct the two-dimensional shape of the wave front in said plane located between said different optical planes. determining a plurality of one-dimensional cumulative distribution functions of the light intensity in each plane (101, 102) over a range of different angles within each plane, matching the determined one-dimensional cumulative distribution functions of the different optical planes to derive two-dimensional wave-front slopes estimates in a plane, e.g. the midway plane, located between said different optical planes, and integrating said wave-front slopes estimates to reconstruct the two-dimensional shape of the wave front in said plane located between said different optical planes.
A method of controlling a dishwasher including: a washing chamber accommodating a dish; a sump storing washing water, and supplying the washing water to the washing chamber; and a filter part provided to the sump, and filtering a foreign substance from the washing water, and a washing water guide to guide the washing water from the sump to the washing chamber, the method comprising: driving a first pump to perform a washing or rinsing process; stopping the first pump and driving a second pump for a first set time to perform a discharging process, after the washing or rinsing process; stopping the second pump and driving the first pump for a second set time; and stopping the first and second pumps, characterised in that in the stopping of the second pump and the driving of the first pump for the second set time, the second set time is a time elapsed until a level of the washing water in the washing water guide is higher than an upper end of the sump. driving a first pump to perform a washing or rinsing process; stopping the first pump and driving a second pump for a first set time to perform a discharging process, after the washing or rinsing process; stopping the second pump and driving the first pump for a second set time; and stopping the first and second pumps, characterised in that in the stopping of the second pump and the driving of the first pump for the second set time, the second set time is a time elapsed until a level of the washing water in the washing water guide is higher than an upper end of the sump.