mhurhangee/ep-ind-claims huggingface dataset:
A vehicle treatment system for cleaning a vehicle comprising at least one treatment device with which a treatment fluid can be applied to the vehicle to be cleaned during vehicle cleaning, a fluid line for supplying the treatment fluid to the at least one treatment device and a first dosing device and a second dosing device for additional dosing of a first and a second component to water in order to produce the treatment fluid, characterized in that a pump is arranged in the fluid line and the first dosing device and the second dosing device are arranged respectively upstream of the pump, the first component contains one or more constituents which assist cleaning of the vehicle, and the second component contains at least one constituent selected from agents for improving the foaming performance of the treatment fluid and aromatic substances, the vehicle treatment system comprises a control unit for controlling the vehicle treatment system via which the additional dosing of the first and the second component can be controlled separately, and the vehicle treatment system comprises an operating unit via which the first component and the second component can be selected and which makes it possible to specifically increase only the dosing of the first component and to specifically increase only the dosing of the second component.
A method for selecting a suitable anticancer drug for the treatment of non-small cell lung cancer (NSCLC) in a subject, the method comprising: (a) determining and/or quantifying the phosphorylation and/or expression level of EGFR in a cellular extract produced from an isolated cancer cell from the subject; (b) determining and/or quantifying the phosphorylation and/or expression level of c-Met in the cellular extract produced from an isolated cancer cell from the subject; (c) calculating a EGFR/c-MET index based upon the measurement of steps (a) and (b); and (d) selecting a suitable anticancer drug(s) selected from EGFR inhibitor therapy, c-MET inhibitor therapy, or a combination thereof for the treatment of NSCLC based upon the a EGFR/c-MET index, wherein the EGFR/c-MET index is 20 or less. (a) determining and/or quantifying the phosphorylation and/or expression level of EGFR in a cellular extract produced from an isolated cancer cell from the subject; (b) determining and/or quantifying the phosphorylation and/or expression level of c-Met in the cellular extract produced from an isolated cancer cell from the subject; (c) calculating a EGFR/c-MET index based upon the measurement of steps (a) and (b); and (d) selecting a suitable anticancer drug(s) selected from EGFR inhibitor therapy, c-MET inhibitor therapy, or a combination thereof for the treatment of NSCLC based upon the a EGFR/c-MET index, wherein the EGFR/c-MET index is 20 or less.
A 3D-printed product made of an alloy comprising a metal matrix and grains of carbides embedded in the metal matrix; wherein the alloy comprises Carbon: equal to or greater than 3.1 and equal to or less than 5.1 weight%, Tungsten: equal to or greater than 18 and equal to or less than 30 weight%, Chromium: equal to or greater than 15 and equal to or less than 24 weight% wherein the sum of the chromium and tungsten is 36 to 48wt%; wherein alloy optionally comprises traces or impurities of other elements selected from niobium, nickel, manganese, silicon, molybdenum, boron, tantalum, and iron; wherein the balance is cobalt, being equal to or greater than 40weight%; and wherein the alloy has a melting point of less than 1750°C, or preferably less than 1600°C, but higher than 1300°C; and wherein the alloy does not comprise carbides larger than 10μm. wherein the alloy comprises Carbon: equal to or greater than 3.1 and equal to or less than 5.1 weight%, Tungsten: equal to or greater than 18 and equal to or less than 30 weight%, Chromium: equal to or greater than 15 and equal to or less than 24 weight% wherein the sum of the chromium and tungsten is 36 to 48wt%; wherein alloy optionally comprises traces or impurities of other elements selected from niobium, nickel, manganese, silicon, molybdenum, boron, tantalum, and iron; wherein the balance is cobalt, being equal to or greater than 40weight%; and wherein the alloy has a melting point of less than 1750°C, or preferably less than 1600°C, but higher than 1300°C; and wherein the alloy does not comprise carbides larger than 10μm.
A distributor block comprising at least one first and one second connection side (12, 18) and a first and a second connection point (14, 16) provided on the first connection side, wherein the first and second connection points (14, 16) allow a releasable connection of an electric conductor, wherein the first connection point has a circular insertion opening, wherein the first connection point in the form of a circular conductor insertion bore in a clamping body encompassed by the distributor block allows the connection of circular conductors, wherein the second connection point allows the connection of flat conductors, and comprising means for the independent actuation of the first and second connection points (14, 16) from a top side of the distributor block as well as a fixing portion moveable against a bottom side of the clamping body as the location of the first connection point, and an intermediate space remaining between a stop and a top side of the fixing portion as the location of the second connection point, characterized in that the second connection point has a rectangular insertion opening, in that two screws act as means for moving the fixing portion against the direction of movement towards the clamping body, which screws are guided in the clamping body in two bores formed there and engage with the free ends thereof in the fixing portion in two threaded bores formed there, and in that a housing of the distributor block, which surrounds the clamping body, effects a non-rotational support of the fixing portion.
An oral hygiene handle (12, 912) having a cavity therein and an insert (200, 800, 900, 1700) disposed within the cavity, the insert comprising: a load member (230, 830, 930, 1730) capable of pivoting with respect to the housing; an output source (250, 450, 950, 1750) disposed in electromagnetic communication with the load member (230, 830, 930, 1730), the output source having a first contact (265 A, 965A, 1765A) and a second contact (265B, 965B, 1765B); a power source (240, 940) in electrical communication with the output source, the power source having a first contact area and a second contact area; an engagement section (316, 916) capable of receiving an oral care attachment; and an indication element (30, 30C, 30D, 30E, 1230, 1930, 2730) forming an outer facing surface of the toothbrush, wherein when the load member pivots a predetermined amount, the first contact makes contact with a first contact area and/or the second contact makes contact with the second contact area thereby causing the power source to deliver power to the output source, wherein the output source is a light source providing light to the load member, wherein the load member transmits the light from the light source to the indication element, and wherein load member, the indication element, and the engagement section are integrally formed with one another. a load member (230, 830, 930, 1730) capable of pivoting with respect to the housing; an output source (250, 450, 950, 1750) disposed in electromagnetic communication with the load member (230, 830, 930, 1730), the output source having a first contact (265 A, 965A, 1765A) and a second contact (265B, 965B, 1765B); a power source (240, 940) in electrical communication with the output source, the power source having a first contact area and a second contact area; an engagement section (316, 916) capable of receiving an oral care attachment; and an indication element (30, 30C, 30D, 30E, 1230, 1930, 2730) forming an outer facing surface of the toothbrush, wherein when the load member pivots a predetermined amount, the first contact makes contact with a first contact area and/or the second contact makes contact with the second contact area thereby causing the power source to deliver power to the output source, wherein the output source is a light source providing light to the load member, wherein the load member transmits the light from the light source to the indication element, and wherein load member, the indication element, and the engagement section are integrally formed with one another.
A graphics processing unit, GPU, to accelerate machine-learning operations, the GPU comprising: a multiprocessor including a single instruction, multiple thread, SIMT, architecture, the multiprocessor to execute a single instruction across multiple threads; and a first compute unit included within the multiprocessor, the single instruction to cause the first compute unit to perform at least a two-dimensional matrix multiply and accumulate operation on three 16-bit input operands of the single instruction, wherein to perform the two-dimensional matrix multiply and accumulate operation includes to compute an intermediate product between a first 16-bit input operand of the 16-bit input operands and a second 16-bit input operand of the 16-bit input operands and to compute a 32-bit sum based on the intermediate product and a third 16-bit input operand of the 16-bit input operands; wherein to compute a 32-bit sum based on the intermediate product, the first compute unit is to: perform a floating-point multiply between the first 16-bit input operand and the second 16-bit input operand to generate the intermediate product, compute an intermediate sum based on the intermediate product and the third 16-bit input operand; and compute the 32-bit sum based on the intermediate sum, wherein the first compute unit further includes one or more shifters to normalize an intermediate result. a multiprocessor including a single instruction, multiple thread, SIMT, architecture, the multiprocessor to execute a single instruction across multiple threads; and a first compute unit included within the multiprocessor, the single instruction to cause the first compute unit to perform at least a two-dimensional matrix multiply and accumulate operation on three 16-bit input operands of the single instruction, wherein to perform the two-dimensional matrix multiply and accumulate operation includes to compute an intermediate product between a first 16-bit input operand of the 16-bit input operands and a second 16-bit input operand of the 16-bit input operands and to compute a 32-bit sum based on the intermediate product and a third 16-bit input operand of the 16-bit input operands; wherein to compute a 32-bit sum based on the intermediate product, the first compute unit is to: perform a floating-point multiply between the first 16-bit input operand and the second 16-bit input operand to generate the intermediate product, compute an intermediate sum based on the intermediate product and the third 16-bit input operand; and compute the 32-bit sum based on the intermediate sum, perform a floating-point multiply between the first 16-bit input operand and the second 16-bit input operand to generate the intermediate product, compute an intermediate sum based on the intermediate product and the third 16-bit input operand; and compute the 32-bit sum based on the intermediate sum, wherein the first compute unit further includes one or more shifters to normalize an intermediate result.
An end effector assembly of a tissue-resecting device, the end effector assembly comprising: an outer shaft including a hub housing disposed about a proximal end portion thereof; an inner shaft disposed within and rotatable relative to the outer shaft, the inner shaft including a distal driver disposed about a proximal end portion thereof; a proximal driver slidably coupled to the distal driver in fixed rotational orientation relative thereto such that rotation of the proximal driver drives rotation of the distal driver; a retainer cap defining a pocket having an open end, the retainer cap disposed about at least a portion of the proximal driver and fixedly engaged with the hub housing to thereby fix the retainer cap relative to the hub housing and the outer shaft, the retainer cap configured to selectively lock the proximal driver in fixed rotational orientation relative thereto, thereby selectively locking the inner shaft relative to the outer shaft; and an RFID chip disposed within the pocket, wherein, with the retainer cap engaged with the hub housing, a portion of the hub housing closes the open end of the pocket to retain the RFID chip therein. an outer shaft including a hub housing disposed about a proximal end portion thereof; an inner shaft disposed within and rotatable relative to the outer shaft, the inner shaft including a distal driver disposed about a proximal end portion thereof; a proximal driver slidably coupled to the distal driver in fixed rotational orientation relative thereto such that rotation of the proximal driver drives rotation of the distal driver; a retainer cap defining a pocket having an open end, the retainer cap disposed about at least a portion of the proximal driver and fixedly engaged with the hub housing to thereby fix the retainer cap relative to the hub housing and the outer shaft, the retainer cap configured to selectively lock the proximal driver in fixed rotational orientation relative thereto, thereby selectively locking the inner shaft relative to the outer shaft; and an RFID chip disposed within the pocket, wherein, with the retainer cap engaged with the hub housing, a portion of the hub housing closes the open end of the pocket to retain the RFID chip therein.
A multilayer substrate for the growth and/or support of a plurality of carbon nanotubes comprising an inert support; an adhesion layer present on one or more surfaces of the inert support; an interface layer present on the adhesion layer; and a catalytic layer; wherein the interface layer is located between the adhesion layer and the catalytic layer; and wherein the adhesion layer and the catalytic layer have the same chemical composition.
A light emitting diode device comprising: a light emitting element including: a semiconductor laminate (14a; 34a; 44a; 54a; 74) in which a first semiconductor layer, a light emitting layer, and a second semiconductor layer are laminated in that order; a first electrode connected to the first semiconductor layer and a second electrode connected to the second semiconductor layer; a terminal substrate (17a; 27a; 37a) including: a pair of terminals (15, 16; 35, 36; 45, 46; 55, 56; 55a, 56a) connected to the first electrode and the second electrode, and an insulator layer (17; 37; 47; 57) that fixes the terminals, at least a part of the outer edges of the terminal substrate (17a; 27a; 37a) being disposed more to an inside than the outer edges of the semiconductor laminate (14a; 34a; 44a; 54a; 74); and a fixing member (18; 28; 38; 48; 58) fixing the light emitting element and the terminal substrate (17a; 27a; 37a; 47a), the fixing member (18; 28; 38; 48; 58) being formed of a resin material and including a light reflecting material. a light emitting element including: a semiconductor laminate (14a; 34a; 44a; 54a; 74) in which a first semiconductor layer, a light emitting layer, and a second semiconductor layer are laminated in that order; a first electrode connected to the first semiconductor layer and a second electrode connected to the second semiconductor layer; a semiconductor laminate (14a; 34a; 44a; 54a; 74) in which a first semiconductor layer, a light emitting layer, and a second semiconductor layer are laminated in that order; a first electrode connected to the first semiconductor layer and a second electrode connected to the second semiconductor layer; a terminal substrate (17a; 27a; 37a) including: a pair of terminals (15, 16; 35, 36; 45, 46; 55, 56; 55a, 56a) connected to the first electrode and the second electrode, and an insulator layer (17; 37; 47; 57) that fixes the terminals, at least a part of the outer edges of the terminal substrate (17a; 27a; 37a) being disposed more to an inside than the outer edges of the semiconductor laminate (14a; 34a; 44a; 54a; 74); and a pair of terminals (15, 16; 35, 36; 45, 46; 55, 56; 55a, 56a) connected to the first electrode and the second electrode, and an insulator layer (17; 37; 47; 57) that fixes the terminals, at least a part of the outer edges of the terminal substrate (17a; 27a; 37a) being disposed more to an inside than the outer edges of the semiconductor laminate (14a; 34a; 44a; 54a; 74); and a fixing member (18; 28; 38; 48; 58) fixing the light emitting element and the terminal substrate (17a; 27a; 37a; 47a), the fixing member (18; 28; 38; 48; 58) being formed of a resin material and including a light reflecting material.
A dough moulder for a strip of dough, including: a conveyer having a first run spaced below a curling mat to curl the dough strip; the curling mat resting on at least the first run of the conveyor, the curling mat having a raised section which does not contact the first run; characterised in that the raised section of the curling mat has a beginning edge and an end edge, the raised section being supported above the first run at the beginning and end edges (114, 115); and in that the apparatus further includes a guide on either side of the curling mat to retain the curling mat in position relative to the first run, the guide being provided with a support (112, 113) positioned beneath the curling mat at the beginning and end edges (114, 115) to support the raised section above the first run. a conveyer having a first run spaced below a curling mat to curl the dough strip; the curling mat resting on at least the first run of the conveyor, the curling mat having a raised section which does not contact the first run; characterised in that the raised section of the curling mat has a beginning edge and an end edge, the raised section being supported above the first run at the beginning and end edges (114, 115); and in that the apparatus further includes a guide on either side of the curling mat to retain the curling mat in position relative to the first run, the guide being provided with a support (112, 113) positioned beneath the curling mat at the beginning and end edges (114, 115) to support the raised section above the first run.
A process for the preparation of a prostamide which comprises the steps of (a) reacting first intermediate having the general formula I wherein Z is a protecting group and the dotted line represents the presence or absence of a double bond to yield a second intermediate having the general Formula II (b) reacting said second intermediate with Na 2 N and (C 6 H 5) 3 P + (CH 2) 4 CONR 2 X - wherein R is a C 1-3 alkyl or hydrogen and X - is an anion to yield a third intermediate having the general formula III (c) reacting said third intermediate with a protecting agent TMSCl to yield a fourth intermediate having the general formula IV (d) sequentially reacting said fourth intermediate with DMSO and aqueous LiCl and removing said protecting groups to yield a prostamide having the general formula V (a) reacting first intermediate having the general formula I wherein Z is a protecting group and the dotted line represents the presence or absence of a double bond to yield a second intermediate having the general Formula II (b) reacting said second intermediate with Na 2 N and (C 6 H 5) 3 P + (CH 2) 4 CONR 2 X - wherein R is a C 1-3 alkyl or hydrogen and X - is an anion to yield a third intermediate having the general formula III (c) reacting said third intermediate with a protecting agent TMSCl to yield a fourth intermediate having the general formula IV (d) sequentially reacting said fourth intermediate with DMSO and aqueous LiCl and removing said protecting groups to yield a prostamide having the general formula V
A folding wing (130; 400) comprising: a fixed section (220; 404); a folding section (210; 402); and a latch system (410; 510) for latching the folding section (210; 402) to the fixed section (220; 404), including a plurality of latch pins (420; 520; 600), and a corresponding plurality of non-backdriveable mechanical latch pin actuators (430; 530; 610) for extending the latch pins (420; 520) to engage the folding section (210; 402), whereby the folding section (210; 402) is hinged to the fixed section (220; 404) at a hinge line; characterized in that the latch pins (420; 600) are in line and are oriented parallel to the hinge line. a fixed section (220; 404); a folding section (210; 402); and a latch system (410; 510) for latching the folding section (210; 402) to the fixed section (220; 404), including a plurality of latch pins (420; 520; 600), and a corresponding plurality of non-backdriveable mechanical latch pin actuators (430; 530; 610) for extending the latch pins (420; 520) to engage the folding section (210; 402), whereby the folding section (210; 402) is hinged to the fixed section (220; 404) at a hinge line; characterized in that the latch pins (420; 600) are in line and are oriented parallel to the hinge line.
A measuring apparatus comprising: an -optical apparatus; a light source section configured to emit light for illuminating an irradiation target through the optical apparatus; and a sensor configured to receive light from the irradiation target via the optical apparatus; wherein the light source section is configured to emit excitation light that causes fluorescence to be generated from the irradiation target, and bright field light used to observe the irradiation target, wherein the optical apparatus comprises a first optical element and a second optical element (51, 52) capable of separating incident light according to a wavelength of the incident light, wherein the measuring apparatus is configured such that a first dichroic mirror included in a first optical element reflects excitation light in a first wavelength band, transmits fluorescence light in a second wavelength band, or transmits the excitation light in the first wavelength band and reflects the fluorescence in the second wavelength band, characterized in that the measuring apparatus is further configured such that the first dichroic mirror partially transmits and partially reflects bright field light in a third wavelength band, and such that a second dichroic mirror included in the second optical element (51, 52) separates incident light, that is incident in two wavelength bands, including the second wavelength band and the third wavelength band, into the fluorescence light in the second wavelength band and the bright field light in the third wavelength band, according to the wavelength.
An adaptor for delivering an aerosolized active agent to a patient with concomitant positive pressure ventilation, comprising: a patient interface port; an aerosol flow channel having an aerosol inlet port and an aerosol outlet port, wherein the aerosol flow channel extends from the aerosol inlet port to the aerosol outlet port and wherein the aerosol flow channel defines an aerosol flow path along its extent; and a ventilation gas flow channel in fluid communication with the aerosol outlet port and having a ventilation gas inlet port and a ventilation gas outlet port and defining a ventilation gas flow path, and wherein the ventilation gas flow path is at least partially offset from the aerosol flow path and at least partially encircles the aerosol flow channel to allow ventilation gas to flow around the aerosol flow channel. a patient interface port; an aerosol flow channel having an aerosol inlet port and an aerosol outlet port, wherein the aerosol flow channel extends from the aerosol inlet port to the aerosol outlet port and wherein the aerosol flow channel defines an aerosol flow path along its extent; and a ventilation gas flow channel in fluid communication with the aerosol outlet port and having a ventilation gas inlet port and a ventilation gas outlet port and defining a ventilation gas flow path, and wherein the ventilation gas flow path is at least partially offset from the aerosol flow path and at least partially encircles the aerosol flow channel to allow ventilation gas to flow around the aerosol flow channel.