mhurhangee/ep-ind-claims huggingface dataset:
A device for cleaning artificial turf, that comprises a frame supported on four wheels, an electric motor, a roller shaft, a transmission for transmitting the rotation of the electric motor to the roller shaft and at least one brush roller on the roller shaft, characterised in that the brush roller comprises a plurality of bristles distributed in one longitudinal direction on one half of the brush roller and in the opposite longitudinal direction on the other half of the brush roller forming a herringbone pattern on the surface of the brush roller.
A crystalline polymorph form of 5-amino-2,3-dihydrophthalazine-1,4-dione, wherein said crystalline polymorph form is characterized by the following crystallography values determined by means of powder X-ray diffraction: D values: 11.8; 9.8; 9.2; 8.7; 8.1; 7.0; 6.8; 6.6; 3.4; 3.3; 3.3 and/or 2-theta values: 7.5; 9.0; 9.6; 10.2; 10.9; 12.6; 13.1; 13.4; 25.9; 26.7; 27.2, wherein the powder X-ray diffraction measurements were performed in transmission geometry using a STOE STADI P diffractometer with CuK α1 radiation equipped with a fast, high resolution silicon strip detector (DECTRIS Mythen1K). D values: 11.8; 9.8; 9.2; 8.7; 8.1; 7.0; 6.8; 6.6; 3.4; 3.3; 3.3 and/or 2-theta values: 7.5; 9.0; 9.6; 10.2; 10.9; 12.6; 13.1; 13.4; 25.9; 26.7; 27.2,
A compound which is Compound A, or a tautomer thereof, and an anti-HER3 antibody for use in the treatment of cancer, wherein Compound A has the structure: and the anti-HER3 antibody comprises: a heavy chain variable region CDR1 comprising SEQ ID NO:9; a heavy chain variable region CDR2 comprising SEQ ID NO:10; a heavy chain variable region CDR3 comprising SEQ ID NO:11; a light chain variable region CDR1 comprising SEQ ID NO:12; a light chain variable region CDR2 comprising SEQ ID NO:13; and a light chain variable region CDR3 comprising SEQ ID NO:14; wherein the cancer is selected from breast cancer, colon cancer, rectal cancer, endometrial cancer, gastric carcinoma (including gastrointestinal carcinoid tumors and gastrointestinal stromal tumors), glioblastoma, hepatocellular carcinoma, small cell lung cancer, non-small cell lung cancer (NSCLC), melanoma, ovarian cancer, cervical cancer, pancreatic cancer, prostate carcinoma, acute myelogenous leukemia, chronic myelogenous leukemia, non-Hodgkin's lymphoma, and thyroid carcinoma.
A compound having a formula wherein a dashed line ("---") is used to illustrate that a bond may optionally be present; R 14 and R 15 together with the atom to which each is attached form a six-membered aromatic ring; R 16 is selected from aliphatic, halogen, heteroaliphatic, or hydrogen; R 20 is selected from aliphatic, halogen, or hydrogen; R 21 is selected from aliphatic, halogen, hydrogen, nitro or NH 2; W is oxygen; the V bearing R 14 is carbon, and the remaining V is selected from oxygen, sulfur, or nitrogen wherein when R 21 is NH 2, R 20 is methyl or hydrogen. a dashed line ("---") is used to illustrate that a bond may optionally be present; R 14 and R 15 together with the atom to which each is attached form a six-membered aromatic ring; R 16 is selected from aliphatic, halogen, heteroaliphatic, or hydrogen; R 20 is selected from aliphatic, halogen, or hydrogen; R 21 is selected from aliphatic, halogen, hydrogen, nitro or NH 2; W is oxygen; the V bearing R 14 is carbon, and the remaining V is selected from oxygen, sulfur, or nitrogen wherein when R 21 is NH 2, R 20 is methyl or hydrogen.
A light emitting device, comprising: a light source configured to emit a primary light; a first wavelength converter comprising a first phosphor that absorbs the primary light and converts the primary light into a first wavelength-converted light having a wavelength longer than that of the primary light; and a second wavelength converter comprising a second phosphor that absorbs the primary light and converts the primary light into a second wavelength-converted light having a wavelength longer than that of the primary light, wherein the first wavelength-converted light is a fluorescence having a light component over an entire wavelength range of 700 nm or more to 800 nm or less and having a peak where a fluorescence intensity shows a maximum value in a wavelength range of 700 nm or more; the second wavelength-converted light is a fluorescence having a peak where a fluorescence intensity shows a maximum value in a wavelength range of 380 nm or more to less than 700 nm; and the light emitting device emits a first output light including the first wavelength-converted light and a second output light including the second wavelength-converted light alternately in time. a light source configured to emit a primary light; a first wavelength converter comprising a first phosphor that absorbs the primary light and converts the primary light into a first wavelength-converted light having a wavelength longer than that of the primary light; and a second wavelength converter comprising a second phosphor that absorbs the primary light and converts the primary light into a second wavelength-converted light having a wavelength longer than that of the primary light, wherein the first wavelength-converted light is a fluorescence having a light component over an entire wavelength range of 700 nm or more to 800 nm or less and having a peak where a fluorescence intensity shows a maximum value in a wavelength range of 700 nm or more; the second wavelength-converted light is a fluorescence having a peak where a fluorescence intensity shows a maximum value in a wavelength range of 380 nm or more to less than 700 nm; and the light emitting device emits a first output light including the first wavelength-converted light and a second output light including the second wavelength-converted light alternately in time.
Milling tool for milling and/or drilling workpieces, which is rotatable in a direction of rotation about an axis of rotation during machining, comprising: - a milling head, which has a radius cutter that describes a portion in the form of a circular arc such that the milling head takes up a partially spherical, in particular a hemispherical volume, in rotation, - a main body, which has a main feature in the form of a helical recess with respect to the rotation volume taken up by the rotating milling tool in order to form a conveying helix, wherein the main feature is provided with a cutting edge as main cutter, - characterized in that the main feature has a smooth lateral surface arranged on the side facing away from the main cutter in the direction of rotation. - a milling head, which has a radius cutter that describes a portion in the form of a circular arc such that the milling head takes up a partially spherical, in particular a hemispherical volume, in rotation, - a main body, which has a main feature in the form of a helical recess with respect to the rotation volume taken up by the rotating milling tool in order to form a conveying helix, wherein the main feature is provided with a cutting edge as main cutter, - characterized in that the main feature has a smooth lateral surface arranged on the side facing away from the main cutter in the direction of rotation.
A non-occlusive intravascular device for local application of a therapeutic agent to a luminal wall of a blood vessel at a selected site within the vessel, the device comprising: a catheter having a distal end and a proximal end; a radially expandable/collapsible flexible scaffold circumferentially connected around a distal portion of said catheter extending between a first location and a second location on said distal portion, wherein said scaffold has an open-skeletal structure and a flexible outer surface capable of conforming to the luminal wall at the selected site and wherein said therapeutic agent is loaded on the outer surface of the scaffold; a controllable mechanism for expanding and collapsing said scaffold; one or more electromagnetic antennas located on said catheter between said first and second locations; and a plurality of touch sensors distributed at key points on the outer surface of said scaffold, and a control unit, wherein said one or more electromagnetic antennas, said touch sensors and said controllable mechanism are in communication with said control unit programmed to collect and process data from the touch sensors and/or the one or more electromagnetic antennas, to control expansion of said scaffold in accordance with the processed data and to provide an indication when optimized deployment of the scaffold is achieved. a catheter having a distal end and a proximal end; a radially expandable/collapsible flexible scaffold circumferentially connected around a distal portion of said catheter extending between a first location and a second location on said distal portion, wherein said scaffold has an open-skeletal structure and a flexible outer surface capable of conforming to the luminal wall at the selected site and wherein said therapeutic agent is loaded on the outer surface of the scaffold; a controllable mechanism for expanding and collapsing said scaffold; one or more electromagnetic antennas located on said catheter between said first and second locations; and a plurality of touch sensors distributed at key points on the outer surface of said scaffold, and a control unit, wherein said one or more electromagnetic antennas, said touch sensors and said controllable mechanism are in communication with said control unit programmed to collect and process data from the touch sensors and/or the one or more electromagnetic antennas, to control expansion of said scaffold in accordance with the processed data and to provide an indication when optimized deployment of the scaffold is achieved.
A method of treating laundry in a clothes dryer having a rotating drum defining a treatment chamber, the method comprising: determining a load amount or a fabric type of the laundry; forming a layer of equalizing liquid on the laundry by applying an amount of equalizing liquid to the laundry to substantially equalize a surface energy of laundry within the treating chamber thereby to substantially equalize the hydrophobicity or hydrophilicity of the laundry; applying a liquid treating chemistry after forming the layer of equalizing liquid on the laundry; and drying the laundry within the treating chamber. determining a load amount or a fabric type of the laundry; forming a layer of equalizing liquid on the laundry by applying an amount of equalizing liquid to the laundry to substantially equalize a surface energy of laundry within the treating chamber thereby to substantially equalize the hydrophobicity or hydrophilicity of the laundry; applying a liquid treating chemistry after forming the layer of equalizing liquid on the laundry; and drying the laundry within the treating chamber.
A sliding member including a bearing alloy layer and a resin coating layer provided on a slide surface of the bearing alloy layer, characterized in that the resin coating layer has microscopically minute irregular protrusions and recesses on a surface thereof that forms the slide surface, instead of variation in macroscopic film thickness of the resin coating layer itself, wherein the resin coating layer being configured in that a shape line is so defined as to represent a shape of a surface of the resin coating layer on a side opposite the bearing alloy layer by using an X-Y coordinate system formed of an X axis representing a position between arbitrary two points on the surface and a Y axis perpendicular to the X axis and representing a thickness direction of the resin coating layer, the shape line is divided by an imaginary straight line (Lx) parallel to the X axis to set recessed regions that protrude downward from the imaginary straight line (Lx) and protruding regions that protrude upward from the imaginary straight line (Lx), and the imaginary straight line (Lx) so positioned that a sum of areas of the recessed regions is equal to a sum of areas of the protruding regions is defined as a protrusion and recess average line (Lv), regions that protrude downward from the protrusion and recess average line (Lv) are defined as recesses, and regions that protrude upward from the protrusion and recess average line (Lv) are defined as protrusions, an average area Sa per recess ranges from 4 to 120 μm 2, and a number M of recesses between the two points that are separate from each other by a distance of 1 mm ranges from 3 to 20, the resin coating layer is made of a resin that serves as a binder material, and an additive, and in the resin coating layer, controlling the aggregation state of the additive particles that disperse in the resin binder material allows minute protrusions and recesses on the surface to be controlled.
A cellulosic filament precursor dope characterised by comprising, based upon the total weight of said precursor dope, from 7 to 20 weight percent of microfibrillar cellulose fibers, 0.2 to 3 weight percent of a thickening agent and at least 75 weight percent of a water-based solvent, said microfibrillar cellulose fibers being dispersed in said solvent and said thickening agent being dissolved in said solvent, said precursor dope having a dynamic viscosity ranging from 800 to 3000 Pascal seconds at a shear rate of 100 reciprocal seconds.
A method for fertigation of plants comprising - a provision of a series of stock solutions comprising a stock solution comprising iron and at least one polyphosphate, at basic pH or at pH between 4.5 and 6.2, advantageously greater than or equal to 5.0 and lower than or equal to 6.0, preferably a pH greater than or equal to 5.5, formed by adding iron and at least one polyphosphate to an aqueous phase, - feeding each of the stock solutions into a diluting system to form a fertigation solution, - feeding a fertigation device by means of a transfer device, supplying said fertigation device with said fertigation solution, with the proviso that if said stock solution is at basic pH, a sufficient amount of acid is added to said diluting system prior to feeding said stock solution, and sufficiently intensive mixing conditions at a point of feeding said stock solution to said diluting system are provided so that said fertigation solution has a pH below 6.2. - a provision of a series of stock solutions comprising a stock solution comprising iron and at least one polyphosphate, at basic pH or at pH between 4.5 and 6.2, advantageously greater than or equal to 5.0 and lower than or equal to 6.0, preferably a pH greater than or equal to 5.5, formed by adding iron and at least one polyphosphate to an aqueous phase, - feeding each of the stock solutions into a diluting system to form a fertigation solution, - feeding a fertigation device by means of a transfer device, supplying said fertigation device with said fertigation solution,
A method for operating a terminal in a wireless communication system, the method comprising: transmitting a message including an indication of a beam reciprocity capability of the terminal if a random access response is detected in the random access; and detecting a contention resolution information to complete the random access, wherein the beam reciprocity capability comprises: no beam reciprocity capability, full beam reciprocity capability and partial beam reciprocity capability, wherein the partial beam reciprocity capability is further divided into a strong partial beam reciprocity capability and a weak partial beam reciprocity capability based on a beam direction scope on which a transmission beam scan is required to be performed after an optimal reception beam direction is acquired at the terminal. transmitting a message including an indication of a beam reciprocity capability of the terminal if a random access response is detected in the random access; and detecting a contention resolution information to complete the random access, wherein the beam reciprocity capability comprises: no beam reciprocity capability, full beam reciprocity capability and partial beam reciprocity capability, wherein the partial beam reciprocity capability is further divided into a strong partial beam reciprocity capability and a weak partial beam reciprocity capability based on a beam direction scope on which a transmission beam scan is required to be performed after an optimal reception beam direction is acquired at the terminal.
A razor blade having a thickness of 0.05 mm to 0.1 mm comprising: a base portion; a bent portion extending in a bent manner from one end of the base portion; and an edge portion extending from one end of the bent portion, a cutting edge being formed at one end of the edge portion, the razor blade being characterized by a first separation distance X between a straight line extending in a longitudinal direction from a front surface of the base portion and an end point of the cutting edge ranges from 0.3 mm to 0.85 mm, and wherein a ratio X/Y of the first separation distance X to a second separation distance Y between a straight line extending in a forward and backward direction from the other end of the base portion and the end point of the cutting edge ranges from 0.15 to 0.4. a base portion; a bent portion extending in a bent manner from one end of the base portion; and an edge portion extending from one end of the bent portion, a cutting edge being formed at one end of the edge portion, the razor blade being characterized by a first separation distance X between a straight line extending in a longitudinal direction from a front surface of the base portion and an end point of the cutting edge ranges from 0.3 mm to 0.85 mm, and wherein a ratio X/Y of the first separation distance X to a second separation distance Y between a straight line extending in a forward and backward direction from the other end of the base portion and the end point of the cutting edge ranges from 0.15 to 0.4.
Method for filling and welding film bags (6, 7, 8, 9, 10), wherein a plurality of film bags (6, 7, 8, 9, 10) received in succession by a rotating carousel are filled by a plurality of filling stations arranged on the rotating carousel and subsequently the filled film bags (9, 10) are guided, one after the other, by the rotating carousel, past a welding station assigned to the rotating carousel and stationarily arranged on the rotating carousel for welding the filled film bags (9, 10), characterised in that the welding station comprises a plurality of welding devices (17, 18) and the plurality of welding devices (17, 18) are arranged in different heights of the welding station.
A method comprising: establishing a link between two N_Port Identifier Virtualization, NPIV, switches (20, 22), the link having a high cost assigned thereto and being advertised for Fabric Shortest Path First, FSPF, computation, each of the NPIV switches (20, 22) in communication with a plurality of hosts through an N_Port Virtualization, NPV, device operable to aggregate multiple locally connected N_Ports into an N_Port Proxy, and with a Fibre Channel switch comprising an F_Port; receiving at a first of the NPIV switches, an indication of a failure at a second of the NPIV switches; receiving data at the first NPIV switch, said data destined for one of the hosts associated with a domain of the second NPIV switch; and forwarding, by the first NPIV switch, said data to the NPV device for delivery to the host, wherein a Fibre Channel Identifier, FCID, of the host is the same before and after said failure at the second NPIV switch; wherein said high cost of the link is set to prevent the link from being selected as a best path when the NPIV switches (20, 22) are both operating. establishing a link between two N_Port Identifier Virtualization, NPIV, switches (20, 22), the link having a high cost assigned thereto and being advertised for Fabric Shortest Path First, FSPF, computation, each of the NPIV switches (20, 22) in communication with a plurality of hosts through an N_Port Virtualization, NPV, device operable to aggregate multiple locally connected N_Ports into an N_Port Proxy, and with a Fibre Channel switch comprising an F_Port; receiving at a first of the NPIV switches, an indication of a failure at a second of the NPIV switches; receiving data at the first NPIV switch, said data destined for one of the hosts associated with a domain of the second NPIV switch; and forwarding, by the first NPIV switch, said data to the NPV device for delivery to the host, wherein a Fibre Channel Identifier, FCID, of the host is the same before and after said failure at the second NPIV switch; wherein said high cost of the link is set to prevent the link from being selected as a best path when the NPIV switches (20, 22) are both operating.
A method of manufacturing a thermoelectric module, characterized in that the method comprises: forming a first wax model (10,31,50) which represents a state where first thermoelectric elements (1,41) being a p-type thermoelectric element or n-type thermoelectric element are arranged in a first predetermined pattern; forming a first mold (11,51) by setting a mold material in which the first wax model has been imbedded, and melting out the first wax model; casting a first group of the first thermoelectric elements that are arranged in the first predetermined pattern, by pouring molten metal of a first thermoelectric material into the first mold to solidify the molten metal; forming a second wax model which represents a state where second thermoelectric elements (4,42) are arranged in a second predetermined pattern that is allowed to be connected with the first thermoelectric elements, the second thermoelectric elements being an n-type thermoelectric element or p-type thermoelectric element that is connected with the first thermoelectric element to form the thermoelectric module; forming a second mold by setting a mold material in which the second wax model has been imbedded, and melting out the second wax model; casting a second group of second thermoelectric elements that are arranged in the second predetermined pattern, by pouring molten metal of a second thermoelectric material into the second mold to solidify the molten metal; and jointing the first group of the first thermoelectric elements with the second group of the second thermoelectric elements electrically in series. forming a first wax model (10,31,50) which represents a state where first thermoelectric elements (1,41) being a p-type thermoelectric element or n-type thermoelectric element are arranged in a first predetermined pattern; forming a first mold (11,51) by setting a mold material in which the first wax model has been imbedded, and melting out the first wax model; casting a first group of the first thermoelectric elements that are arranged in the first predetermined pattern, by pouring molten metal of a first thermoelectric material into the first mold to solidify the molten metal; forming a second wax model which represents a state where second thermoelectric elements (4,42) are arranged in a second predetermined pattern that is allowed to be connected with the first thermoelectric elements, the second thermoelectric elements being an n-type thermoelectric element or p-type thermoelectric element that is connected with the first thermoelectric element to form the thermoelectric module; forming a second mold by setting a mold material in which the second wax model has been imbedded, and melting out the second wax model; casting a second group of second thermoelectric elements that are arranged in the second predetermined pattern, by pouring molten metal of a second thermoelectric material into the second mold to solidify the molten metal; and jointing the first group of the first thermoelectric elements with the second group of the second thermoelectric elements electrically in series.