mhurhangee/patent-ind-claim-en huggingface dataset:
Plug-in connection system for a two-part plug-in connection comprising a plug-in connector and a mating plug , wherein the plug-in connector has an outer sleeve with a latching unit which is arranged therebetween, which outer sleeve and latching unit are arranged on a plug body , wherein the plug-in connector , on its plug-in side, has a sliding mechanism for latching with and unlatching from the mating plug , wherein the latching unit , as latching ring , comprises a ring with a plurality of fingers which are axially oriented thereon and at the ends of which latching hooks are integrally formed, wherein the outer sleeve , as sliding ring , can be axially displaced on the plug body by a certain distance, spaced apart from the latching ring , wherein the mating plug comprises a housing , the plug-in side of which, as plug-in sleeve , is formed with a plug-in edge on which a plurality of latching groove regions are arranged in a circumferentially spaced apart manner, characterized in that the latching groove regions are formed from a plurality of latching grooves which are spaced apart at a prespecified distance (s), wherein the respectively first latching grooves of the latching groove regions are at different distances (d1, d2, d3) from the plug-in edge of the plug-in sleeve , wherein the difference between in each case two first latching grooves , with which the latching hooks engage immediately one after the other during the plug-in process, is smaller than the prespecified distance (s), and wherein the difference constitutes an effective latching distance (ds) at which the plug-in connector latches in when it is pushed onto the mating plug .
An organic light-emitting device comprising: a first electrode ; a second electrode ; and a light-emitting layer disposed between the first and second electrodes; wherein the light-emitting layer contains an organic compound capable of emitting photoluminescent light with a peak wavelength of 430 to 480 nm, when measured for a 10 -5 mol/L solution of the organic compound in toluene; characterized in that the organic compound has a photoluminescent emission spectrum having a first vibration peak with a full width at half maximum of 30 nm or less and a second vibration peak and an intensity ratio of the second vibration peak to the first vibration peak is 0.60 or less; and the organic compound has a profile factor PF of 0.02 or less at a wave number of 1,300 to 1,680 cm -1 as calculated from Huang-Rhys factors S k using the following equation: PF = ∑ k ∈ R S k / N basis where R is a normal vibrational mode of the organic compound within the range of 1,300 to 1,680 cm -1 , and N basis is the number of atoms, other than those forming a substituent and hydrogen atoms, in the framework of the organic compound. a first electrode ; a second electrode ; and a light-emitting layer disposed between the first and second electrodes; wherein the light-emitting layer contains an organic compound capable of emitting photoluminescent light with a peak wavelength of 430 to 480 nm, when measured for a 10 -5 mol/L solution of the organic compound in toluene; characterized in that the organic compound has a photoluminescent emission spectrum having a first vibration peak with a full width at half maximum of 30 nm or less and a second vibration peak and an intensity ratio of the second vibration peak to the first vibration peak is 0.60 or less; and the organic compound has a profile factor PF of 0.02 or less at a wave number of 1,300 to 1,680 cm -1 as calculated from Huang-Rhys factors S k using the following equation: PF = ∑ k ∈ R S k / N basis where R is a normal vibrational mode of the organic compound within the range of 1,300 to 1,680 cm -1 , and N basis is the number of atoms, other than those forming a substituent and hydrogen atoms, in the framework of the organic compound.
A combination of: a) A peptide according to a sequence as set forth in SEQ ID Nos. 1-11 or a sequence which is at least 90 %, 95%, 99% sequence identity to the amino acid sequences set forth in SEQ ID Nos. 1-11, comprising a core amino acid sequence which is identical or similar to the amino acid sequence of a member of the Cecropin family, wherein the core amino acid sequence is extended at the N-terminus by an N-terminal group and extended at the C-terminus by a C-terminal group; and wherein the N-terminal group and the C-terminal group form a covalent bond so as to form a cyclic peptide or homomultimer assembly via intermolecular covalent linkage, wherein the covalent linkage is a disulfide bond; and b) an antibiotic drug selected from the group consisting of Polymyxins, Rifamycins, Lipiarmycins, Quinolones, Sulfonamides, Macrolides, Lincosamides, Aminoglycosides, Ansamycin, Glycopeptide, Monobactam, Nitrofuran, Oxazolidinone, Fluoroquinolone, cephamycins, carbapenems; wherein the peptide forms pores in the membranes of bacteria, wherein the pores increase the influx of the antibiotic drug and wherein the combination is for use in treating an infection or disinfecting a wound by contacting the wound with the combination to overcome inherent or acquired resistance of a microorganism to an antibiotic agent. a) A peptide according to a sequence as set forth in SEQ ID Nos. 1-11 or a sequence which is at least 90 %, 95%, 99% sequence identity to the amino acid sequences set forth in SEQ ID Nos. 1-11, comprising a core amino acid sequence which is identical or similar to the amino acid sequence of a member of the Cecropin family, wherein the core amino acid sequence is extended at the N-terminus by an N-terminal group and extended at the C-terminus by a C-terminal group; and wherein the N-terminal group and the C-terminal group form a covalent bond so as to form a cyclic peptide or homomultimer assembly via intermolecular covalent linkage, wherein the covalent linkage is a disulfide bond; and b) an antibiotic drug selected from the group consisting of Polymyxins, Rifamycins, Lipiarmycins, Quinolones, Sulfonamides, Macrolides, Lincosamides, Aminoglycosides, Ansamycin, Glycopeptide, Monobactam, Nitrofuran, Oxazolidinone, Fluoroquinolone, cephamycins, carbapenems;
A stable solution for parenteral injection, comprising: (a) a peptide or a salt thereof, wherein the peptide has been dried in a non-volatile buffer, and wherein the dried peptide has a pH memory that is about equal to the pH of the peptide in the non-volatile buffer; and (b) an aprotic polar solvent; wherein the moisture content of the solution is less than 5% w/w, and wherein the dried peptide maintains the pH memory that is about equal to the pH of the peptide in the non-volatile buffer when the dried peptide is reconstituted in the aprotic polar solvent to obtain the solution. (a) a peptide or a salt thereof, wherein the peptide has been dried in a non-volatile buffer, and wherein the dried peptide has a pH memory that is about equal to the pH of the peptide in the non-volatile buffer; and (b) an aprotic polar solvent; wherein the moisture content of the solution is less than 5% w/w, and wherein the dried peptide maintains the pH memory that is about equal to the pH of the peptide in the non-volatile buffer when the dried peptide is reconstituted in the aprotic polar solvent to obtain the solution.
A method of generation of a single point calibration value , comprising: a) contacting a capture analyte-binding molecule with a predetermined concentration of tracer analyte labeled with a first label and a predetermined concentration of detection analyte-binding molecule labeled with a second label, wherein the capture analyte-binding molecule and the detection analyte-binding molecule concurrently bind to the tracer analyte under conditions which allow for the formation of a capture analyte-binding molecule /tracer analyte/detection analyte- binding molecule complex ; b) measuring the signal intensities obtained of the first label ( I 1 0 ) and of the second label ( I 2 0 ) in the capture analyte-binding molecule /tracer analyte/detection analyte-binding molecule complex ; and c) determining a correction factor ( F ) as the ratio of the intensity of the second label ( I 2 0 ) to the intensity of the first label ( I 1 0 ). a) contacting a capture analyte-binding molecule with a predetermined concentration of tracer analyte labeled with a first label and a predetermined concentration of detection analyte-binding molecule labeled with a second label, wherein the capture analyte-binding molecule and the detection analyte-binding molecule concurrently bind to the tracer analyte under conditions which allow for the formation of a capture analyte-binding molecule /tracer analyte/detection analyte- binding molecule complex ; b) measuring the signal intensities obtained of the first label ( I 1 0 ) and of the second label ( I 2 0 ) in the capture analyte-binding molecule /tracer analyte/detection analyte-binding molecule complex ; and c) determining a correction factor ( F ) as the ratio of the intensity of the second label ( I 2 0 ) to the intensity of the first label ( I 1 0 ).
A method for manufacturing a three-dimensional object, the method comprising: providing an ink composition, wherein the ink composition includes a carrier vehicle, tungsten carbide particles, at least one dispersing agent, at least one binder, and cobalt particles, wherein the carrier vehicle includes at least one glycol ether; and wherein the cobalt particles are cobalt and/or organo cobalt compound; dispensing the ink composition from a print head to form a three-dimensional object using an additive process in which successive layers of the ink composition are laid down, wherein each layer from the ink composition is dispensed onto a previously dispensed solid layer from the ink composition; and heat treating the dispensed ink composition by: heating the dispensed ink composition up to a first temperature sufficient to evaporate, or disintegrate and evaporate, all organic material in the dispensed ink composition; and further heating the heated dispensed ink composition up to a second temperature sufficient to melt the cobalt particles and sinter the tungsten carbide particles. providing an ink composition, wherein the ink composition includes a carrier vehicle, tungsten carbide particles, at least one dispersing agent, at least one binder, and cobalt particles, wherein the carrier vehicle includes at least one glycol ether; and wherein the cobalt particles are cobalt and/or organo cobalt compound; dispensing the ink composition from a print head to form a three-dimensional object using an additive process in which successive layers of the ink composition are laid down, wherein each layer from the ink composition is dispensed onto a previously dispensed solid layer from the ink composition; and heat treating the dispensed ink composition by: heating the dispensed ink composition up to a first temperature sufficient to evaporate, or disintegrate and evaporate, all organic material in the dispensed ink composition; and further heating the heated dispensed ink composition up to a second temperature sufficient to melt the cobalt particles and sinter the tungsten carbide particles. heating the dispensed ink composition up to a first temperature sufficient to evaporate, or disintegrate and evaporate, all organic material in the dispensed ink composition; and further heating the heated dispensed ink composition up to a second temperature sufficient to melt the cobalt particles and sinter the tungsten carbide particles.
A method for simultaneously coordinating a wake control system and a noise control system of a wind farm having a plurality of wind turbines , the method comprising: determining, via a farm controller , one or more wake control set points for the wake control system ; determining, via the farm controller , one or more noise control set points for the noise control system ; selecting, via the farm controller , between the wake control set points and the noise control set points for each of the plurality of wind turbines ; sending, via the farm controller , the selected control set points to local controllers of the plurality of wind turbines ; and operating the wind farm based on the selected control set points, wherein the wake control set points , the noise control set points , and the selected control set points comprise at least one of a tip speed ratio, a pitch angle, a yaw angle, a rotor speed, an electrical power, or a generator speed. determining, via a farm controller , one or more wake control set points for the wake control system ; determining, via the farm controller , one or more noise control set points for the noise control system ; selecting, via the farm controller , between the wake control set points and the noise control set points for each of the plurality of wind turbines ; sending, via the farm controller , the selected control set points to local controllers of the plurality of wind turbines ; and operating the wind farm based on the selected control set points, wherein the wake control set points , the noise control set points , and the selected control set points comprise at least one of a tip speed ratio, a pitch angle, a yaw angle, a rotor speed, an electrical power, or a generator speed.
An apparatus for a platooning vehicle , the platooning vehicle being a member of a platoon of two or more vehicles, the apparatus comprising a communication module configured to make information available to other vehicles; and a control module configured to control the communication module , wherein the control module is further configured to determine information on an area of the platoon , and mark the area of the platoon for other vehicles using the communication module , wherein the control module is configured to provide a message with further information on the platoon using the communication module , wherein the further information comprises information on an upcoming maneuver of the platoon. a communication module configured to make information available to other vehicles; and a control module configured to control the communication module , wherein the control module is further configured to determine information on an area of the platoon , and mark the area of the platoon for other vehicles using the communication module , wherein the control module is configured to provide a message with further information on the platoon using the communication module , wherein the further information comprises information on an upcoming maneuver of the platoon. determine information on an area of the platoon , and mark the area of the platoon for other vehicles using the communication module , wherein the control module is configured to provide a message with further information on the platoon using the communication module , wherein the further information comprises information on an upcoming maneuver of the platoon.
An electronic device comprising: a housing comprising a metal main body formed on a first surface, and at least one side wall formed at a periphery of the main body on a second surface different from the first surface; a slit area to be used as an antenna for performing a communication function, comprising a plurality of slits , formed on a surface of the at least one side wall of the housing and having a specific width and a specific length, at least a portion of each slit extending from an outer surface of the housing to an inner surface of the housing; a plurality of metal rail parts that are partitioned by the plurality of slits; a slit filling part filled in the interior of each of the plurality of slits; an inner support structure that is formed on the inner surface of the housing and is connected to at least a portion of the slit filling parts; and at least one metal rib that electrically connects the rail parts to a part of the housing, wherein each metal rib fixes the rail parts to each other in an area partitioned by the slits , wherein the specific length of the slit area is smaller than an entire length of a side wall, wherein the slit area is formed to have a U shape on the surface of the at least one side wall of the housing. a housing comprising a metal main body formed on a first surface, and at least one side wall formed at a periphery of the main body on a second surface different from the first surface; a slit area to be used as an antenna for performing a communication function, comprising a plurality of slits , formed on a surface of the at least one side wall of the housing and having a specific width and a specific length, at least a portion of each slit extending from an outer surface of the housing to an inner surface of the housing; a plurality of metal rail parts that are partitioned by the plurality of slits; a slit filling part filled in the interior of each of the plurality of slits; an inner support structure that is formed on the inner surface of the housing and is connected to at least a portion of the slit filling parts; and at least one metal rib that electrically connects the rail parts to a part of the housing, wherein each metal rib fixes the rail parts to each other in an area partitioned by the slits , wherein the specific length of the slit area is smaller than an entire length of a side wall, wherein the slit area is formed to have a U shape on the surface of the at least one side wall of the housing.
A shoe stiffener comprising a) thermoformable polymer composition which comprises a polyamide resin and an ionomer resin, wherein the thermoformable polymer composition comprises from 3 to 45 weight percent of polyamide resin and from 55 to 97 weight percent of an ionomer resin, the weight percent being based on the total weight of thermoformable polymer composition, and b) a fibrous material. a) thermoformable polymer composition which comprises a polyamide resin and an ionomer resin, wherein the thermoformable polymer composition comprises from 3 to 45 weight percent of polyamide resin and from 55 to 97 weight percent of an ionomer resin, the weight percent being based on the total weight of thermoformable polymer composition, and b) a fibrous material.
A catalyst component for olefin polymerization, comprising magnesium, titanium, halogen and an internal electron donor, wherein the internal electron donor comprises an imine compound with a ketone group as shown in Formula I, wherein in Formula I, R is selected from a group consisting of hydroxyl, C 1 -C 20 alkyl with or without a halogen atom substitute, C 2 -C 20 alkenyl with or without a halogen atom substitute group, and C 6 -C 30 aryl with or without a halogen atom substitute group; R 1 -R 5 may be identical to or different from each other, each independently selected from a group consisting of hydrogen, C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 6 -C 30 arylalkyl, C 6 -C 30 alkylaryl, C 9 -C 40 fused aryl, halogen atoms, hydroxyl and C 1 -C 20 alkoxy; X is nitrogen atom or CH.
VIBRATION ISOLATION DEVICE FOR AGRICULTURAL MACHINES, these machines comprising at least one roller coupled with a supporting structure to which the at least one roller is fastened at the ends thereof, wherein the at least one roller may or may not be provided with blades or other working tools on its surface, wherein the vibration isolation device is applicable as an isolating means of the vibration that occurs when the roller is dragged along the ground in a direction transverse to the longitudinal shaft of rotation of the roller , the vibration isolation device comprising several rubber isolating elements distributed radially to said shaft , so that they constitute a flexible link between roller and supporting structure at each end of the roller , whereby each rubber isolating elements is secured with an inclination regarding the shaft , between the support of the bearing of the shaft and the corresponding end of the supporting structure , characterized in that the rubber isolating elements are incorporated in two crowns that are configured to be incorporated, opposed, one at each end of the roller between the bearing support of its shaft and the corresponding end of the supporting structure , and in that the isolating elements are secured between respective pairs of flanges that fasten them, respectively, to the bearing support of the shaft of roller and to the end of the supporting structure .
Device for measuring the pH of an effluent (E), said device comprising means for measuring a piece of information representing the pH of said effluent (E) that are to be put into contact with said effluent (E), and means for modifying the value of the pH of said effluent (E) in proximity to said means for measuring, said means for measuring comprise an ISFET type transistor comprising a source , a drain , a gate with a surface sensitive to the H + ions and that is to be put into contact with said effluent, said means for modifying the value of the pH comprising an anode and a cathode and first means for generating electric current between said anode and said cathode , said device comprising a membrane permeable to the H + ions, said membrane having an inner surface covering and being in contact with said anode and said gate , and an outer surface, said cathode and said outer surface of said membrane being to be put into contact with said effluent (E), said device comprising means for calibrating said device for measuring, said means for calibrating being configured to calibrate the device for measuring after modification of said pH in the interior of said membrane to at least one known value pH 1 by said means for modifying.
A method for producing a substrate structure, the method comprising: laminating a photoactive dielectric layer directly on a copper layer of a core material; forming a plurality of trace patterns on the photoactive dielectric layer; plating the plurality of trace patterns to form a plurality of traces embedded in the photoactive dielectric layer without stripping the photoactive dielectric layer ; forming an insulating dielectric layer on the photoactive dielectric layer after plating the plurality of trace patterns, the insulating dielectric layer covering the plurality of traces; forming a via through the insulating dielectric layer and the photoactive dielectric layer; forming additional routing patterns on the insulating dielectric layer; removing the core material; and applying a solder mask . laminating a photoactive dielectric layer directly on a copper layer of a core material; forming a plurality of trace patterns on the photoactive dielectric layer; plating the plurality of trace patterns to form a plurality of traces embedded in the photoactive dielectric layer without stripping the photoactive dielectric layer ; forming an insulating dielectric layer on the photoactive dielectric layer after plating the plurality of trace patterns, the insulating dielectric layer covering the plurality of traces; forming a via through the insulating dielectric layer and the photoactive dielectric layer; forming additional routing patterns on the insulating dielectric layer; removing the core material; and applying a solder mask .