mhurhangee/patent-ind-claim-en huggingface dataset:
A method for assisted operating support for a ground compaction machine , comprising the steps of: a) controlling the ground compaction machine by an operator; b) detecting of at least a change in travel speed the method being characterized with the additional steps c) determining a time at which a reversal of the ground compaction machine takes place from the parameter detected in step b); d) detecting a steering angle (w) of the ground compaction machine within a time interval (T) around the time determined in step c); e) comparing the steering angle (w) within the interval (T) with predetermined reference values for a target steering angle; f) outputting a result of the comparison . a) controlling the ground compaction machine by an operator; b) detecting of at least a change in travel speed the method being characterized with the additional steps c) determining a time at which a reversal of the ground compaction machine takes place from the parameter detected in step b); d) detecting a steering angle (w) of the ground compaction machine within a time interval (T) around the time determined in step c); e) comparing the steering angle (w) within the interval (T) with predetermined reference values for a target steering angle; f) outputting a result of the comparison .
A rodent whose germline genome comprises an endogenous immunoglobulin λ light chain locus comprising: (a) one or more human Vλ gene segments; (b) one or more human Yλ gene segments; (c) one or more human Cλ gene segments; (d) one or more rodent immunoglobulin λ light chain enhancers (Eλ); (e) three human Eλs; and (f) a rodent Cλ gene segment, wherein (a) and (b) are capable of rearranging to form rearranged human λ variable region genes that are expressed in conjunction with constant region gene segments of (c) as λ light chains of antigen binding proteins, and wherein (a) and (b) are also capable of rearranging to form rearranged human λ variable region genes that are expressed in conjunction with the rodent Cλ gene segment of (f) as λ light chains of antigen binding proteins. (a) one or more human Vλ gene segments; (b) one or more human Yλ gene segments; (c) one or more human Cλ gene segments; (d) one or more rodent immunoglobulin λ light chain enhancers (Eλ); (e) three human Eλs; and (f) a rodent Cλ gene segment,
A wind turbine system comprising: a plurality of wind turbines mounted to a support structure including a tower, wherein each of the plurality of wind turbines includes a rotor and a power generation system driven by the rotor, and at least one of a rotor blade pitch adjustment means and a generator power control means; control means that receives vibration data associated with the support structure and which is configured to determine a damping control command for a respective one of the plurality of wind turbines; wherein the or each of the wind turbines includes a damping controller that receives a damping control command and which is operable to apply a damping control input to one or both of the blade pitch adjustment means and the generator power control means so as to counteract the measured vibration of the support structure characterized in that the damping controller takes into account structural correlations between the wind turbines in the damping control input, the structural correlations being defined by a dynamic model of the wind turbine system. a plurality of wind turbines mounted to a support structure including a tower, wherein each of the plurality of wind turbines includes a rotor and a power generation system driven by the rotor, and at least one of a rotor blade pitch adjustment means and a generator power control means; control means that receives vibration data associated with the support structure and which is configured to determine a damping control command for a respective one of the plurality of wind turbines; wherein the or each of the wind turbines includes a damping controller that receives a damping control command and which is operable to apply a damping control input to one or both of the blade pitch adjustment means and the generator power control means so as to counteract the measured vibration of the support structure characterized in that the damping controller takes into account structural correlations between the wind turbines in the damping control input, the structural correlations being defined by a dynamic model of the wind turbine system.
An elevator comprising a car and a counterweight ; a rotatable drive member ; one or more suspension ropes interconnecting the car and the counterweight and passing over the rotatable drive member ; a drive machinery (b,M,6,21,22) for controlling rotation of the drive member ; a sensing means mounted on the counterweight and arranged to sense state of an elevator component ; characterized in that said suspension rope(s) comprise(s) electrically conducting member(s) extending continuously along the length of the suspension rope(s) forming an electrically conducting connection between the car and counterweight , each of said electrically conducting member(s) being a load bearing member of the suspension rope in question, which load bearing member is made of composite material comprising reinforcing fibers (f) embedded in a polymer matrix (m), which reinforcing fibers (f) are carbon fibers; and in that the sensing means are functionally connected with the drive machinery (b,M,6,21,22) via said electrically conducting connection between the car and counterweight such that a predetermined state change sensed by the sensing means triggers the drive machinery (b,M,6,21,22) to brake rotation of the drive member and/or to stop rotating the drive member . a car and a counterweight ; a rotatable drive member ; one or more suspension ropes interconnecting the car and the counterweight and passing over the rotatable drive member ; a drive machinery (b,M,6,21,22) for controlling rotation of the drive member ; a sensing means mounted on the counterweight and arranged to sense state of an elevator component ; characterized in that said suspension rope(s) comprise(s) electrically conducting member(s) extending continuously along the length of the suspension rope(s) forming an electrically conducting connection between the car and counterweight , each of said electrically conducting member(s) being a load bearing member of the suspension rope in question, which load bearing member is made of composite material comprising reinforcing fibers (f) embedded in a polymer matrix (m), which reinforcing fibers (f) are carbon fibers; and in that the sensing means are functionally connected with the drive machinery (b,M,6,21,22) via said electrically conducting connection between the car and counterweight such that a predetermined state change sensed by the sensing means triggers the drive machinery (b,M,6,21,22) to brake rotation of the drive member and/or to stop rotating the drive member .
Device configured to be used in a LASIK surgery procedure and to be put in an operational position on an operative eye after a corneal flap has been created and has been put to an opened position, comprising: - an eye fixating portion configured to engage on the sclera around the cornea and to thereby perform a fixating action on the eye while enabling free access to the cornea when the device is in the operational position on the eye , and - a flap protecting portion configured to completely cover the corneal flap in the opened position thereof when the device is in the operational position on the eye , wherein the eye fixating portion comprises at least two support elements having a contact surface through which the eye fixating portion is to contact the sclera when the device is in the operational position on the eye , characterized in that a space between two support elements along the flap protecting portion is configured to accommodate a hinge portion of the corneal flap . - an eye fixating portion configured to engage on the sclera around the cornea and to thereby perform a fixating action on the eye while enabling free access to the cornea when the device is in the operational position on the eye , and - a flap protecting portion configured to completely cover the corneal flap in the opened position thereof when the device is in the operational position on the eye , wherein the eye fixating portion comprises at least two support elements having a contact surface through which the eye fixating portion is to contact the sclera when the device is in the operational position on the eye , characterized in that a space between two support elements along the flap protecting portion is configured to accommodate a hinge portion of the corneal flap .
A coated article including a coating supported by a glass substrate , the coating comprising: first and second infrared (IR) reflecting layers comprising silver, wherein said IR reflecting layers are spaced apart from one another, and wherein the first IR reflecting layer is located closer to the glass substrate than is the second IR reflecting layer ; a first substantially metallic or metallic absorption layer comprising Ni and/or Cr located such that the first absorption layer is located between the first and second IR reflecting layers , wherein the first absorption layer is sandwiched between and contacting first and second dielectric layers comprising silicon nitride; and a second substantially metallic or metallic absorption layer comprising Ni and/or Cr located such that both the first and second IR reflecting layers are located between the glass substrate and the second absorption layer , wherein the second absorption layer is located between and contacting the second IR reflecting layer and a third dielectric layer comprising silicon nitride, wherein said first and second absorption layers each comprise NiCr or NiCrN x . first and second infrared (IR) reflecting layers comprising silver, wherein said IR reflecting layers are spaced apart from one another, and wherein the first IR reflecting layer is located closer to the glass substrate than is the second IR reflecting layer ; a first substantially metallic or metallic absorption layer comprising Ni and/or Cr located such that the first absorption layer is located between the first and second IR reflecting layers , wherein the first absorption layer is sandwiched between and contacting first and second dielectric layers comprising silicon nitride; and a second substantially metallic or metallic absorption layer comprising Ni and/or Cr located such that both the first and second IR reflecting layers are located between the glass substrate and the second absorption layer , wherein the second absorption layer is located between and contacting the second IR reflecting layer and a third dielectric layer comprising silicon nitride, wherein said first and second absorption layers each comprise NiCr or NiCrN x .
An antibody, or an antigen-binding portion thereof, comprising: a heavy chain variable domain comprising an amino acid sequence having 85% to 100% identity to the amino acid sequence shown in SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence having 85% to 100% identity to the amino acid sequence shown in SEQ ID NO: 4, wherein the antibody or antigen-binding portion thereof, binds to Globo H and can cross-react with a tumor-associated carbohydrate antigen selected from sLe x , sTn, Tn, sLe a , α-NeuAc-OCH 2 C 6 H 4 -p-NHCOOCH 2 , Fucα1-2Galβ1-4GalNAcβ, NeuAca2-6Galb, Gala1-3Galb1-4GlaNAcb, (NeuAca2-8) 3 , 6Gal-HSO 3 -SiaLex, 6GluNAc-HSO 3 -SiaLex, α2-6 sialylated diantennary N-glycan or Polysialic acid. a heavy chain variable domain comprising an amino acid sequence having 85% to 100% identity to the amino acid sequence shown in SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence having 85% to 100% identity to the amino acid sequence shown in SEQ ID NO: 4, wherein the antibody or antigen-binding portion thereof, binds to Globo H and can cross-react with a tumor-associated carbohydrate antigen selected from sLe x , sTn, Tn, sLe a , α-NeuAc-OCH 2 C 6 H 4 -p-NHCOOCH 2 , Fucα1-2Galβ1-4GalNAcβ, NeuAca2-6Galb, Gala1-3Galb1-4GlaNAcb, (NeuAca2-8) 3 , 6Gal-HSO 3 -SiaLex, 6GluNAc-HSO 3 -SiaLex, α2-6 sialylated diantennary N-glycan or Polysialic acid.
A ceramic sintered body characterized by comprising: alumina (Al 2 O 3 ); and a compound represented by M1 3-X M2 X M3 5 O 12 , wherein the volume percent of the compound in the ceramic sintered body is from 3% to 70% inclusive; the ratio of the intensity of X-ray diffraction from a complex oxide of aluminum (Al) and the M2 to the intensity of X-ray diffraction from the compound in the ceramic sintered body is less than 0.05; the average grain diameter of the alumina (Al 2 O 3 ) contained in the ceramic sintered body is from 0.30 μm to 3.00 μm inclusive; the M1 is at least one selected from scandium (Sc), yttrium (Y), and lanthanoid elements; the M2 is at least one selected from lanthanoid elements except any lanthanoid element selected for the M1; the M3 is at least one of aluminum (Al) and gallium (Ga); and the X is from 0.003 to 0.500 inclusive. alumina (Al 2 O 3 ); and a compound represented by M1 3-X M2 X M3 5 O 12 , wherein the volume percent of the compound in the ceramic sintered body is from 3% to 70% inclusive; the ratio of the intensity of X-ray diffraction from a complex oxide of aluminum (Al) and the M2 to the intensity of X-ray diffraction from the compound in the ceramic sintered body is less than 0.05; the average grain diameter of the alumina (Al 2 O 3 ) contained in the ceramic sintered body is from 0.30 μm to 3.00 μm inclusive; the M1 is at least one selected from scandium (Sc), yttrium (Y), and lanthanoid elements; the M2 is at least one selected from lanthanoid elements except any lanthanoid element selected for the M1; the M3 is at least one of aluminum (Al) and gallium (Ga); and the X is from 0.003 to 0.500 inclusive.
Drop dispenser with the following features: a. the drop dispenser has a liquid reservoir , and b. the drop dispenser has a discharge head which is fastened to the liquid reservoir and has a discharge opening which is connected via a discharge channel to the liquid reservoir , and, c. in the discharge channel , the discharge head has an outlet valve with a valve body which adjoins a pressure chamber and can be moved at least partially by way of liquid pressure in the pressure chamber for the purpose of opening the discharge opening , and d. the valve body has a closing pin , which, in a closed state of the outlet valve , bears against an inner wall which surrounds the discharge opening , and a pressurizing collar which surrounds the closing pin , and e. the outlet valve has a valve chamber which, in relation to the valve body , is arranged so as to lie opposite the pressure chamber , and f. a reservoir ventilating channel is provided for the purpose of pressure equalization in the liquid reservoir , and g. a valve ventilating channel is provided for the purpose of pressure equalization between the valve chamber and an outer surrounding area, characterized by the following further features: h. the reservoir ventilating channel and the valve ventilating channel have inlets which are separate from one another on an outer side of the discharge head , and i. drop formation means are provided in the region of the discharge opening . a. the drop dispenser has a liquid reservoir , and b. the drop dispenser has a discharge head which is fastened to the liquid reservoir and has a discharge opening which is connected via a discharge channel to the liquid reservoir , and, c. in the discharge channel , the discharge head has an outlet valve with a valve body which adjoins a pressure chamber and can be moved at least partially by way of liquid pressure in the pressure chamber for the purpose of opening the discharge opening , and d. the valve body has a closing pin , which, in a closed state of the outlet valve , bears against an inner wall which surrounds the discharge opening , and a pressurizing collar which surrounds the closing pin , and e. the outlet valve has a valve chamber which, in relation to the valve body , is arranged so as to lie opposite the pressure chamber , and f. a reservoir ventilating channel is provided for the purpose of pressure equalization in the liquid reservoir , and g. a valve ventilating channel is provided for the purpose of pressure equalization between the valve chamber and an outer surrounding area, h. the reservoir ventilating channel and the valve ventilating channel have inlets which are separate from one another on an outer side of the discharge head , and i. drop formation means are provided in the region of the discharge opening .
System for controlling the quality of products in output from a cutting machine, in particular a cutting machine used for cutting logs of sheet material, in particular paper, having at least one cutting disc and one sharpening wheel , said control system comprising a PLC controller designed to control the cutting and sharpening process and an inspection system (S) comprising a vision system consisting of one or more cameras apt to scan at a given time instant (t(k)) a set of quality values (Q out ) consisting of one or more photographic scans of a roll in output from the cutting machine, characterised in that said vision system is made up of 4 to 8 cameras arranged at a distance of between 100 and 1000 mm from the centre of the roll , and a processing unit (D) receives said set of quality values (Q out ) of the roll in output and compares them with reference quality values (Q setpoint ) consisting of photos or renderings of rolls with ideal cutting quality to check whether the roll has sufficient quality levels and sends a command to the PLC controller aimed at performing an action consisting of increasing or decreasing one of the following parameters: - sharpening time (Δt sharp ) - sharpening frequency (f sharp ) - differential speed (Δv) between said sharpening wheel and said disc based on the result of the comparison between said set of quality values in output (Q out ) and the reference quality values (Q setpoint ) and of the action performed at the previous time instant (t(k-1)). characterised in that said vision system is made up of 4 to 8 cameras arranged at a distance of between 100 and 1000 mm from the centre of the roll , and a processing unit (D) receives said set of quality values (Q out ) of the roll in output and compares them with reference quality values (Q setpoint ) consisting of photos or renderings of rolls with ideal cutting quality to check whether the roll has sufficient quality levels and sends a command to the PLC controller aimed at performing an action consisting of increasing or decreasing one of the following parameters: - sharpening time (Δt sharp ) - sharpening frequency (f sharp ) - differential speed (Δv) between said sharpening wheel and said disc based on the result of the comparison between said set of quality values in output (Q out ) and the reference quality values (Q setpoint ) and of the action performed at the previous time instant (t(k-1)). - sharpening time (Δt sharp ) - sharpening frequency (f sharp ) - differential speed (Δv) between said sharpening wheel and said disc based on the result of the comparison between said set of quality values in output (Q out ) and the reference quality values (Q setpoint ) and of the action performed at the previous time instant (t(k-1)).
System for analysis of a fluid sample, the system at least comprising: a carrier with a channel for the fluid sample, wherein the carrier is a microfluidic chip, and the channel is a microfluidic channel; a socket for a plug , wherein the socket is arranged on the carrier and is open towards the channel ; characterised by a plug for plugging into the socket , the plug carrying a sensor and configured such that the sensor is in contact with an interior volume of the channel when the plug is plugged into the socket , wherein the sensor has an optical behaviour dependent on at least one variable of the sample. a carrier with a channel for the fluid sample, wherein the carrier is a microfluidic chip, and the channel is a microfluidic channel; a socket for a plug , wherein the socket is arranged on the carrier and is open towards the channel ; characterised by a plug for plugging into the socket , the plug carrying a sensor and configured such that the sensor is in contact with an interior volume of the channel when the plug is plugged into the socket , wherein the sensor has an optical behaviour dependent on at least one variable of the sample.
Removable structure comprising a support substrate and a silicon oxide layer arranged on said substrate at a first interface , the removable structure being characterised in that : • The oxide layer has a thickness of less than 200nm; • Light hydrogen and/or helium species are deeply distributed and over the whole extent of the structure according to an implantation profile , the maximum concentration of which is located in the thickness of the oxide layer ; • The total dose of implanted light species , with respect to the thickness of the oxide layer , exceeds the solubility limit of these light species in said oxide layer by at least a factor of five. • The oxide layer has a thickness of less than 200nm; • Light hydrogen and/or helium species are deeply distributed and over the whole extent of the structure according to an implantation profile , the maximum concentration of which is located in the thickness of the oxide layer ; • The total dose of implanted light species , with respect to the thickness of the oxide layer , exceeds the solubility limit of these light species in said oxide layer by at least a factor of five.
An aircraft comprising a supercharging system and a gas turbine engine , the supercharging system comprising: an ejector disposed in a core air intake of the gas turbine engine , the core air intake to direct air into a compressor of the gas turbine engine ; and a compressed air tank containing pressurized air, the compressed air tank fluidly coupled to the ejector , the ejector to provide the pressurized air into the core air intake to increase output power of the gas turbine engine . an ejector disposed in a core air intake of the gas turbine engine , the core air intake to direct air into a compressor of the gas turbine engine ; and a compressed air tank containing pressurized air, the compressed air tank fluidly coupled to the ejector , the ejector to provide the pressurized air into the core air intake to increase output power of the gas turbine engine .
A sample plate for laser desorption/ionization mass spectrometry comprising: a substrate (SS); and a photoreaction catalyst layer (CL) having a metal oxide formed on a surface of the substrate (SS), wherein a sample to be analyzed is disposed on the photoreactive catalyst layer (CL); characterized in that the surface of the substrate (SS) includes a uni-directional stripe pattern or crossing stripe pattern. a substrate (SS); and a photoreaction catalyst layer (CL) having a metal oxide formed on a surface of the substrate (SS), wherein a sample to be analyzed is disposed on the photoreactive catalyst layer (CL); characterized in that the surface of the substrate (SS) includes a uni-directional stripe pattern or crossing stripe pattern.
Cable contact weather protection device for receiving cable contact points, in particular fibre optic cable contact points, with at least one cable pass-through sealing unit comprising at least two separate sealing modules , which are exchangeable independently from each other and each of which has at least one sealing element and has at least one sheathing element that is adjacent to the respective sealing element , each of the sealing modules being configured, in at least one application state, to at least section-wise completely encompass at least one elongate body in a circumferential direction, wherein both the at least one sealing element and the at least one sheathing element comprise at least one hinge .