mhurhangee/ep-ind-claims huggingface dataset:
A method for selecting a substance inducing cross-adaptation of or suppressing a target odor, comprising: searching olfactory receptor polypeptides to identify an olfactory receptor polypeptide responding to a causative substance of the target odor; adding a test substance, which is different from the causative substance of the target odor, to the identified olfactory receptor polypeptide to measure response thereof; and selecting a test substance which activates the response of the olfactory receptor polypeptide as the substance inducing the cross-adaptation of or suppressing the target odor. searching olfactory receptor polypeptides to identify an olfactory receptor polypeptide responding to a causative substance of the target odor; adding a test substance, which is different from the causative substance of the target odor, to the identified olfactory receptor polypeptide to measure response thereof; and selecting a test substance which activates the response of the olfactory receptor polypeptide as the substance inducing the cross-adaptation of or suppressing the target odor.
A modacrylic-lyocell-nylon blended flame-retardant fabric, wherein yarns in the fabric contain modacrylic, lyocell and nylon with a mass ratio of: modacrylic: 55-65%; lyocell: 20-35%; nylon: 5-15%; wherein the mass ratio of each of modacrylic, lyocell and nylon in the fabric is: modacrylic: 55-65%; lyocell: 20-35%; nylon: 5-15%; and wherein the fabric weight is 185-221 grams per square meter. modacrylic: 55-65%; lyocell: 20-35%; nylon: 5-15%; wherein the mass ratio of each of modacrylic, lyocell and nylon in the fabric is: modacrylic: 55-65%; lyocell: 20-35%; nylon: 5-15%; and wherein the fabric weight is 185-221 grams per square meter. modacrylic: 55-65%; lyocell: 20-35%; nylon: 5-15%; and wherein the fabric weight is 185-221 grams per square meter.
A method of predicting a pose in an augmented reality device, the method comprising: obtaining, using an inertial measurement unit sensor provided in the AR device, IMU values corresponding to a movement of the AR device at an IMU rate of a first frequency; estimating intermediate 6-degrees of freedom poses of the AR device based on the obtained IMU values and images surrounding the AR device, the images being obtained at a frame rate of a second frequency by a camera provided in the AR device; and generating, by a processor, a pose prediction model for predicting relative 6D poses of the AR device; characterized by inputting the IMU values as a first input to the pose prediction model, and separately inputting the intermediate 6D poses, which are estimated as intermediate calculation results before predicting the relative 6D poses, as a second input to the pose prediction model; and outputting the relative 6D poses of the AR device by performing learning based on the obtained IMU values and the intermediate 6D poses using a deep neural network of the pose prediction model. obtaining, using an inertial measurement unit sensor provided in the AR device, IMU values corresponding to a movement of the AR device at an IMU rate of a first frequency; estimating intermediate 6-degrees of freedom poses of the AR device based on the obtained IMU values and images surrounding the AR device, the images being obtained at a frame rate of a second frequency by a camera provided in the AR device; and generating, by a processor, a pose prediction model for predicting relative 6D poses of the AR device; characterized by inputting the IMU values as a first input to the pose prediction model, and separately inputting the intermediate 6D poses, which are estimated as intermediate calculation results before predicting the relative 6D poses, as a second input to the pose prediction model; and outputting the relative 6D poses of the AR device by performing learning based on the obtained IMU values and the intermediate 6D poses using a deep neural network of the pose prediction model.
An article, comprising: a first side comprising a central cavity portion; Z and a platform portion that projects from the first side and that is not coplanar with the central cavity portion; a second side opposite the first side; and at least three hollow microneedles extending from the platform portion in a first direction; wherein the platform portion substantially surrounds the central cavity portion; wherein the platform portion comprises an inner perimeter proximate the central cavity portion and an outer perimeter distal the central cavity portion; wherein the at least three hollow microneedles each comprise a body that comprises: an outer surface; a base segment having a base and a first shape that is defined by a first section of the outer surface; a tip segment having a tip and a second shape that is defined by a second section of the outer surface, wherein the second shape is distinct from the first shape; a transition plane that delineates the base segment and the tip segment; and a central axis; wherein a first angle, defined by the central axis of each of the at least three hollow microneedles and a shortest line extending from the outer perimeter of the platform and through the transition plane of the microneedle, is greater than 50° and less than or equal to about 85°. a first side comprising a central cavity portion; Z and a platform portion that projects from the first side and that is not coplanar with the central cavity portion; a second side opposite the first side; and at least three hollow microneedles extending from the platform portion in a first direction; wherein the platform portion substantially surrounds the central cavity portion; wherein the platform portion comprises an inner perimeter proximate the central cavity portion and an outer perimeter distal the central cavity portion; wherein the at least three hollow microneedles each comprise a body that comprises: an outer surface; a base segment having a base and a first shape that is defined by a first section of the outer surface; a tip segment having a tip and a second shape that is defined by a second section of the outer surface, wherein the second shape is distinct from the first shape; a transition plane that delineates the base segment and the tip segment; and a central axis; an outer surface; a base segment having a base and a first shape that is defined by a first section of the outer surface; a tip segment having a tip and a second shape that is defined by a second section of the outer surface, wherein the second shape is distinct from the first shape; a transition plane that delineates the base segment and the tip segment; and a central axis; wherein a first angle, defined by the central axis of each of the at least three hollow microneedles and a shortest line extending from the outer perimeter of the platform and through the transition plane of the microneedle, is greater than 50° and less than or equal to about 85°.
A reformer for the steam reforming of a hydrocarbon-containing mixture, at least comprising: a.) a combustion chamber, b.) a burner disposed within the combustion chamber; c.) a first reactor tube which is disposed at least sectionally within the combustion chamber; d.) a catalyst disposed within the first reactor tube; characterized in that an electrically heatable heating element is disposed within the first reactor tube, that the electrically heatable heating element extends within the combustion chamber, wherein the electrical heating element comprises an electrical resistance heating element. a.) a combustion chamber, b.) a burner disposed within the combustion chamber; c.) a first reactor tube which is disposed at least sectionally within the combustion chamber; d.) a catalyst disposed within the first reactor tube;
A hydraulic system comprising at least two hydraulic consumers, of which at least one consumer is pressure-controlled and at least one consumer is quantity-controlled, an adjustable hydraulic pump, via which the at least two consumers are supplied jointly, and a control arrangement, characterised in that the hydraulic pump is electrically controlled by means of the control arrangement, wherein the control arrangement comprises a control unit and a sensor system connected to the control unit for detecting at least one variable characterising a requirement of a consumer, wherein the control unit is set up to determine, using the at least one detected variable, a pressure required by a pressure-controlled consumer and a volume flow rate required by a quantity-controlled consumer and to control the hydraulic pump in such a way that the required pressure and the required volume flow rate are provided.
A rubber composition comprising, based on parts by weight per 100 parts by weight of the tread rubber (phr), 70 to 90, phr of a first cis 1,4-polybutadiene rubber; 10 to 30 phr of natural cis 1,4-polyisopenene rubber; wherein the first cis 1,4-polybutadiene rubber has a microstructure comprising 96 to 99 percent cis 1,4-isomeric units, a number average molecular weight (Mn) in a range of from 50,000 to 300,000, and a heterogeneity index (Mw/Mn) in a range of from 2/1 to 3.5/1; 25 to 65 phr of a rubber reinforcing carbon black; 5 to 35 phr of silica together with from 1 to 10 phr of a silica coupling agent comprising a bis(3-triethoxysilylpropyl) polysulfide; and a cure package comprising sulfur and sulfur cure accelerators; wherein the sulfur cure accelerators comprise two sulfur cure accelerators comprising: N-cyclohexyl-2-benzothiazolesulfenamide as a first sulfenamide, and N-ter-butyl-2-benzothiazolesulfenamide as a second sulfenamide; wherein the ratio of the first sulfenamide to the second sulfenamide is in a range of from 0.4/1 to 4/1. 70 to 90, phr of a first cis 1,4-polybutadiene rubber; 10 to 30 phr of natural cis 1,4-polyisopenene rubber; wherein the first cis 1,4-polybutadiene rubber has a microstructure comprising 96 to 99 percent cis 1,4-isomeric units, a number average molecular weight (Mn) in a range of from 50,000 to 300,000, and a heterogeneity index (Mw/Mn) in a range of from 2/1 to 3.5/1; 25 to 65 phr of a rubber reinforcing carbon black; 5 to 35 phr of silica together with from 1 to 10 phr of a silica coupling agent comprising a bis(3-triethoxysilylpropyl) polysulfide; and a cure package comprising sulfur and sulfur cure accelerators; N-cyclohexyl-2-benzothiazolesulfenamide as a first sulfenamide, and N-ter-butyl-2-benzothiazolesulfenamide as a second sulfenamide;
Method for the production of pig iron or liquid steel semi-finished products, metal-containing, in particular iron oxide-containing, batch materials and, if appropriate, aggregates being at least partially reduced in a reduction zone by means of a reduction gas, subsequently being introduced into a smelting zone and being smelted along with the supply of lumpy carbon carriers, in particular coke and/or coal, and oxygen-containing gas and along with the formation of the reduction gas, the formed reduction gas being supplied to the reduction zone and reacted there and being drawn off, if appropriate after purification, as export gas, characterized in that at least part of the export gas is treated in a CO 2 separation device, along with the separation of CO 2 and the formation of a product gas, and is utilized for the introduction, in particular injection, of pulverulent carbon carriers, together with a conveying gas, into the smelting zone, the product gas being combined in at least one mixing chamber with the pulverulent carbon carriers and the conveying gas, in particular nitrogen, and then being introduced into the smelting zone, the pulverulent carbon carriers being introduced into the mixing chamber by means of the conveying gas.
A method for assembling a valve stem to a wheel rim having an aperture formed therein comprising the steps of: determining a location of the aperture relative to a gauging station; orienting the wheel rim relative to the gauging station to adjust the location of the aperture; grasping the valve stem with a valve stem gripper on a programmable robotic manipulator having an arm capable of compound, multi-axial movement and coaxially aligning a central axis of the aperture and a longitudinal axis of the valve stem with respect to one another prior to insertion of the valve stem through the aperture; and moving the valve stem relative to the rim along a programmable path of travel during the coaxially aligning step and along the aligned axes while grasping the valve stem with the valve stem gripper and manipulating the valve stem position through compound, multi-axial movement of said arm, to insert the valve stem through the aperture, the path of travel being defined with the programmable robotic manipulator having a plurality of programmed paths corresponding to a plurality of different size wheel rim and valve stem combinations to be assembled. determining a location of the aperture relative to a gauging station; orienting the wheel rim relative to the gauging station to adjust the location of the aperture; grasping the valve stem with a valve stem gripper on a programmable robotic manipulator having an arm capable of compound, multi-axial movement and coaxially aligning a central axis of the aperture and a longitudinal axis of the valve stem with respect to one another prior to insertion of the valve stem through the aperture; and moving the valve stem relative to the rim along a programmable path of travel during the coaxially aligning step and along the aligned axes while grasping the valve stem with the valve stem gripper and manipulating the valve stem position through compound, multi-axial movement of said arm, to insert the valve stem through the aperture, the path of travel being defined with the programmable robotic manipulator having a plurality of programmed paths corresponding to a plurality of different size wheel rim and valve stem combinations to be assembled.
A communications device comprising: a wireless receiver; a processor coupled to the wireless receiver and configured to receive a spread orthogonal frequency-division multiplexing (OFDM) signal having narrowband interference associated therewith, the spread OFDM signal comprising a plurality of subcarriers with data distributed among the subcarriers, and configured to perform an excision operation by excising the narrowband interference from the spread OFDM signal, wherein said processor is configured to excise the narrowband interference by setting at least one frequency bin to a set value, wherein said set value is selected based upon a baseband coding scheme of the spread OFDM signal, and despread the spread OFDM signal after excising and based upon band excision information from the excision operation to recover the data. a wireless receiver; a processor coupled to the wireless receiver and configured to receive a spread orthogonal frequency-division multiplexing (OFDM) signal having narrowband interference associated therewith, the spread OFDM signal comprising a plurality of subcarriers with data distributed among the subcarriers, and configured to perform an excision operation by excising the narrowband interference from the spread OFDM signal, wherein said processor is configured to excise the narrowband interference by setting at least one frequency bin to a set value, wherein said set value is selected based upon a baseband coding scheme of the spread OFDM signal, and despread the spread OFDM signal after excising and based upon band excision information from the excision operation to recover the data.
An apparatus comprising: a portable computing device comprising: at least one first virtual machine, wherein the first virtual machine is operable to communicate with and control at least one device associated with at least one personal environment of a user of the portable computing device; and at least one second virtual machine operable to execute an operating system of the portable computing device and control network connectivity of the portable computing device, wherein said at least one device is in-vehicle-infotainment system, IVI, and wherein the first virtual machine comprises an operating system native to the vehicle in which the IVI system is to be implemented. at least one first virtual machine, wherein the first virtual machine is operable to communicate with and control at least one device associated with at least one personal environment of a user of the portable computing device; and at least one second virtual machine operable to execute an operating system of the portable computing device and control network connectivity of the portable computing device, wherein said at least one device is in-vehicle-infotainment system, IVI, and wherein the first virtual machine comprises an operating system native to the vehicle in which the IVI system is to be implemented.
A method in a first User Equipment for transmitting device-to-device synchronization signals or broadcast channels in a wireless network, said method comprising: determining, at the first User Equipment, the first User Equipment's level of interest in being received by a second User Equipment that is within network coverage; and adapting, at the first User Equipment, a time pattern for transmission of synchronization signals or broadcast channels, depending on the determined level of interest of the first User Equipment, wherein determining the first User Equipment's level of interest includes: analyzing, at the first User Equipment, a type of service that the first User Equipment is interested in performing, and concluding (42, 44) the first User Equipment is interested in being received by the second User Equipment only when the first User Equipment is interested in performing a certain type of service. determining, at the first User Equipment, the first User Equipment's level of interest in being received by a second User Equipment that is within network coverage; and adapting, at the first User Equipment, a time pattern for transmission of synchronization signals or broadcast channels, depending on the determined level of interest of the first User Equipment,
A method for phase synchronizing an electromagnetic sonde, comprising: receiving at least one global navigation satellite system, GNSS, signal at a cable reel and/or at a camera control unit, CCU, and a utility locator device; communicating a pulsed timing signal from the cable reel and/or CCU to an electromagnetic sonde; generating and broadcasting a signal from the electromagnetic sonde based on the pulsed timing signal, wherein the broadcasted electromagnetic sonde signal is phase synchronized with an expected phase pattern of the utility locator device; receiving the broadcasted electromagnetic sonde signal having a predefined phase pattern to the utility locator device from the GNSS signal; determining an orientation of the electromagnetic sonde in a pipe or other conduit based on measuring a current flow direction of the synchronized phase of the broadcasted electromagnetic sonde signal at the utility locator device; and determining the orientation of a camera head attached to the electromagnetic sonde using the orientation of the electromagnetic sonde. receiving at least one global navigation satellite system, GNSS, signal at a cable reel and/or at a camera control unit, CCU, and a utility locator device; communicating a pulsed timing signal from the cable reel and/or CCU to an electromagnetic sonde; generating and broadcasting a signal from the electromagnetic sonde based on the pulsed timing signal, wherein the broadcasted electromagnetic sonde signal is phase synchronized with an expected phase pattern of the utility locator device; receiving the broadcasted electromagnetic sonde signal having a predefined phase pattern to the utility locator device from the GNSS signal; determining an orientation of the electromagnetic sonde in a pipe or other conduit based on measuring a current flow direction of the synchronized phase of the broadcasted electromagnetic sonde signal at the utility locator device; and determining the orientation of a camera head attached to the electromagnetic sonde using the orientation of the electromagnetic sonde.
A method for designing a lithographic mask, comprising the steps of: • providing an intended pattern comprising a plurality of structural features (1,2,3,4,5), said plurality of features being characterized by one or more numerical parameters related to the shape and/or the position of the features, • producing a mask design of a lithographic mask suitable for printing said intended pattern, and one or more simulated patterns printed through the mask design, • producing a lithographic mask according to the mask design, • printing a pattern through the lithographic mask, • performing a verification of the printed pattern, wherein the verification step comprises the sub-steps of: • determining the contours of at least a portion of said structural features in the printed pattern, • determining on said contours the value of one or more of said parameters and comparing said values to the values of said parameters in the intended pattern and/or to the values of said parameters in one or more of the simulated patterns, and wherein: • the step of producing a mask design suitable for printing the intended pattern and producing one or more simulated patterns is performed by using a software tool for optical proximity correction, • the step of determining, on the contours obtained from the printed pattern, the value of one or more of said parameters and comparing said values to the values of said parameters in the intended pattern and/or to the values of said parameters in one or more of the simulated patterns, is performed by using said OPC software tool for verifying said contours. • providing an intended pattern comprising a plurality of structural features (1,2,3,4,5), said plurality of features being characterized by one or more numerical parameters related to the shape and/or the position of the features, • producing a mask design of a lithographic mask suitable for printing said intended pattern, and one or more simulated patterns printed through the mask design, • producing a lithographic mask according to the mask design, • printing a pattern through the lithographic mask, • performing a verification of the printed pattern, • determining the contours of at least a portion of said structural features in the printed pattern, • determining on said contours the value of one or more of said parameters and comparing said values to the values of said parameters in the intended pattern and/or to the values of said parameters in one or more of the simulated patterns, • the step of producing a mask design suitable for printing the intended pattern and producing one or more simulated patterns is performed by using a software tool for optical proximity correction, • the step of determining, on the contours obtained from the printed pattern, the value of one or more of said parameters and comparing said values to the values of said parameters in the intended pattern and/or to the values of said parameters in one or more of the simulated patterns, is performed by using said OPC software tool for verifying said contours.
A method for determining actual eccentricity of rotating rotor during which the rotating rotor is scanned by at least one sensor (3, 30, 4, 40) of relative rotor vibrations, characterized by that the rotor equipped with a reference mark is at a constant speed of rotation up to 500 rpm scanned by a sensor of the reference mark at the point of this reference mark, and outside the reference marker by at least one sensor (3, 30, 4, 40) of relative rotor vibrations, whereby after digitizing the signals of the sensors (3, 30, 4, 40, 50), actual position of phasor of the 1 st harmonic component of signal of the sensor (3, 30, 4, 40) of relative rotor vibrations in the complex plane is estimated from them, whereby this actual position is subsequently compared with a reference position of the phasor of the 1 st harmonic component of this signal, which has been determined in advance, whereas the variation vector of the phasors represents the eccentricity of the rotor.