mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula ( I ): or a salt thereof, wherein R 1 is H or optionally substituted C 1-6 alkyl; R 2 is OR 2O , N 3 , N(R 2N ) 2 , or guanidine wherein R 2O is hydrogen or acyl and wherein one instance of R 2N is H and the other is C 1-6 alkyl; or R 2 is OR 2O , NH 2 , NH(acyl) or N(R 2N ) 2 wherein R 2O is C 1-6 alkyl, and R 2N is independently C 1-6 alkyl or acyl; each instance of R 3a and R 3b is independently H and acyl group comprising acetyl (CH 3 CO), propanoyl (C 2 H 5 CO), butanoyl (C 3 H 7 CO), pivaloyl ( t -BuCO), trifluoroacetyl (CF 3 CO), phenylacetyl (PhCH 2 CO) and optionally substituted benzoyl (C 6 H 5 CO); X is selected from the group consisting of -O-, -O(C=O)-, -NH-, -NH(C=O)-,-(C=O)NH-, -O(C=O)NH-, -O(C=S)NH-, -NH(C=O)NH-, and -NH(C=S)NH-; R 4 is H, optionally substituted C 1-6 alkyl; Y is or -L-Z; each instance of L is independently selected from the group consisting of -(CH 2 ) n -,-(CH 2 ) n C=O-, -(CH 2 ) n NH-, -(C=O)(CH 2 ) n -, -(CH 2 ) n NH(C=O)-, -(C=O)(CH 2 ) n NH(C=O)-,-(CH 2 ) n SCH 2 (C=O)-, and -(CH 2 CH 2 O) n -; n is an integer from 1 to 8; and Z is optionally substituted alkyne. R 1 is H or optionally substituted C 1-6 alkyl; R 2 is OR 2O , N 3 , N(R 2N ) 2 , or guanidine wherein R 2O is hydrogen or acyl and wherein one instance of R 2N is H and the other is C 1-6 alkyl; or R 2 is OR 2O , NH 2 , NH(acyl) or N(R 2N ) 2 wherein R 2O is C 1-6 alkyl, and R 2N is independently C 1-6 alkyl or acyl; each instance of R 3a and R 3b is independently H and acyl group comprising acetyl (CH 3 CO), propanoyl (C 2 H 5 CO), butanoyl (C 3 H 7 CO), pivaloyl ( t -BuCO), trifluoroacetyl (CF 3 CO), phenylacetyl (PhCH 2 CO) and optionally substituted benzoyl (C 6 H 5 CO); X is selected from the group consisting of -O-, -O(C=O)-, -NH-, -NH(C=O)-,-(C=O)NH-, -O(C=O)NH-, -O(C=S)NH-, -NH(C=O)NH-, and -NH(C=S)NH-; R 4 is H, optionally substituted C 1-6 alkyl; Y is or -L-Z; each instance of L is independently selected from the group consisting of -(CH 2 ) n -,-(CH 2 ) n C=O-, -(CH 2 ) n NH-, -(C=O)(CH 2 ) n -, -(CH 2 ) n NH(C=O)-, -(C=O)(CH 2 ) n NH(C=O)-,-(CH 2 ) n SCH 2 (C=O)-, and -(CH 2 CH 2 O) n -; n is an integer from 1 to 8; and Z is optionally substituted alkyne.
Heat pump appliance , preferably a domestic appliance , particularly preferably a tumble dryer or a washer dryer , comprising a rotatably mounted laundry drum for receiving laundry to be dried and comprising a process air circuit having a heat pump, the process air circuit being designed to supply dried process air from the heat pump to the laundry drum via an air supply duct, and moist process air from the laundry drum to the heat pump via an air return duct , a first filter insert being arranged in the air return duct such that the moist process air can be filtered by the first filter insert , the first filter insert having at least one depth filter and at least one second filter insert being arranged in the air return duct behind the first filter insert in the flow direction of the process air, characterised in that the second filter insert has at least one surface filter which is designed and arranged to support the first filter insert in portions from behind.
A computer-implemented method for determining the effects of executing software components comprising: an analyzer initiating execution of a software component on a first computing device , wherein the first computing device includes hardware components and sensors , wherein the sensors are external to the hardware components, wherein a first hardware component of the hardware components is coupled to a second hardware component of the hardware components, wherein the software component is executed on the first hardware component, and wherein a first sensor of the sensors is configured to monitor communications between the first hardware component and the second hardware component, wherein the first sensor is a voltmeter; the analyzer receiving monitoring data , from the first sensor, regarding a communication between the first hardware component and the second hardware component; and the analyzer analyzing first effects of executing the software component on the first computing device based at least partially on the monitoring data; wherein the method further comprises comparing the first effects to second effects of executing a second software component on a second computing device , wherein the second computing device includes second hardware components and second sensors , and wherein the second effects are determined based on second monitoring data received from a second sensor of the second sensors. an analyzer initiating execution of a software component on a first computing device , wherein the first computing device includes hardware components and sensors , wherein the sensors are external to the hardware components, wherein a first hardware component of the hardware components is coupled to a second hardware component of the hardware components, wherein the software component is executed on the first hardware component, and wherein a first sensor of the sensors is configured to monitor communications between the first hardware component and the second hardware component, wherein the first sensor is a voltmeter; the analyzer receiving monitoring data , from the first sensor, regarding a communication between the first hardware component and the second hardware component; and the analyzer analyzing first effects of executing the software component on the first computing device based at least partially on the monitoring data; wherein the method further comprises comparing the first effects to second effects of executing a second software component on a second computing device , wherein the second computing device includes second hardware components and second sensors , and wherein the second effects are determined based on second monitoring data received from a second sensor of the second sensors.
Aircraft area having: - at least one main aisle (101; 101a, 101b) which extends along a longitudinal axis (L) when arranged in an aircraft cabin; - a door aisle which extends, substantially perpendicularly to the at least one main aisle (101; 101a, 101b), along a transverse axis (Q) when arranged in the aircraft cabin between a first and a second aircraft door ; and - an aircraft monument which is arranged substantially centrally in the door aisle , wherein the door aisle is configured to separate two passenger seat sections of the aircraft cabin, characterised in that the aircraft monument is arranged to guide persons moving along the main aisle (101; 101a, 101b) toward the first and/or second aircraft doors along outer walls of the aircraft monument , and wherein the aircraft monument comprises at least one safety belt arrangement . - at least one main aisle (101; 101a, 101b) which extends along a longitudinal axis (L) when arranged in an aircraft cabin; - a door aisle which extends, substantially perpendicularly to the at least one main aisle (101; 101a, 101b), along a transverse axis (Q) when arranged in the aircraft cabin between a first and a second aircraft door ; and - an aircraft monument which is arranged substantially centrally in the door aisle , wherein the door aisle is configured to separate two passenger seat sections of the aircraft cabin,
A method for joint 3D imaging and chemical analysis of a sample , the method comprising the following steps: a) obtaining, using imaging means based on secondary electron, SE, detection, a sequence of two-dimensional images of said sample, the images of said sequence being taken from different viewing angles, and combining said two-dimensional images into a three-dimensional representation of the sample using image processing means comprising photogrammetry means; b) obtaining, using secondary ion mass spectrometry, SIMS, means a representation of the chemical composition of said sample; c) mapping, using data processing means, the representation of the chemical composition to said three-dimensional representation of the sample and recording the result in a memory element; wherein steps a) and b) are performed in-situ within the same device. a) obtaining, using imaging means based on secondary electron, SE, detection, a sequence of two-dimensional images of said sample, the images of said sequence being taken from different viewing angles, and combining said two-dimensional images into a three-dimensional representation of the sample using image processing means comprising photogrammetry means; b) obtaining, using secondary ion mass spectrometry, SIMS, means a representation of the chemical composition of said sample; c) mapping, using data processing means, the representation of the chemical composition to said three-dimensional representation of the sample and recording the result in a memory element;
A coated steel sheet, comprising a base steel with composition comprising, in weight 0.35% ≤ C ≤ 1.05% 15% ≤ Mn ≤ 26% Si ≤ 3% Al ≤ 0.050% S ≤ 0.030% P ≤ 0.080% N ≤ 0.1%, at least one metallic element X chosen among vanadium, titanium, niobium, molybdenum, chromium 0.050% ≤ V ≤ 0.50%, 0.040% ≤ Ti ≤ 0.50% 0.070% ≤ Nb ≤ 0.50% 0.14% ≤ Mo ≤ 2% 0.070% ≤ Cr ≤ 2% and optionally, one or several elements chosen among 0.0005% ≤ B ≤ 0.010% Ni ≤ 2% Cu ≤ 5%, the remainder being iron and unavoidable impurities inherent to fabrication, the quantity Xp of said at least one metallic element under the form of carbides, nitrides or carbonitrides being, in weight: 0.030% ≤ V p ≤ 0.40% 0.030% ≤ Ti p ≤ 0.50% 0.040% ≤ Nb p ≤ 0.40% 0.14% ≤ Mo p ≤ 0.44% 0.070% ≤ Cr p ≤ 0.6% - the base steel having a zinc or zinc-Y alloy coating, wherein element Y is one or more of Ni, Cr, Mg but not Fe or Mn, on the base steel, the thickness of said coating being less than or equal to 50 micrometers, the coating comprising, at the interface with said base steel, an iron and manganese rich-Zn alloyed layer, the thickness of said alloyed layer being greater than or equal to 1 micrometer. 0.35% ≤ C ≤ 1.05% 15% ≤ Mn ≤ 26% Si ≤ 3% Al ≤ 0.050% S ≤ 0.030% P ≤ 0.080% N ≤ 0.1%, 0.050% ≤ V ≤ 0.50%, 0.040% ≤ Ti ≤ 0.50% 0.070% ≤ Nb ≤ 0.50% 0.14% ≤ Mo ≤ 2% 0.070% ≤ Cr ≤ 2% 0.0005% ≤ B ≤ 0.010% Ni ≤ 2% Cu ≤ 5%, 0.030% ≤ V p ≤ 0.40% 0.030% ≤ Ti p ≤ 0.50% 0.040% ≤ Nb p ≤ 0.40% 0.14% ≤ Mo p ≤ 0.44% 0.070% ≤ Cr p ≤ 0.6% - the base steel having a zinc or zinc-Y alloy coating, wherein element Y is one or more of Ni, Cr, Mg but not Fe or Mn, on the base steel, the thickness of said coating being less than or equal to 50 micrometers, the coating comprising, at the interface with said base steel, an iron and manganese rich-Zn alloyed layer, the thickness of said alloyed layer being greater than or equal to 1 micrometer.
A laser radar comprising: a laser for emitting laser beams; a detector for receiving a reflection of the laser beams reflected by a detection target ; and a set of transceiver structures for receiving the laser beams emitted in a preset direction and transmitting reflections of said laser beams to the detector , wherein the transceiver structures are coaxial with said laser and include a vertical field of view adjustment unit, wherein the vertical field of view adjustment unit is configured to perform one or more of distributing said laser beams non-uniformly in a vertical field of view and adjusting the vertical field of view of said laser radar, characterized in that the vertical field of view adjustment unit is configured to deflect the laser beams by oscillating, and the laser is configured to adjust an output energy of a laser beam of the laser beams based on a moving direction of the laser beam deflected by oscillating. a laser for emitting laser beams; a detector for receiving a reflection of the laser beams reflected by a detection target ; and a set of transceiver structures for receiving the laser beams emitted in a preset direction and transmitting reflections of said laser beams to the detector , wherein the transceiver structures are coaxial with said laser and include a vertical field of view adjustment unit, wherein the vertical field of view adjustment unit is configured to perform one or more of distributing said laser beams non-uniformly in a vertical field of view and adjusting the vertical field of view of said laser radar, characterized in that the vertical field of view adjustment unit is configured to deflect the laser beams by oscillating, and the laser is configured to adjust an output energy of a laser beam of the laser beams based on a moving direction of the laser beam deflected by oscillating.
A control method for a terminal device in a non-terrestrial cellular data communication network , the network comprising at least one airborne or spaceborne base station moving along a flight trajectory , for connecting the terminal device to said network, the method comprising the following steps: providing flight trajectory data for said base station in a memory element of said terminal device ; providing terminal location data in a memory element of said terminal device ; computing, at the terminal device and based on said flight trajectory data and said terminal location data , predicted values for said base station's position and velocity; using, at the terminal device, said predicted values, and position and velocity of the terminal device to calculate when the user terminal needs to wake-up and also the Doppler shift and the propagation delay at any point in time in the future. providing flight trajectory data for said base station in a memory element of said terminal device ; providing terminal location data in a memory element of said terminal device ; computing, at the terminal device and based on said flight trajectory data and said terminal location data , predicted values for said base station's position and velocity; using, at the terminal device, said predicted values, and position and velocity of the terminal device to calculate when the user terminal needs to wake-up and also the Doppler shift and the propagation delay at any point in time in the future.
A method for detecting hydrocarbons comprising: performing a remote sensing survey of a survey location; analyzing the remote sensing data from the remote sensing survey to determine a target location; deploying an underwater vehicle UV into a body of water; navigating the UV within the body of water to the target location; obtaining measurement data within the body of water at the target location; determining whether hydrocarbons are present at the target location based on the measurement data; the method being characterized by : obtaining measurement data within the body of water at the target location including measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining and/or estimating the presence and information about a subsurface hydrocarbon accumulation from the measured data from the underwater vehicle using clumped isotope geochemistry of hydrocarbon phases. performing a remote sensing survey of a survey location; analyzing the remote sensing data from the remote sensing survey to determine a target location; deploying an underwater vehicle UV into a body of water; navigating the UV within the body of water to the target location; obtaining measurement data within the body of water at the target location; determining whether hydrocarbons are present at the target location based on the measurement data; the method being characterized by : obtaining measurement data within the body of water at the target location including measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining and/or estimating the presence and information about a subsurface hydrocarbon accumulation from the measured data from the underwater vehicle using clumped isotope geochemistry of hydrocarbon phases. obtaining measurement data within the body of water at the target location including measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons in the body of water; and determining and/or estimating the presence and information about a subsurface hydrocarbon accumulation from the measured data from the underwater vehicle using clumped isotope geochemistry of hydrocarbon phases.
A method for controlling settings of at least one remote flash device and for synchronizing its function to image acquisition of a camera , using an intermediate radio transmission unit for wireless transmission of radio signals to the remote flash device and for bi-directionally exchanging signals with the camera via a physical connection between the intermediate radio transmission unit and the camera, the method comprising the steps of: the camera transmitting to the intermediate radio transmission unit a preflash activation signal , the intermediate radio transmission unit starting a timer causing a timer delay, wherein the timer delay is adjustable, which timer delay together with a subsequent time period for forwarding the preflash activation signal to the remote flash device and another subsequent time period for the remote flash device to receive and transform the preflash activation signal into emission of light energy constitute a compound delay, the timer delay together with the subsequent time periods being adapted to coincide in time with a predetermined delay between the point in time when the camera transmits the preflash activation signal and the point in time when the camera initiates a preflash image analysis , in dependence on the preflash image analysis, determining settings to be applied during a subsequent main flash, transmitting, from the camera via the intermediate radio transmission unit to the remote flash device, settings for the remote flash device to apply during the main flash, and transmitting, from the camera via the intermediate radio transmission unit to the remote flash device, a main flash activation signal upon which the main flash and image acquisition occurs. the camera transmitting to the intermediate radio transmission unit a preflash activation signal , the intermediate radio transmission unit starting a timer causing a timer delay, wherein the timer delay is adjustable, which timer delay together with a subsequent time period for forwarding the preflash activation signal to the remote flash device and another subsequent time period for the remote flash device to receive and transform the preflash activation signal into emission of light energy constitute a compound delay, the timer delay together with the subsequent time periods being adapted to coincide in time with a predetermined delay between the point in time when the camera transmits the preflash activation signal and the point in time when the camera initiates a preflash image analysis , in dependence on the preflash image analysis, determining settings to be applied during a subsequent main flash, transmitting, from the camera via the intermediate radio transmission unit to the remote flash device, settings for the remote flash device to apply during the main flash, and transmitting, from the camera via the intermediate radio transmission unit to the remote flash device, a main flash activation signal upon which the main flash and image acquisition occurs.
An ear temperature data processing method, comprising: in a first time period, connecting, by a first electronic device, to a headset; collecting, by the headset, ear temperature data; and logging in, by the first electronic device, to a first application by using a first account; and displaying, by the first electronic device, a first interface of the first application, wherein the first interface comprises the ear temperature data collected by the headset in the first time period; in a second time period, in which a connection status between the first electronic device and the headset is "disconnected", collecting, by the headset, ear temperature data; in a third time period, in which a connection status between the first electronic device and the headset is "disconnected", connecting, by a second electronic device, to the headset; and logging in, by the second electronic device, to the first application by using a second account; and in a fourth time period, in which a connection status between the second electronic device and the headset is "disconnected", connecting, by the first electronic device, to the headset; and displaying, by the first electronic device, a second interface of the first application, wherein the second interface comprises the ear temperature data collected by the headset in the first time period, and does not comprise the ear temperature data collected by the headset in the second time period, wherein the first time period, the second time period, the third time period, and the fourth time period are consecutive time periods in sequence. in a first time period, connecting, by a first electronic device, to a headset; collecting, by the headset, ear temperature data; and logging in, by the first electronic device, to a first application by using a first account; and displaying, by the first electronic device, a first interface of the first application, wherein the first interface comprises the ear temperature data collected by the headset in the first time period; in a second time period, in which a connection status between the first electronic device and the headset is "disconnected", collecting, by the headset, ear temperature data; in a third time period, in which a connection status between the first electronic device and the headset is "disconnected", connecting, by a second electronic device, to the headset; and logging in, by the second electronic device, to the first application by using a second account; and in a fourth time period, in which a connection status between the second electronic device and the headset is "disconnected", connecting, by the first electronic device, to the headset; and displaying, by the first electronic device, a second interface of the first application, wherein the second interface comprises the ear temperature data collected by the headset in the first time period, and does not comprise the ear temperature data collected by the headset in the second time period, wherein the first time period, the second time period, the third time period, and the fourth time period are consecutive time periods in sequence.