mhurhangee/patent-ind-claim-en huggingface dataset:
A system for heating a gas flow, such as an air flow, circulating in a volume delimited in part by a wall, said system comprising said wall and a source for producing heat to heat said gas flow, the heat production source comprises at least one compact tube mono-tubular source , which compact tube source comprises - a burner comprising a combustion chamber for burning a pressurised air/gas mixture, - a heat exchanger tube able to be placed at least partially in said volume, said heat exchanger tube having an upstream end connected to the combustion chamber of the burner and a downstream end intended to be disposed outside the volume , the heat exchanger tube being arranged in the conduit so that the pressurised combustion gases produced by the burner circulate in the heat exchanger tube for heating by convection the gas flow circulating in the volume, the system being characterised in that the burner is capable of operating with compact submerged tubes and in that the air/gas mixture is obtained by mixing an air at around 100 mb (10,000 N/m 2 ) with a gas at around 300 mb (30,000 N/m 2 ) . - a burner comprising a combustion chamber for burning a pressurised air/gas mixture, - a heat exchanger tube able to be placed at least partially in said volume, said heat exchanger tube having an upstream end connected to the combustion chamber of the burner and a downstream end intended to be disposed outside the volume , the heat exchanger tube being arranged in the conduit so that the pressurised combustion gases produced by the burner circulate in the heat exchanger tube for heating by convection the gas flow circulating in the volume,
A computer-implemented image processing method comprising: receiving a digital design comprising an encoded signal carrying a plural-bit identifier, the digital design including an area of layered colors to be printed on a substrate; generating reflectance spectra estimates for the digital design including the area of layered colors as if printed on the substrate, the reflectance spectra estimates provided on a per pixel basis for the digital design; generating a grayscale image representation of the digital design from the reflectance spectra estimates at a wavelength within a spectral range between 630nm - 710nm; transforming the grayscale image representation according to a package form factor for a 3D object having plural panels, said transforming yielding a transformed grayscale image; generating a representation of encoded signal robustness from the transformed grayscale image; producing a visibility map of a color image representation of the digital design generated from a weighted sum of reflectance spectra estimates on a per pixel basis; and defining plural pairs of adjoining panels of the 3D object that may be respectively presented to first and second faces of a bioptic scanner; determining an encoded signal robustness grade for each of the pairs of adjoining panels from the representation of encoded signal robustness; and combining the grades to yield a net detection grade for the 3D object. receiving a digital design comprising an encoded signal carrying a plural-bit identifier, the digital design including an area of layered colors to be printed on a substrate; generating reflectance spectra estimates for the digital design including the area of layered colors as if printed on the substrate, the reflectance spectra estimates provided on a per pixel basis for the digital design; generating a grayscale image representation of the digital design from the reflectance spectra estimates at a wavelength within a spectral range between 630nm - 710nm; transforming the grayscale image representation according to a package form factor for a 3D object having plural panels, said transforming yielding a transformed grayscale image; generating a representation of encoded signal robustness from the transformed grayscale image; producing a visibility map of a color image representation of the digital design generated from a weighted sum of reflectance spectra estimates on a per pixel basis; and defining plural pairs of adjoining panels of the 3D object that may be respectively presented to first and second faces of a bioptic scanner; determining an encoded signal robustness grade for each of the pairs of adjoining panels from the representation of encoded signal robustness; and combining the grades to yield a net detection grade for the 3D object.
A method for monitoring a pregnant woman or a fetus in a pregnant woman, said method comprising: arranging a sound sensor (S1) on an abdomen of the pregnant woman; capturing sound in the frequency range of 50-5000 Hz by the sound sensor (S1); detecting a vascular sound (VS) from a uterine artery or an umbilical artery of the fetus present in the pregnant woman's uterus using the captured sound in the frequency range of 50-5000 Hz from the sound sensor (S1); processing the detected vascular sound (VS) to represent a state of the maternal blood supply to placenta and/or blood flow between the placenta and the fetus. arranging a sound sensor (S1) on an abdomen of the pregnant woman; capturing sound in the frequency range of 50-5000 Hz by the sound sensor (S1); detecting a vascular sound (VS) from a uterine artery or an umbilical artery of the fetus present in the pregnant woman's uterus using the captured sound in the frequency range of 50-5000 Hz from the sound sensor (S1); processing the detected vascular sound (VS) to represent a state of the maternal blood supply to placenta and/or blood flow between the placenta and the fetus.
A compound selected from the group consisting of a 2,3,5-substituted thiophene compound represented by the following Chemical Formula 1a, a pharmaceutically acceptable salt thereof, a hydrate thereof, a solvate thereof, and a stereoisomer thereof: in Chemical Formula 1a, Z is O, A is a phenyl group; a thiophenyl group; an indazolyl group; a pyridinyl group; a pyrimidinyl group; a pyrazinyl group; or a pyrazolyl group, R 1 is 0 to 3 substituents selected from the group consisting of halo, nitro, cyano, C 1-6 alkyl, C 1-6 haloalkyl, -C(O)O-C 1-6 alkyl, -S(O) 2 -C 1-6 alkyl, -(CH 2 ) m -C 1-6 alkoxy (in this case, m is an integer from 1 to 6), tetrahydro-2 H pyranyl, piperidinyl, 4-(acetyl)-piperidinyl, 4-(C 1-6 alkylsulfonyl)-piperidinyl, pyrrolidinyl, and morpholinyl, R 2 is a hydrogen atom, and n is an integer from 1 to 3. Z is O, A is a phenyl group; a thiophenyl group; an indazolyl group; a pyridinyl group; a pyrimidinyl group; a pyrazinyl group; or a pyrazolyl group, R 1 is 0 to 3 substituents selected from the group consisting of halo, nitro, cyano, C 1-6 alkyl, C 1-6 haloalkyl, -C(O)O-C 1-6 alkyl, -S(O) 2 -C 1-6 alkyl, -(CH 2 ) m -C 1-6 alkoxy (in this case, m is an integer from 1 to 6), tetrahydro-2 H pyranyl, piperidinyl, 4-(acetyl)-piperidinyl, 4-(C 1-6 alkylsulfonyl)-piperidinyl, pyrrolidinyl, and morpholinyl, R 2 is a hydrogen atom, and n is an integer from 1 to 3.
A method supporting wireless access to a storage device , which is applied to a mobile routing hotspot device , wherein the mobile routing hotspot device is connected to the storage device by using a universal serial bus , USB interface, and the method comprises: recognizing , by the mobile routing hotspot device, the storage device by using a signal received by the USB interface; obtaining , by the mobile routing hotspot device, file description information and storage addresses of files stored in the storage device, wherein the file description information of the stored files is in a one-to-one correspondence with the storage addresses of the stored files; displaying , by the mobile routing hotspot device, the file description information of the stored files to a user by using a web user interface when the user equipment accesses the mobile routing hotspot device, so that the user equipment sends, according to the description information of the stored files, the access request for accessing the specified file in the storage device; receiving , by the mobile routing hotspot device, an access request that is sent by user equipment in a wireless communications manner and that is for accessing a specified file in the storage device, wherein the access request carries information about the specified file; acquiring , by the mobile routing hotspot device, the specified file in the storage device according to the information about the specified file by using the USB interface; and outputting , by the mobile routing hotspot device, the specified file to the user equipment according to the access request in a wireless communications manner. recognizing , by the mobile routing hotspot device, the storage device by using a signal received by the USB interface; obtaining , by the mobile routing hotspot device, file description information and storage addresses of files stored in the storage device, wherein the file description information of the stored files is in a one-to-one correspondence with the storage addresses of the stored files; displaying , by the mobile routing hotspot device, the file description information of the stored files to a user by using a web user interface when the user equipment accesses the mobile routing hotspot device, so that the user equipment sends, according to the description information of the stored files, the access request for accessing the specified file in the storage device; receiving , by the mobile routing hotspot device, an access request that is sent by user equipment in a wireless communications manner and that is for accessing a specified file in the storage device, wherein the access request carries information about the specified file; acquiring , by the mobile routing hotspot device, the specified file in the storage device according to the information about the specified file by using the USB interface; and outputting , by the mobile routing hotspot device, the specified file to the user equipment according to the access request in a wireless communications manner.
A rotorcraft swashplate assembly comprising: a rotationally fixed swashplate configured to be fixed against rotating with a rotorcraft rotor configured to rotate about a rotational axis (A); a rotatable swashplate configured to reside between rotor blades of the rotor and the rotationally fixed swashplate , and configured to be coupled to the rotor to rotate with the rotor ; a plurality of pitch change links , each pitch change link configured to be coupled to a respective rotor blade , to the rotorcraft rotor , and to the rotatable swashplate to rotate with the rotor ; and an annular track coupled to the rotationally fixed swashplate and configured to support each pitch change link riding on the annular track as each pitch change link rotates with the rotor , characterized in that the annular track comprises: a plurality of bearings each comprising a surface upon which a pitch change link rides, and a plurality of actuators coupled to the rotationally fixed swashplate and to the plurality of bearings to move at least some of the bearings independently from other bearings , changing a shape of the annular track and thereby the pitch of each rotor blade connected to a respective pitch change link as each pitch change link rides on the annular track during rotation of the rotor blades . a rotationally fixed swashplate configured to be fixed against rotating with a rotorcraft rotor configured to rotate about a rotational axis (A); a rotatable swashplate configured to reside between rotor blades of the rotor and the rotationally fixed swashplate , and configured to be coupled to the rotor to rotate with the rotor ; a plurality of pitch change links , each pitch change link configured to be coupled to a respective rotor blade , to the rotorcraft rotor , and to the rotatable swashplate to rotate with the rotor ; and an annular track coupled to the rotationally fixed swashplate and configured to support each pitch change link riding on the annular track as each pitch change link rotates with the rotor , characterized in that the annular track comprises: a plurality of bearings each comprising a surface upon which a pitch change link rides, and a plurality of actuators coupled to the rotationally fixed swashplate and to the plurality of bearings to move at least some of the bearings independently from other bearings , changing a shape of the annular track and thereby the pitch of each rotor blade connected to a respective pitch change link as each pitch change link rides on the annular track during rotation of the rotor blades . a plurality of bearings each comprising a surface upon which a pitch change link rides, and a plurality of actuators coupled to the rotationally fixed swashplate and to the plurality of bearings to move at least some of the bearings independently from other bearings , changing a shape of the annular track and thereby the pitch of each rotor blade connected to a respective pitch change link as each pitch change link rides on the annular track during rotation of the rotor blades .
A vehicle on which an autonomous driving system is mountable, the vehicle comprising: a vehicle platform configured to control the vehicle in accordance with an instruction from the autonomous driving system and comprising a wheel speed sensor provided in each wheel of the vehicle ; and a vehicle control interface configured to interface between the vehicle platform and the autonomous driving system, characterized in that each wheel speed sensor is configured to detect a rotation speed and a rotation direction of a wheel; and the vehicle control interface is configured to provide, to the autonomous driving system, a signal indicating a moving direction of the vehicle that is determined based on a majority rule in connection with rotation directions of wheels, so as to provide, to the autonomous driving system, a signal indicating "Forward" when the number of wheels rotating in a forward rotation direction is larger than the number of wheels rotating in a reverse rotation direction, a signal indicating "Reverse" when the number of wheels rotating in the reverse rotation direction is larger than the number of wheels rotating in the forward rotation direction, and information indicating "Undefined" when the number of wheels rotating in a forward rotation direction is equal to the number of wheels rotating in a reverse rotation direction. a vehicle platform configured to control the vehicle in accordance with an instruction from the autonomous driving system and comprising a wheel speed sensor provided in each wheel of the vehicle ; and a vehicle control interface configured to interface between the vehicle platform and the autonomous driving system, characterized in that each wheel speed sensor is configured to detect a rotation speed and a rotation direction of a wheel; and the vehicle control interface is configured to provide, to the autonomous driving system, a signal indicating a moving direction of the vehicle that is determined based on a majority rule in connection with rotation directions of wheels, so as to provide, to the autonomous driving system, a signal indicating "Forward" when the number of wheels rotating in a forward rotation direction is larger than the number of wheels rotating in a reverse rotation direction, a signal indicating "Reverse" when the number of wheels rotating in the reverse rotation direction is larger than the number of wheels rotating in the forward rotation direction, and information indicating "Undefined" when the number of wheels rotating in a forward rotation direction is equal to the number of wheels rotating in a reverse rotation direction.
A multilayer strip intended to be wound on a form, comprising pre-impregnated fiber layers superimposed along a stacking direction, each layer extending widthwise along a transverse direction perpendicular to the stacking direction between a first and a second edge, characterized in that on at least a portion of said multilayer strip the first edges of the pre-impregnated fiber layers are aligned with each other in the stacking direction, and each second edge is recessed relative to the second edge of the underlying layer in the transverse direction.
Device for extracting cooking vapours, comprising 1.1. a cooking vapour entry installation having a cooking vapour entry opening which is closable by means of at least one closure element , and 1.2. an activation installation for activating the at least one closure element , 1.3. wherein the activation installation is configured in such a manner that 1.3.1. the at least one closure element by means of the activation installation is repositionable between a first position that closes the cooking vapour entry opening , and a second position that unblocks the cooking vapour entry opening , wherein 1.3.2. the at least one closure element in the repositioning between the two positions has at least one rotary movement component and at least one linear movement component, characterized in that 1.4. the activation installation has a purely rotatory drive by means of which the at least one closure element is repositionable, and 1.5. the device is configured in such a manner that the at least one closure element is arranged in the second position outside a flow region of the cooking vapours to be extracted in the cooking vapour entry installation . 1.1. a cooking vapour entry installation having a cooking vapour entry opening which is closable by means of at least one closure element , and 1.2. an activation installation for activating the at least one closure element , 1.3. wherein the activation installation is configured in such a manner that 1.3.1. the at least one closure element by means of the activation installation is repositionable between a first position that closes the cooking vapour entry opening , and a second position that unblocks the cooking vapour entry opening , wherein 1.3.2. the at least one closure element in the repositioning between the two positions has at least one rotary movement component and at least one linear movement component, characterized in that 1.3.1. the at least one closure element by means of the activation installation is repositionable between a first position that closes the cooking vapour entry opening , and a second position that unblocks the cooking vapour entry opening , wherein 1.3.2. the at least one closure element in the repositioning between the two positions has at least one rotary movement component and at least one linear movement component, 1.4. the activation installation has a purely rotatory drive by means of which the at least one closure element is repositionable, and 1.5. the device is configured in such a manner that the at least one closure element is arranged in the second position outside a flow region of the cooking vapours to be extracted in the cooking vapour entry installation .
A process for producing a compound by use of a fluidized bed reactor comprising an internal space having a catalyst housed in a fluidizable manner therein, a first feed port into which a starting material gas comprising a hydrocarbon is fed to the fluidized bed reactor, a second feed port into which an oxygen-containing gas comprising oxygen is fed to the fluidized bed reactor, and a discharge port into which a reaction product gas is discharged from the fluidized bed reactor, comprising a reaction step of subjecting the hydrocarbon to a vapor phase catalytic ammoxidation reaction in the presence of the catalyst in the internal space to produce the corresponding unsaturated nitrile, respectively, wherein in the reaction step, a linear velocity (m/sec) of the starting material gas at the first feed port is adjusted against a degree of abrasion resistance (%) of the catalyst so as to satisfy the condition represented by the following formula or : condition : when the degree of abrasion resistance (%) of the catalyst, determined as described in the description, is not less than 0 and not more than 4, 5 ≤ linear velocity m / sec ≤ 12.5 × degree of abrasion resistance % + 100 condition : when the degree of abrasion resistance (%) of the catalyst, determined as described in the description, is more than 4 and not more than 62, 5 ≤ linear velocity m / sec ≤ − 2.5 × degree of abrasion resistance % + 160 . comprising a reaction step of subjecting the hydrocarbon to a vapor phase catalytic ammoxidation reaction in the presence of the catalyst in the internal space to produce the corresponding unsaturated nitrile, respectively, wherein in the reaction step, a linear velocity (m/sec) of the starting material gas at the first feed port is adjusted against a degree of abrasion resistance (%) of the catalyst so as to satisfy the condition represented by the following formula or : condition : when the degree of abrasion resistance (%) of the catalyst, determined as described in the description, is not less than 0 and not more than 4, 5 ≤ linear velocity m / sec ≤ 12.5 × degree of abrasion resistance % + 100 condition : when the degree of abrasion resistance (%) of the catalyst, determined as described in the description, is more than 4 and not more than 62, 5 ≤ linear velocity m / sec ≤ − 2.5 × degree of abrasion resistance % + 160 . condition : when the degree of abrasion resistance (%) of the catalyst, determined as described in the description, is not less than 0 and not more than 4, 5 ≤ linear velocity m / sec ≤ 12.5 × degree of abrasion resistance % + 100 condition : when the degree of abrasion resistance (%) of the catalyst, determined as described in the description, is more than 4 and not more than 62, 5 ≤ linear velocity m / sec ≤ − 2.5 × degree of abrasion resistance % + 160 .