mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting obstacles in a given geographical area, the method comprising a step of pre-detection by processing of measurements taken in said area by several exteroceptive sensors including at least one sensor of lidar type and at least one sensor of a non-lidar type, in particular of radar type or of camera type, the method furthermore comprising a step of confirmation of the pre-detection step, including comparing a cloud of points measured by the sensor of lidar type in said area with map data corresponding to said area, the comparison of the cloud of points with the map data including calculating a level of correlation between the data of said cloud and said map data, the correlation level being an increasing function of the quantity of data that are consistent between the data of the cloud and the map data, the correlation level equalling 0 if none of the data of the cloud of points correlates with map data, the correlation level equalling 1 if all the data of the cloud of points correlate with map data, the method being characterized in that , if the non-lidar sensor detects an obstacle in the area, but the lidar sensor does not detect said obstacle and the level of correlation between the lidar cloud of points and the map data is greater than a predefined threshold lying between 0.5 and 1, then the detection of said obstacle by the non-lidar sensor is denied.
A method, comprising: providing a flange (200; 300; 350) of a gas turbine engine, wherein the flange (200; 300; 350) comprises a bolt hole (240; 340) therethrough defined by a bolt hole circumference (245; 345) between an inner diameter and an outer diameter of the flange (200; 300; 350), wherein the bolt hole circumference (245; 345) comprises a radially outward area (244; 344) proximate the outer diameter and a radially inward area (242; 342) proximate the inner diameter ; heating a plurality of shot ; applying the heated plurality of shot to the bolt hole circumference (245; 345); and plastically deforming the bolt hole circumference (245; 345) to strengthen the bolt hole circumference (245; 345) in response to the applying the heated plurality of shot , producing a plastically deformed bolt hole (240; 340); characterised in that : the applying the heated shot to the bolt hole circumference (245; 345) comprises applying the heated shot only to the radially inward area (242; 342) of the bolt hole circumference (245; 345). providing a flange (200; 300; 350) of a gas turbine engine, wherein the flange (200; 300; 350) comprises a bolt hole (240; 340) therethrough defined by a bolt hole circumference (245; 345) between an inner diameter and an outer diameter of the flange (200; 300; 350), wherein the bolt hole circumference (245; 345) comprises a radially outward area (244; 344) proximate the outer diameter and a radially inward area (242; 342) proximate the inner diameter ; heating a plurality of shot ; applying the heated plurality of shot to the bolt hole circumference (245; 345); and plastically deforming the bolt hole circumference (245; 345) to strengthen the bolt hole circumference (245; 345) in response to the applying the heated plurality of shot , producing a plastically deformed bolt hole (240; 340);
A backlight unit, comprising: a bottom cover ; a light guiding plate placed on the bottom cover ; and an LED assembly disposed at a position adjacent to the light guiding plate and arranged to emit light towards the light guiding plate , the LED assembly including: a substrate vertically placed on and perpendicular to the bottom cover ; at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate ; a protrusion horizontally protruding from the substrate towards the side surface of the light guiding plate to support the light guiding plate ; and a support on which the substrate is mounted, characterized in that the support has an opening , in that a projection vertically projects from an upper surface of the bottom cover , in that the projection is inserted in the opening of the support , and in that the light guiding plate includes a concave portion formed on the side surface thereof to receive at least a portion of the protrusion . a bottom cover ; a light guiding plate placed on the bottom cover ; and an LED assembly disposed at a position adjacent to the light guiding plate and arranged to emit light towards the light guiding plate , the LED assembly including: a substrate vertically placed on and perpendicular to the bottom cover ; at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate ; a protrusion horizontally protruding from the substrate towards the side surface of the light guiding plate to support the light guiding plate ; and a support on which the substrate is mounted, characterized in that the support has an opening , in that a projection vertically projects from an upper surface of the bottom cover , in that the projection is inserted in the opening of the support , and in that the light guiding plate includes a concave portion formed on the side surface thereof to receive at least a portion of the protrusion . a substrate vertically placed on and perpendicular to the bottom cover ; at least one LED light source mounted on the substrate and facing a side surface of the light guiding plate ; a protrusion horizontally protruding from the substrate towards the side surface of the light guiding plate to support the light guiding plate ; and a support on which the substrate is mounted, characterized in that the support has an opening , in that a projection vertically projects from an upper surface of the bottom cover , in that the projection is inserted in the opening of the support , and in that the light guiding plate includes a concave portion formed on the side surface thereof to receive at least a portion of the protrusion .
Installation for packaging free-flowing bulk material into bags, comprising a silo for accommodating the bulk material which is to be packaged, and also comprising a packer , by means of which bags provided are automatically filled with bulk material supplied to the packer , wherein the discharging device of the silo is connected to the supply opening of the packer via a continuous delivery pipe which is intended for the pneumatic delivery of bulk material and has fluidizing bases arranged at least along parts of the delivery pipe , characterized in that a collecting device is provided for bulk material which has fallen out of the installation , the bulk material which has fallen out being collected at at least one defined location by said collecting device, and a feed device is provided for feeding the escaped and collected bulk material into the delivery pipe .
Decoration line, comprising a conveyor of the products on which to apply the enamel; at least one first enamelling machine suitable for applying at least one layer of enamel onto the products transiting on said conveyor ; at least one second enamelling machine suitable for applying at least one second substantially discontinuous layer of enamel onto the products transiting on said conveyor , for creating decorative or finishing effect on the products , wherein said at least one second enamelling machine is arranged downstream with respect to said at least one first enamelling machine ; said at least one first enamelling machine ) and said at least one second enamelling machine being equipped with a respective local control station for managing the basic operation parameters of said at least one first enamelling machine and said at least one second enamelling machine , said decoration line comprising at least one control and diagnostic station defining a first diagnostic level of the operation of said decoration line, said diagnostic station being equipped with a viewing device , arranged downstream of said at least one second enamelling machine , for checking the difference between the result obtained on the products and a pre-set graphical reference and for correcting the application parameter in the case in which the result obtained is too different from the expected one, said at least one control and diagnostic station comprising a control device with a microprocessor communicating online and in feedback with said respective local control stations , wherein said decoration line comprises a microprocessor control supervisor defining a second - and upper - level of supervision of checking of the operation of said decoration line, said supervisor managing the operation of said line, to which said at least one first enamelling machine and said at least one second enamelling machine are operatively connected, said microprocessor control supervisor communicating online and in feedback with said local control stations of said at least one first enamelling machine and said at least one second enamelling machine , wherein said supervisor comprises means for generating an automatic set-up for each of said at least one first enamelling machine and said at least one second enamelling machine in terms of application parameters of the enamel, in relation to the reference design and to the format to be enamelled so as to carry out a rapid an automatic change of production.
A method of immobilizing the head of a patient, the method comprising the steps of: heating a thermoplastic mask preform to a formable temperature; forming the thermoplastic mask over at least a mouth of the patient; pushing a mouth receiving end of a bite piece into a portion of the thermoplastic mask preform that is positioned over the mouth of the patient, thereby moving the portion of the thermoplastic mask preform into the mouth of the patient; and allowing the thermoplastic mask preform to cool from the formable temperature, thereby causing the portion of the thermoplastic mask to harden. heating a thermoplastic mask preform to a formable temperature; forming the thermoplastic mask over at least a mouth of the patient; pushing a mouth receiving end of a bite piece into a portion of the thermoplastic mask preform that is positioned over the mouth of the patient, thereby moving the portion of the thermoplastic mask preform into the mouth of the patient; and allowing the thermoplastic mask preform to cool from the formable temperature, thereby causing the portion of the thermoplastic mask to harden.
A chair having a seat , a backrest , two front chair legs and two rear chair legs , and two armrests , - wherein the seat and the backrest form an integral seat shell , - wherein the chair legs and the cantilevered armrests form an integral frame produced from a plastic, - wherein each armrest consists of an armrest support and an arm-supporting surface , - wherein the armrest supports and the front chair legs lie in one plane, and - wherein the frame and the seat shell are connected detachably to each other. - wherein the seat and the backrest form an integral seat shell , - wherein the chair legs and the cantilevered armrests form an integral frame produced from a plastic, - wherein each armrest consists of an armrest support and an arm-supporting surface , - wherein the armrest supports and the front chair legs lie in one plane, and - wherein the frame and the seat shell are connected detachably to each other.
Trocar system , having a trocar sleeve and a trocar mandrel , wherein the trocar sleeve comprising a flexible hollow shaft comprising a distal end and a proximal end, and a handling head that is formed at the proximal end of the hollow shaft , and wherein the trocar sleeve is manufactured from an elastomer material, characterized in that the hollow shaft comprises an inner contour that is adapted to an outer contour of the trocar mandrel such that the trocar sleeve and the trocar mandrel are arranged to be coupled to one another while generating a defined preloading to stabilize the trocar sleeve , that the trocar mandrel is insertable in the trocar sleeve while generating the defined preloading, and that at least the hollow shaft and the handling head are formed in one piece.
A container-type compressed air energy storage power generation device , comprising: a compressor for compressing air; a tank for storing the air compressed by the compressor ; a power generator to be operated by the air supplied from the tank ; a control device for controlling operation of the compressor and the power generator ; and a container , wherein at least one of the compressor and the power generator is housed in the container , wherein the tank is arranged outside the container , and both the compressor and the power generator are housed in the container , characterized by a first heat exchanger for transferring heat between the air, compressed and heated in the compressor to be supplied into the tank , and a heat storage fluid and for heating the heat storage fluid; a second heat exchanger for transferring heat between the air, supplied from the tank to the power generator , and the heat storage fluid and for heating the air; and a heat storage section for storing the heat storage fluid, the heat storage section being fluidly connected to the first heat exchanger and the second heat exchanger , wherein the first heat exchanger is housed in the container housing the compressor , and the second heat exchanger is housed in the container housing the power generator , and wherein the heat storage section is arranged outside the container housing the compressor and outside the container housing the power generator . a compressor for compressing air; a tank for storing the air compressed by the compressor ; a power generator to be operated by the air supplied from the tank ; a control device for controlling operation of the compressor and the power generator ; and a container , wherein at least one of the compressor and the power generator is housed in the container , wherein the tank is arranged outside the container , and both the compressor and the power generator are housed in the container , characterized by a first heat exchanger for transferring heat between the air, compressed and heated in the compressor to be supplied into the tank , and a heat storage fluid and for heating the heat storage fluid; a second heat exchanger for transferring heat between the air, supplied from the tank to the power generator , and the heat storage fluid and for heating the air; and a heat storage section for storing the heat storage fluid, the heat storage section being fluidly connected to the first heat exchanger and the second heat exchanger , wherein the first heat exchanger is housed in the container housing the compressor , and the second heat exchanger is housed in the container housing the power generator , and wherein the heat storage section is arranged outside the container housing the compressor and outside the container housing the power generator .
A corrosion inhibitor composition comprising: a carrier; at least one compound of formulae (II)-(VII) or a salt or quaternised derivative thereof: wherein R is C 5-21 alkyl or alkenyl; each R 1 is independently an optionally substituted group of formula -(CH 2 ) n X wherein n is an integer from 1 to 6 and X is C(O)OZ or SO 3 Z and Z is H or a cation; and R' is C 4-20 alkyl or alkenyll; and an alkyl quat of formula (VIII) wherein each of R 3 , R 4 , R 5 and R 6 is an unsubstituted C 1-20 alkyl group and A - is a counter ion;and/oran ester quat of formula (IX) wherein R 8 , R 9 and R 10 are each independently C 1-4 alkyl, C 1-4 hydroxyalkyl, C 6-12 aryl, alkylaryl containing 7 to 13 carbon atoms or a group corresponding to formula (X): (C m H 2m -O) q -C(O)-R 11 (X) wherein m is an integer selected from 2 or 3, q is an integer selected from 1 to 3 and R 11 is a C 7-23 alkyl or alkenyl group; R 7 is a group corresponding to formula (X) or (XI): wherein R 8 , R 9 and R 10 are as defined above, G is a group -(CH 2 ) p - or a group -(CH 2 ) p -E-CO-D-CO-E-(CH 2 ) p - wherein p is an integer of 1 to 6, E is NH or O and D is a dimer fatty acid residue containing on average 36 to 54 carbon atoms; and B - is an anion; and/ora polymeric quat. a carrier; at least one compound of formulae (II)-(VII) or a salt or quaternised derivative thereof: R is C 5-21 alkyl or alkenyl; each R 1 is independently an optionally substituted group of formula -(CH 2 ) n X wherein n is an integer from 1 to 6 and X is C(O)OZ or SO 3 Z and Z is H or a cation; and R' is C 4-20 alkyl or alkenyll; and an alkyl quat of formula (VIII) wherein m is an integer selected from 2 or 3, q is an integer selected from 1 to 3 and R 11 is a C 7-23 alkyl or alkenyl group; R 7 is a group corresponding to formula (X) or (XI): wherein R 8 , R 9 and R 10 are as defined above, G is a group -(CH 2 ) p - or a group -(CH 2 ) p -E-CO-D-CO-E-(CH 2 ) p - wherein p is an integer of 1 to 6, E is NH or O and D is a dimer fatty acid residue containing on average 36 to 54 carbon atoms; and B - is an anion; and/ora polymeric quat.
A solid-state amplifier comprising: a first input (J2) configured to receive a first radio frequency (RF) signal from a first source external to the amplifier; a second input (J1) configured to receive a second RF signal from a second source external to the amplifier; a first chipset configured to amplify a first sub-band of the second RF signal, the first chipset comprising a pre-driver and a driver operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the driver is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a second chipset configured to amplify a second sub-band of the second RF signal, the second chipset comprising a pre-driver and a high power amplifier operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the high power amplifier is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a carrier coupled with at least one of the first chipset and the second chipset, wherein the carrier comprises a thermally conductive material; and a diamond layer disposed between the carrier and at least one semiconductor die of at least one of the first chipset and the second chipset, wherein: the carrier is coupled with the diamond layer via a first eutectic bonding layer ; and the at least one semiconductor die is coupled with the diamond layer via a second eutectic bonding layer . a first input (J2) configured to receive a first radio frequency (RF) signal from a first source external to the amplifier; a second input (J1) configured to receive a second RF signal from a second source external to the amplifier; a first chipset configured to amplify a first sub-band of the second RF signal, the first chipset comprising a pre-driver and a driver operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the driver is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a second chipset configured to amplify a second sub-band of the second RF signal, the second chipset comprising a pre-driver and a high power amplifier operatively coupled with an output of the pre-driver, wherein at least one of the pre-driver and the high power amplifier is configured as a gallium nitride (GaN)-based monolithic microwave integrated circuit (MMIC); a carrier coupled with at least one of the first chipset and the second chipset, wherein the carrier comprises a thermally conductive material; and a diamond layer disposed between the carrier and at least one semiconductor die of at least one of the first chipset and the second chipset, wherein: the carrier is coupled with the diamond layer via a first eutectic bonding layer ; and the at least one semiconductor die is coupled with the diamond layer via a second eutectic bonding layer . the carrier is coupled with the diamond layer via a first eutectic bonding layer ; and the at least one semiconductor die is coupled with the diamond layer via a second eutectic bonding layer .
Device for the generative manufacture of components , comprising a base plate which provides a seating surface for the application and compaction of powder in order to manufacture the component , wherein the base plate comprises a plurality of metal sheets , said metal sheets being shaped and arranged adjacent to one another such that the seating surface of the base plate is provided by means of lateral faces of the metal sheets , characterised in that the device is constructed to generate a defined tension force (F) between the metal sheets , said tension force allowing individual metal sheets to yield during the application and compaction of the powder on the seating surface , and the device has a screw connection for generating the defined tension force.
A modular gas-heat anti-icing method for high-power wind turbine blades, wherein a modular heating system is provided on the blade root, a ventilation duct is provided inside the blade, characterized in that a wind deflector is provided at the end of the ventilation duct , said wind deflector dividing the interior space of the front edge of the blade into two parts, so that the hot air in the ventilation duct is only to be conducted to the blade tip and then circulates into the blade root via the rear edge of the blade, enabling the hot air to circulate inside the blade and form a "blade root to blade tip to blade root" closed loop, so that the purpose of heating the front edge of the blade is achieved, and it is ensured that the whole blade does not ice by preventing the front edge of the blade from icing.
Parking space information system comprising: - fire alarm control center , - at least one sensor arranged to detect vehicle data from vehicles in the parking space, and an evaluation device , characterized in that the evaluation device is arranged to receive the detected vehicle data and to determine a drive type of the vehicle as a function of the detected vehicle data, and for outputting the determined drive type, wherein the fire alarm control center is arranged for processing the output determined drive types. - fire alarm control center , - at least one sensor arranged to detect vehicle data from vehicles in the parking space, and an evaluation device ,
A mobile hyperspectral camera system, comprising: a mobile host device comprising a processor and a display : a plurality of cameras , coupled to the processor , configured to capture images in distinct spectral bands; a hyperspectral flash array , coupled to the processor , configured to provide illumination to the distinct spectral bands; characterized by a removable sleeve with a rotating wheel to select a filter corresponding to one of the plurality of cameras among a plurality of filters , wherein the rotating wheel comprising the plurality of filters each of which aligns to a lens of the one of the plurality of cameras , wherein the removable sleeve further comprises an opening for the hyperspectral flash array . a mobile host device comprising a processor and a display : a plurality of cameras , coupled to the processor , configured to capture images in distinct spectral bands; a hyperspectral flash array , coupled to the processor , configured to provide illumination to the distinct spectral bands; characterized by a removable sleeve with a rotating wheel to select a filter corresponding to one of the plurality of cameras among a plurality of filters , wherein the rotating wheel comprising the plurality of filters each of which aligns to a lens of the one of the plurality of cameras , wherein the removable sleeve further comprises an opening for the hyperspectral flash array .