mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining an air-blowing opening angle of an air conditioner , characterized by comprising: establishing a space coordinate system of an environment, in which the air conditioner is located, according to parameter information of the air conditioner and an image of the environment in which the air conditioner is located, wherein an image acquisition device of an augmented reality terminal acquires the image of the environment in which the air conditioner is located; determining coordinates of the air conditioner and the augmented reality terminal in the space coordinate system respectively; adjusting an air blowing angle of an air outlet of the air conditioner; moving the augmented reality terminal within an air blowing range at each maximum air blowing angle of the air outlet, and obtaining a position change of the augmented reality terminal; and determining an air-blowing opening angle of the air conditioner according to the position change of the augmented reality terminal. establishing a space coordinate system of an environment, in which the air conditioner is located, according to parameter information of the air conditioner and an image of the environment in which the air conditioner is located, wherein an image acquisition device of an augmented reality terminal acquires the image of the environment in which the air conditioner is located; determining coordinates of the air conditioner and the augmented reality terminal in the space coordinate system respectively; adjusting an air blowing angle of an air outlet of the air conditioner; moving the augmented reality terminal within an air blowing range at each maximum air blowing angle of the air outlet, and obtaining a position change of the augmented reality terminal; and determining an air-blowing opening angle of the air conditioner according to the position change of the augmented reality terminal.
A computer-implemented method for detecting malicious processes on computing devices, at least a portion of the method being performed by a computing device comprising at least one processor , the method comprising: identifying a portion of data on the computing device that is stored in an unrestricted section of memory and accessed by processes while running on the computing device; allocating by an allocation module a restricted section of memory within the computing device and indicating that the portion of data is located in the restricted section of memory instead of the unrestricted section of memory that actually stores the portion of data , wherein the allocation module replaces, within a data structure that indicates the base memory address of the portion of data , the actual base memory address of the data with the memory address of the restricted section of memory , and wherein the restricted section of memory represents a storage device or medium generated or allocated by a security service to detect maliciously-exploited processes; detecting an attempt by a process running on the computing device to access the portion of data within the restricted section of memory using an unexpected access method; determining , based at least in part on the process attempting to access the portion of data within the restricted section of memory using the unexpected access method, that the process is malicious; and performing a security action on the computing device to prevent the malicious process from harming the computing device. identifying a portion of data on the computing device that is stored in an unrestricted section of memory and accessed by processes while running on the computing device; allocating by an allocation module a restricted section of memory within the computing device and indicating that the portion of data is located in the restricted section of memory instead of the unrestricted section of memory that actually stores the portion of data , wherein the allocation module replaces, within a data structure that indicates the base memory address of the portion of data , the actual base memory address of the data with the memory address of the restricted section of memory , and wherein the restricted section of memory represents a storage device or medium generated or allocated by a security service to detect maliciously-exploited processes; detecting an attempt by a process running on the computing device to access the portion of data within the restricted section of memory using an unexpected access method; determining , based at least in part on the process attempting to access the portion of data within the restricted section of memory using the unexpected access method, that the process is malicious; and performing a security action on the computing device to prevent the malicious process from harming the computing device.
A method for making a multi-ply paperboard, wherein the method comprises the following steps: a) forming a first web from a first furnish comprising fibres on a first forming wire wherein the first furnish is applied on the first forming wire using a first jet speed at a first jet-to-wire speed difference, wherein the first jet-to-wire speed difference is in the range of: +15 to +30 m/min, such as +16 to +25 m/min; or -15 to -30 m/min, such as -16 to -25 m/min; b) forming a second web from a second furnish comprising fibres on a second forming wire using a second jet speed, wherein the second jet speed is closer to the speed of the second forming wire than the first jet speed to the speed of the first forming wire; c) forming a third web from a third furnish comprising fibres on a third forming wire using a third jet speed, wherein the third jet speed is closer to the speed of the third forming wire than the first jet speed to the speed of the first forming wire; d) causing the second web to oscillate in a direction transverse to the machine direction (MD), wherein the stroke length in the oscillation of the second web is 10-35 mm; and e) combining the first, second and third webs into the multi-ply paperboard, wherein the first web forms a top-ply, the second web forms a middle ply and the third web forms a back-ply in the multi-ply paperboard. a) forming a first web from a first furnish comprising fibres on a first forming wire wherein the first furnish is applied on the first forming wire using a first jet speed at a first jet-to-wire speed difference, wherein the first jet-to-wire speed difference is in the range of: +15 to +30 m/min, such as +16 to +25 m/min; or -15 to -30 m/min, such as -16 to -25 m/min; +15 to +30 m/min, such as +16 to +25 m/min; or -15 to -30 m/min, such as -16 to -25 m/min; b) forming a second web from a second furnish comprising fibres on a second forming wire using a second jet speed, wherein the second jet speed is closer to the speed of the second forming wire than the first jet speed to the speed of the first forming wire; c) forming a third web from a third furnish comprising fibres on a third forming wire using a third jet speed, wherein the third jet speed is closer to the speed of the third forming wire than the first jet speed to the speed of the first forming wire; d) causing the second web to oscillate in a direction transverse to the machine direction (MD), wherein the stroke length in the oscillation of the second web is 10-35 mm; and e) combining the first, second and third webs into the multi-ply paperboard, wherein the first web forms a top-ply, the second web forms a middle ply and the third web forms a back-ply in the multi-ply paperboard.
A method for preparing a dehydrogenation catalyst, comprising: a) preparing a platinum/tin complex solution in an amount corresponding to the total pore volume of the support by first adding platinum and tin precursors to an organic solvent, then adding to the resulting mixture hydrochloric acid, then adding an organic acid and then aging the resulting solution in an inert gas atmosphere b) preparing a theta-alumina support by thermally treating a gamma-alumina support at 1000°C to 1050°C for 5 hours in a firing furnace, c) impregnating the platinum/tin complex solution resulting from step a) into the theta-alumina support of step b) using a spraying process, d) homogenizing the catalyst by flowing it in a nitrogen atmosphere, then drying the support at 100°C to 150°C for 24 hours followed by removing organic material at 200°C to 400°C in a nitrogen atmosphere and then firing the dried support at 400°C to 700°C in air, e) loading the fired support with an alkali metal to prepare an alkali metal impregnated support, f) drying the alkali metal impregnated support at 100°C to 150°C for 24 hours, then firing the dried alkali metal impregnated support at 400°C to 700°C in air, and then reducing the fired alkali metal impregnated support using a hydrogen/nitrogen mixed gas at a ratio of 4%/96% to 100%/0%, at 400°C to 600°C to obtain the dehydrogenation catalyst. a) preparing a platinum/tin complex solution in an amount corresponding to the total pore volume of the support by first adding platinum and tin precursors to an organic solvent, then adding to the resulting mixture hydrochloric acid, then adding an organic acid and then aging the resulting solution in an inert gas atmosphere b) preparing a theta-alumina support by thermally treating a gamma-alumina support at 1000°C to 1050°C for 5 hours in a firing furnace, c) impregnating the platinum/tin complex solution resulting from step a) into the theta-alumina support of step b) using a spraying process, d) homogenizing the catalyst by flowing it in a nitrogen atmosphere, then drying the support at 100°C to 150°C for 24 hours followed by removing organic material at 200°C to 400°C in a nitrogen atmosphere and then firing the dried support at 400°C to 700°C in air, e) loading the fired support with an alkali metal to prepare an alkali metal impregnated support, f) drying the alkali metal impregnated support at 100°C to 150°C for 24 hours, then firing the dried alkali metal impregnated support at 400°C to 700°C in air, and then reducing the fired alkali metal impregnated support using a hydrogen/nitrogen mixed gas at a ratio of 4%/96% to 100%/0%, at 400°C to 600°C to obtain the dehydrogenation catalyst.
A method for measuring unoccupied states of a solid by an inverse photoemission spectroscopy, comprising: a) a step of generating an electron beam; b) a step of changing kinetic energy of the generated electron beam within a range of 0 to 5 eV, and irradiating a solid sample (S) with the electron beam; c) a step of measuring intensity of light of a predetermined wavelength within a range of 180 to 700 nm included in electromagnetic waves emitted from the solid sample (S); and d) a step of determining unoccupied-states energy of the solid sample based on a spectrum created by the intensity of light with respect to the kinetic energy of the electron beam; and where the method is characterised in that the electromagnetic waves are collected by using a lens. a) a step of generating an electron beam; b) a step of changing kinetic energy of the generated electron beam within a range of 0 to 5 eV, and irradiating a solid sample (S) with the electron beam; c) a step of measuring intensity of light of a predetermined wavelength within a range of 180 to 700 nm included in electromagnetic waves emitted from the solid sample (S); and d) a step of determining unoccupied-states energy of the solid sample based on a spectrum created by the intensity of light with respect to the kinetic energy of the electron beam; and
Insertion tool having a wall of essentially tubular or funnelled shape, with, on a front portion thereof, a front side opening suitable and adapted so that an opening of an empty pouch for an implantable pulse generator , and, if present, corresponding wiring , can at least partially be shifted onto said front portion and over said front side opening , and with, on a back portion of the insertion tool , a backside opening suitable and adapted so that an implantable pulse generator , and, if present, corresponding wiring , can be inserted through that backside opening , through a passageway opening to the front side opening and into said pouch , while manually holding the insertion tool using said back portion , wherein said wall comprises an axial slot between the front side opening and the backside opening . with, on a front portion thereof, a front side opening suitable and adapted so that an opening of an empty pouch for an implantable pulse generator , and, if present, corresponding wiring , can at least partially be shifted onto said front portion and over said front side opening , and with, on a back portion of the insertion tool , a backside opening suitable and adapted so that an implantable pulse generator , and, if present, corresponding wiring , can be inserted through that backside opening , through a passageway opening to the front side opening and into said pouch , while manually holding the insertion tool using said back portion , wherein said wall comprises an axial slot between the front side opening and the backside opening .
Curtain wall comprising of one or more mullion profiles and one or more transom profiles and panels that fit with their edges into the mullion profiles and into the transom profiles, wherein the one or more mullion profiles extend vertically, wherein the one or more mullion profiles are made of a single piece or of multiple connected non-detachable sub-profiles and are provided with an undercut groove with a fixed width (A1) access opening on two opposite sides, which grooves form a rabbet in which the side edge of a said panel is fitted, wherein sealing pieces are provided on the ends of the one or more transom profiles , wherein the one or more transom profiles extend horizontally between two mullion profiles and are fitted with their ends and the sealing pieces provided on said ends in the aforementioned grooves of these two mullion profiles , wherein the sealing pieces sealingly fit in the grooves , forming a barrier for water, wherein the barrier is adapted to divert this water to a said transom profile and wherein the transom profiles are adapted to drain this water to the outside of the curtain wall .
A wind turbine hub comprising at least - a main body portion realised for connection to a plurality of rotor blades , and comprising an interior cavity dimensioned to accommodate service personnel (P) ; - a removable access hatch arranged at the front of the hub ; - a locking arrangement realised to lock the access hatch in place and to release the access hatch from its locked state to expose an access opening (E) at the front of the hub , the locking arrangement comprises: a first annular structure arranged about the access hatch , a second annular structure arranged on the main body portion , and a number of two-part locking devices , wherein the first part of a locking device is mounted to the first annular structure and wherein the second part of the locking device is mounted to the second annular structure , and wherein a two-part locking device comprises a release mechanism that can be opened to release the first part from the second part or closed to lock the first part to the second part ; and wherein the access hatch and locking arrangement are constructed to allow the released access hatch to be detached and moved only into the interior cavity of the main body portion . - a main body portion realised for connection to a plurality of rotor blades , and comprising an interior cavity dimensioned to accommodate service personnel (P) ; - a removable access hatch arranged at the front of the hub ; - a locking arrangement realised to lock the access hatch in place and to release the access hatch from its locked state to expose an access opening (E) at the front of the hub , the locking arrangement comprises: a first annular structure arranged about the access hatch , a second annular structure arranged on the main body portion , and a number of two-part locking devices , wherein the first part of a locking device is mounted to the first annular structure and wherein the second part of the locking device is mounted to the second annular structure , and wherein a two-part locking device comprises a release mechanism that can be opened to release the first part from the second part or closed to lock the first part to the second part ; and wherein the access hatch and locking arrangement are constructed to allow the released access hatch to be detached and moved only into the interior cavity of the main body portion .
A mobile agricultural machine comprising: a sensor capable of sensing a gaseous composition of an air flow impinging the sensor ; an air filtering unit configured to remove particulate matter from the air flow ; and a controller configured to: receive a sensing signal from the sensor , wherein the sensing signal is representative of the gaseous composition; and output an indication signal if the gaseous composition is indicative of an anomaly associated with an operation of the mobile agricultural machine . a sensor capable of sensing a gaseous composition of an air flow impinging the sensor ; an air filtering unit configured to remove particulate matter from the air flow ; and a controller configured to: receive a sensing signal from the sensor , wherein the sensing signal is representative of the gaseous composition; and output an indication signal if the gaseous composition is indicative of an anomaly associated with an operation of the mobile agricultural machine . receive a sensing signal from the sensor , wherein the sensing signal is representative of the gaseous composition; and output an indication signal if the gaseous composition is indicative of an anomaly associated with an operation of the mobile agricultural machine .
A biosensor device , comprising: a substrate ; an oxide layer disposed on the substrate ; and a sensing wire disposed on the oxide layer adapted for receiving target biomolecules, and including at least one first section extending along a first direction and at least one second section extending along a second direction, the at least one first section being continuous with the at least one second section , the first direction being different from the second direction, characterized in that the sensing wire has a width (W) in nanometer-range and a total length (L) and a ratio (L/W) of the total length (L) to the width (W) is larger than 500; and the sensing wire is disposed in a well surrounded by a wall layer . a substrate ; an oxide layer disposed on the substrate ; and a sensing wire disposed on the oxide layer adapted for receiving target biomolecules, and including at least one first section extending along a first direction and at least one second section extending along a second direction, the at least one first section being continuous with the at least one second section , the first direction being different from the second direction, characterized in that the sensing wire has a width (W) in nanometer-range and a total length (L) and a ratio (L/W) of the total length (L) to the width (W) is larger than 500; and the sensing wire is disposed in a well surrounded by a wall layer .
A seal cartridge comprising: a frame that houses one or more seals; and a top cap adapted to be coupled to the frame and that includes a main body and a latch ring , wherein the latch ring is grounded to the main body and has first and second latches located at opposite angular positions around the circumference of the latch ring , wherein the first and second latches extend distally from the latch ring and are configured to releasably couple the seal cartridge to a trocar , and characterised in that the latch ring is grounded to the main body at two first angular positions located angularly opposite each other around the circumference of the latch ring , and the first and second latches are located at second angular positions around the circumference of the latch ring angularly offset from the first angular positions so that the latches angularly interpose the two first angular positions , such that applying a radial load on the first and second latches simultaneously in opposite radial directions causes the latch ring to flex in torsion at intermediate portions that angularly interpose the first and second angular positions , and the latches to rotate radially inward relative to the main body . a frame that houses one or more seals; and a top cap adapted to be coupled to the frame and that includes a main body and a latch ring , wherein the latch ring is grounded to the main body and has first and second latches located at opposite angular positions around the circumference of the latch ring , wherein the first and second latches extend distally from the latch ring and are configured to releasably couple the seal cartridge to a trocar , and characterised in that the latch ring is grounded to the main body at two first angular positions located angularly opposite each other around the circumference of the latch ring , and the first and second latches are located at second angular positions around the circumference of the latch ring angularly offset from the first angular positions so that the latches angularly interpose the two first angular positions , such that applying a radial load on the first and second latches simultaneously in opposite radial directions causes the latch ring to flex in torsion at intermediate portions that angularly interpose the first and second angular positions , and the latches to rotate radially inward relative to the main body .
Road sweeper machine comprising: - a vehicle suitable for road transport and comprising an electric motor of a brushless type, - sweeping elements connected to said vehicle and suitable for removing waste on the ground, - a collection system for said waste placed at the bottom of said vehicle - a chamber for containing said collected waste connected to said collection system , and characterised by - said electric motor comprises a hexa-phase system , - said hexa-phase system comprising: - a rotor comprising a plurality of permanent type magnets - two stators , - two inverter circuits , each connected to one of said stators , and each mutually independent, - each said inverter being capable of sending a three-phase current to said connected stator . - a vehicle suitable for road transport and comprising an electric motor of a brushless type, - sweeping elements connected to said vehicle and suitable for removing waste on the ground, - a collection system for said waste placed at the bottom of said vehicle - a chamber for containing said collected waste connected to said collection system , and characterised by - said electric motor comprises a hexa-phase system , - said hexa-phase system comprising: - a rotor comprising a plurality of permanent type magnets - two stators , - two inverter circuits , each connected to one of said stators , and each mutually independent, - each said inverter being capable of sending a three-phase current to said connected stator . - a rotor comprising a plurality of permanent type magnets - two stators , - two inverter circuits , each connected to one of said stators , and each mutually independent, - each said inverter being capable of sending a three-phase current to said connected stator .
Composition of monoclonal antibodies directed against the BDCA-2 protein, said antibodies having a fucosylation level of less than 60% of the glycosylated forms, and said antibodies involving destruction of plasmacytoid DC cells by the ADCC mechanism.