mhurhangee/ep-ind-claims huggingface dataset:
Fluid flow engine, in particular an axial compressor, having at least one guide blade assembly that comprises at least one row of adjustable guide blades (1,2), wherein each guide blade (1, 2) has, in a side view of the guide blade (1, 2) with respect to its turbine blade, a taper (1c, 2c) in the direction of its longitudinal axis, characterised in that each row of guide blades comprises first guide blades and second guide blades, wherein, in a mutual side view of a first guide blade and a second guide blade, each first guide blade has a taper in a longitudinal direction along its turbine blade and each second guide blade has a taper in an opposite direction.
A process for preparing lithium bis(fluorosulfonyl)imide, comprising the following steps of: - contacting of bis(fluorosulfonyl)imide with a lithium base in a solvent selected from carbonates, ethers and nitriles, to obtain a mixture comprising lithium bis(fluorosulfonyl)imide and water; - diafiltration of the mixture on a nanofiltration membrane so as to obtain, firstly, a concentrate enriched in lithium bis(fluorosulfonyl)imide and depleted in water and, secondly, a permeate depleted in lithium bis(fluorosulfonyl)imide and enriched in water. - contacting of bis(fluorosulfonyl)imide with a lithium base in a solvent selected from carbonates, ethers and nitriles, to obtain a mixture comprising lithium bis(fluorosulfonyl)imide and water; - diafiltration of the mixture on a nanofiltration membrane so as to obtain, firstly, a concentrate enriched in lithium bis(fluorosulfonyl)imide and depleted in water and, secondly, a permeate depleted in lithium bis(fluorosulfonyl)imide and enriched in water.
An oil distributor comprising: an oil distribution conduit having an inlet end and an outlet; a shaft having an oil delivery arrangement at the outlet of the oil distribution conduit, the oil delivery arrangement including a circumferential channel on an inner surface of the shaft, the circumferential channel having a base, an upstream wall and a downstream delivery wall, characterised in that: the delivery wall includes a plurality of circumferentially distributed delivery apertures extending therethrough, such that oil can escape and be delivered from the circumferential channel prior to the oil level reaching a free end of the delivery wall. an oil distribution conduit having an inlet end and an outlet; a shaft having an oil delivery arrangement at the outlet of the oil distribution conduit, the oil delivery arrangement including a circumferential channel on an inner surface of the shaft, the circumferential channel having a base, an upstream wall and a downstream delivery wall, characterised in that: the delivery wall includes a plurality of circumferentially distributed delivery apertures extending therethrough, such that oil can escape and be delivered from the circumferential channel prior to the oil level reaching a free end of the delivery wall.
An aircraft controller configured to: determine information associated with an aircraft taxiing route associated with an aircraft; and on the basis of the information, determine a first braking parameter for a first main landing gear of the aircraft and a second braking parameter for a second main landing gear of the aircraft during a landing event, the first and second braking parameters being determined to result in asymmetrical braking between the first and second main landing gears during the landing event. determine information associated with an aircraft taxiing route associated with an aircraft; and on the basis of the information, determine a first braking parameter for a first main landing gear of the aircraft and a second braking parameter for a second main landing gear of the aircraft during a landing event, the first and second braking parameters being determined to result in asymmetrical braking between the first and second main landing gears during the landing event.
Rotary encoder having integrated therein a detector device comprising at least one measurement sensor by which, during operation, a measurement signal (13, 14) can be generated that is representative of the angular position and/or velocity of an object which is connectable to the rotary encoder, at least one rotary bearing, and at least one material measure which is arranged rotatable relative to the measurement sensor in the measurement field thereof by means of the rotary bearing, and a monitoring device which is connected to the measurement sensor such that data are transmitted, characterized in that the monitoring device comprises a counter which can permanently store a value which is representative of the state of wear of the rotary bearing and is formed from the information contained in the measurement signal on the angular position and/or velocity.
Method for sealing a surface comprising: a) an optional step of applying a composition A onto said surface, then b) a step of projecting a composition B and fibres selected from basalt, cast iron, carbon, aramid, polyethylene, metal and alloy fibres, natural fibres, hybrid fibres, glass fibres, plastic fibres, and mixtures thereof, preferably alkali-resistant glass fibres, said fibres being projected either simultaneously with composition B, or mixed with composition B prior to the application of said composition B, then c) an optional step of applying a composition C, the compositions A, B and C comprising a geopolymer binder (or alkali-activated material) which may be identical or different. a) an optional step of applying a composition A onto said surface, then b) a step of projecting a composition B and fibres selected from basalt, cast iron, carbon, aramid, polyethylene, metal and alloy fibres, natural fibres, hybrid fibres, glass fibres, plastic fibres, and mixtures thereof, preferably alkali-resistant glass fibres, said fibres being projected either simultaneously with composition B, or mixed with composition B prior to the application of said composition B, then c) an optional step of applying a composition C,
A cooling device comprising at least one body wherein the items to be cooled are placed; at least one door which provides access into the body; at least one main pin seating on at least one hinge which are fixed to the door, wherein the door is connected to the hinge via the main pin, which enable the door to be attached to the body and whereon the door is mounted so as to rotate therearound; at least one adjustment mechanism with one end being accessible from the outside, which serves as a lever when a force is exerted from the outside in a manner to move upwards/downwards in the vertical axis, thus enabling the main pin and the hinge to stop at the desired position and if required, enabling the position of the door on the body to be changed by being actuated characterized by a hook-shaped arm which is provided on the adjustment mechanism and which has an actuation member at the end thereof open to the outer environment, said actuation member being being a screw or a bolt which can be screwed/unscrewed by a tool, and a pressure member at the other end thereof which has the hinge seated on it and which moves upwards/downwards in the vertical axis with the movement of the actuation member when a force is exerted on the actuation member; a bearing hole which is arranged on the hook-shaped arm between the actuation member and the pressure member; and a first pin which is fitted into the bearing hole so as to enable the arm to move by rotating around an horizontal axis.
A thermostatic valve comprising a case, the case comprising at least one fluid inlet, at least one first fluid outlet and at least one second fluid outlet, a main flap movable relative to the case between a closed position in which the main flap closes the first fluid outlet and an open position in which the main flap opens the first fluid outlet, a thermostatic actuator, the thermostatic actuator comprising an actuating rod connected to the main flap and a capsule containing a heat-expandable material, and a heating element intended to heat the heat-expandable material, the capsule of the thermostatic actuator is further fixedly mounted relative to the case, passes through the case and has an inner portion which extends inside the case, the latter having a mounting opening across which the capsule extends, so as to bathe in the fluid circulating between the inlet and the second outlet of the case, the inner portion extending over at least one third of the total length of the capsule, and the capsule has an outer portion which extends outside the case, characterized in that the heating element arranged outside the case and outside the capsule to heat the outer portion of this capsule.
A content delivery system, comprising: a delivery server on the Internet or a storage apparatus on a mobile network, the delivery server or the storage apparatus holding a plurality of contents in store; a packet forwarding apparatus that forwards a packet; a plurality of cache servers that temporarily retain at least part of the plurality of contents; and a controller that controls the plurality of cache servers, wherein the controller receives, from the plurality of cache servers, an access frequency to each of the plurality of contents and a load state of each of the plurality of cache servers, receives, from the packet forwarding apparatus, information of a terminal being or not being in a service area, decides that a content, with an access frequency which is higher than a predetermined threshold value, will be allocated to predetermined two or more of the plurality of cache servers, decides that at least part of the other contents will be allocated to the plurality of cache servers using at least one out of the information of the terminal being or not being in a service area and topology information of the mobile network, and instructs the plurality of cache servers to retain the plurality of contents depending on the decided allocation, and the plurality of cache servers caches the plurality of contents as instructed, and, on reception of a request for a content from the terminal, delivers the requested content to the terminal via the packet forwarding apparatus. a delivery server on the Internet or a storage apparatus on a mobile network, the delivery server or the storage apparatus holding a plurality of contents in store; a packet forwarding apparatus that forwards a packet; a plurality of cache servers that temporarily retain at least part of the plurality of contents; and a controller that controls the plurality of cache servers, wherein the controller receives, from the plurality of cache servers, an access frequency to each of the plurality of contents and a load state of each of the plurality of cache servers, receives, from the packet forwarding apparatus, information of a terminal being or not being in a service area, decides that a content, with an access frequency which is higher than a predetermined threshold value, will be allocated to predetermined two or more of the plurality of cache servers, decides that at least part of the other contents will be allocated to the plurality of cache servers using at least one out of the information of the terminal being or not being in a service area and topology information of the mobile network, and instructs the plurality of cache servers to retain the plurality of contents depending on the decided allocation, and the plurality of cache servers caches the plurality of contents as instructed, and, on reception of a request for a content from the terminal, delivers the requested content to the terminal via the packet forwarding apparatus.
A method for synthesizing an Ahp-cyclodepsipeptide, comprising the steps of (a) providing a resin loaded with 5-hydroxy-norvaline, named amino acid P1', wherein the 5-hydroxy-norvaline P1' is coupled to the resin via its 5-hydroxyl group forming an ether bond with the resin; (b) adding 2 to 6 amino acids, named amino acid P1 to P6, to the 5-hydroxy-norvaline P1' using N terminal peptide synthesis, wherein the second amino acid P2 is an amino acid with a hydroxyl group in the side chain; (c) adding an amino acid, named Px, to the hydroxyl group of the amino acid P2 via esterification with the α-carboxylic acid group of the amino acid; (d) adding an N-methylated amino acid, named P3', to the amino acid Px added in step (c) using N terminal peptide synthesis; (e) adding an amino acid, named P2', to the methylated amino group of the amino acid P3' added in step (d); (f) forming a peptide pond between the α-carboxylic acid group of the 5-hydroxy-norvaline P1' and the α-amino group of the amino acid P2' added in step (e), thereby cyclizing the formed peptide; (g) cleaving the cyclic peptide from the resin; (h) oxidizing the peptide so that the 5-hydroxy-norvaline P1' and the amino acid P2' added in step (e) form a 3-amino-6-hydroxy-2-piperidone unit, thereby providing an Ahp-cyclodepsipeptide. (a) providing a resin loaded with 5-hydroxy-norvaline, named amino acid P1', wherein the 5-hydroxy-norvaline P1' is coupled to the resin via its 5-hydroxyl group forming an ether bond with the resin; (b) adding 2 to 6 amino acids, named amino acid P1 to P6, to the 5-hydroxy-norvaline P1' using N terminal peptide synthesis, wherein the second amino acid P2 is an amino acid with a hydroxyl group in the side chain; (c) adding an amino acid, named Px, to the hydroxyl group of the amino acid P2 via esterification with the α-carboxylic acid group of the amino acid; (d) adding an N-methylated amino acid, named P3', to the amino acid Px added in step (c) using N terminal peptide synthesis; (e) adding an amino acid, named P2', to the methylated amino group of the amino acid P3' added in step (d); (f) forming a peptide pond between the α-carboxylic acid group of the 5-hydroxy-norvaline P1' and the α-amino group of the amino acid P2' added in step (e), thereby cyclizing the formed peptide; (g) cleaving the cyclic peptide from the resin; (h) oxidizing the peptide so that the 5-hydroxy-norvaline P1' and the amino acid P2' added in step (e) form a 3-amino-6-hydroxy-2-piperidone unit, thereby providing an Ahp-cyclodepsipeptide.
A process for manufacturing a flameproof fiber product, which comprises the step of adhering a flameproofing agent to a fiber product in an amount of 3 to 150 wt% as a solid content, wherein the flameproofing agent comprises (i) 100 parts by weight of a dispersant, (ii) 1 to 300 parts by weight of an organic phosphorus compound (component A) represented by the following formula based on 100 parts by weight of the dispersant and (iii) 1 to 200 parts by weight of melamine polyphosphate based on 100 parts by weight of the component A. (In the above formula, X 1 and X 2 are the same or different and each an aromatic substituted alkyl group represented by the following formula.) (In the above formula, AL is a branched or linear aliphatic hydrocarbon group having 1 to 5 carbon atoms, Ar is a phenyl group, naphthyl group or anthryl group all of which may have a substituent, "n" is an integer of 1 to 3, and Ar may be bonded to any carbon atom contained in AL.) (i) 100 parts by weight of a dispersant, (ii) 1 to 300 parts by weight of an organic phosphorus compound (component A) represented by the following formula based on 100 parts by weight of the dispersant and (iii) 1 to 200 parts by weight of melamine polyphosphate based on 100 parts by weight of the component A. (In the above formula, X 1 and X 2 are the same or different and each an aromatic substituted alkyl group represented by the following formula.) (In the above formula, AL is a branched or linear aliphatic hydrocarbon group having 1 to 5 carbon atoms, Ar is a phenyl group, naphthyl group or anthryl group all of which may have a substituent, "n" is an integer of 1 to 3, and Ar may be bonded to any carbon atom contained in AL.)
A method for phase contrast imaging of an object using a glancing angle interferometer comprising a multi-sector source grating, a beam-splitter grating, and an analyzer grating, wherein the object is positioned between the beam-splitter grating and the analyzer grating, the method comprising; directing an X- ray beam onto the multi-sector source grating, wherein each sector of the multi-sector source grating is offset by a predetermined amount; translating the object or the interferometer to obtain multiple images during a single exposure, wherein the multiple images have a different interferometer phasing due to the offset between each sector of the multi-sector source grating; and combining the multiple images that were obtained to produce a phase contrast image of the object
A display device comprising: - a display panel (13, 13') configured to display a video image of a surrounding area of a vehicle taken by a camera (15, 15a, 15b, 15c) and attached to a pillar-like member (21, 31) fixed to the vehicle and to the display panel; - a housing (11, 11') rotatably attached to the pillar-like member (21, 31) by using a rotation member (25, 35) and connection members (23, 24, 33, 34) connecting the rotation member (25, 35) with the pillar-like member (21, 31) and with the housing (11, 11') respectively, and configured to house a display panel (13, 13') so that the housing covers a periphery of the display panel (13, 13') and to be able to be displaced independently of the display panel (13, 13'); - a sensor attached to the rotation member configured to detect a displacement of the housing (11, 11') relative to the display panel when the housing is displaced; and - a control unit configured to perform control so that a video image shifted in a direction conforming to a direction of the displacement of the housing (11, 11') seen from the driver and detected by the sensor is displayed, - wherein - the control unit performs the control by changing a cut-out place that is cut out from a video image taken by the camera (15, 15a, 15b, 15c), and - the cut-out place within the video image is adjusted according to the displacement of the housing (11, 11') relative to the display panel. - a display panel (13, 13') configured to display a video image of a surrounding area of a vehicle taken by a camera (15, 15a, 15b, 15c) and attached to a pillar-like member (21, 31) fixed to the vehicle and to the display panel; - a housing (11, 11') rotatably attached to the pillar-like member (21, 31) by using a rotation member (25, 35) and connection members (23, 24, 33, 34) connecting the rotation member (25, 35) with the pillar-like member (21, 31) and with the housing (11, 11') respectively, and configured to house a display panel (13, 13') so that the housing covers a periphery of the display panel (13, 13') and to be able to be displaced independently of the display panel (13, 13'); - a sensor attached to the rotation member configured to detect a displacement of the housing (11, 11') relative to the display panel when the housing is displaced; and - a control unit configured to perform control so that a video image shifted in a direction conforming to a direction of the displacement of the housing (11, 11') seen from the driver and detected by the sensor is displayed, - wherein - the control unit performs the control by changing a cut-out place that is cut out from a video image taken by the camera (15, 15a, 15b, 15c), and - the cut-out place within the video image is adjusted according to the displacement of the housing (11, 11') relative to the display panel.
A portable device comprising: a display configured to provide a display region that is displayed with a first brightness; a sensor configured to sense a surrounding brightness of the portable device; and a controller configured to control the display to: if an illuminance value corresponding to the surrounding brightness of the portable device sensed by the sensor is equal to or greater than a threshold value, or a changed value of the illuminance value is equal to or greater than a threshold value, display a partial region included in the display region with a second brightness different from the first brightness, the partial region comprising a User Interaction element; wherein the UI element comprises a UI element for controlling a brightness of the display region excluding the partial region, and wherein the controller is configured, in response to a user input being received through the UI element, to control the display to display a region excluding the partial region of the display region continuously with the first brightness, or with a fourth brightness that is lower than the second brightness a display configured to provide a display region that is displayed with a first brightness; a sensor configured to sense a surrounding brightness of the portable device; and a controller configured to control the display to: if an illuminance value corresponding to the surrounding brightness of the portable device sensed by the sensor is equal to or greater than a threshold value, or a changed value of the illuminance value is equal to or greater than a threshold value, display a partial region included in the display region with a second brightness different from the first brightness, the partial region comprising a User Interaction element; wherein the UI element comprises a UI element for controlling a brightness of the display region excluding the partial region, and wherein the controller is configured, in response to a user input being received through the UI element, to control the display to display a region excluding the partial region of the display region continuously with the first brightness, or with a fourth brightness that is lower than the second brightness if an illuminance value corresponding to the surrounding brightness of the portable device sensed by the sensor is equal to or greater than a threshold value, or a changed value of the illuminance value is equal to or greater than a threshold value, display a partial region included in the display region with a second brightness different from the first brightness, the partial region comprising a User Interaction element; wherein the UI element comprises a UI element for controlling a brightness of the display region excluding the partial region, and