mhurhangee/patent-ind-claim-en huggingface dataset:
A coupling device for an atmospheric pressure real-time mass spectrometry apparatus that is an interface member attachable between an excitation gas ejecting port of an ion source using a principle of a DART method and an ionized sample gas collecting port of a mass spectrometer of the mass spectrometry apparatus, comprising: A) an excitation gas introducing port on one surface of the coupling device to be connected to the excitation gas ejecting port of the ion source , a sample gas introducing port , and an ionized sample gas discharging port on another surface of the coupling device to be connected to the ionized sample gas collecting port of the mass spectrometer ; B) a linear-tube shaped channel through which the excitation gas introducing port on the one surface of the coupling device and the ionized sample gas discharging port on the other surface of the coupling device are connected at the shortest distance and are in communication; C) a space for mixing an excitation gas and a sample gas being formed in a region of a portion of the channel recited in B), by the coupling device having a sample gas introducing channel by which the sample gas introducing port and the channel recited in B) are in communication; and D) an outside air introducing port , wherein the coupling device has a structure in which a channel from the outside air introducing port is in communication with the channel recited in B) at the space recited in C) or at a position on the ionized sample gas discharging port side with respect to the space recited in C). A) an excitation gas introducing port on one surface of the coupling device to be connected to the excitation gas ejecting port of the ion source , a sample gas introducing port , and an ionized sample gas discharging port on another surface of the coupling device to be connected to the ionized sample gas collecting port of the mass spectrometer ; B) a linear-tube shaped channel through which the excitation gas introducing port on the one surface of the coupling device and the ionized sample gas discharging port on the other surface of the coupling device are connected at the shortest distance and are in communication; C) a space for mixing an excitation gas and a sample gas being formed in a region of a portion of the channel recited in B), by the coupling device having a sample gas introducing channel by which the sample gas introducing port and the channel recited in B) are in communication; and D) an outside air introducing port , wherein the coupling device has a structure in which a channel from the outside air introducing port is in communication with the channel recited in B) at the space recited in C) or at a position on the ionized sample gas discharging port side with respect to the space recited in C).
A device for manufacturing a supporting structure for a passenger transport system, wherein the supporting structure has a frame-work with load-bearing frame-work components interconnected to a lower part , a middle part and an upper part , respectively, wherein the device has a sequential arrangement of assembly stations , semi- or fully automatically operating and cooperating with each other, wherein the sequential arrangement comprises: a first assembly station , having - at least one holding device for holding frame-work components and - at least one welding robot for welding-together the frame-work components , each to the side parts of the lower part , the side parts of the middle part , and the side parts of the upper part of the framework ; and a second assembly station for positionally welding-together the side parts of the lower part , the side parts of the middle part and the side parts of the upper part , welded-together in the first assembly station , with other frame-work components . a first assembly station , having - at least one holding device for holding frame-work components and - at least one welding robot for welding-together the frame-work components , each to the side parts of the lower part , the side parts of the middle part , and the side parts of the upper part of the framework ; and - at least one holding device for holding frame-work components and - at least one welding robot for welding-together the frame-work components , each to the side parts of the lower part , the side parts of the middle part , and the side parts of the upper part of the framework ; and a second assembly station for positionally welding-together the side parts of the lower part , the side parts of the middle part and the side parts of the upper part , welded-together in the first assembly station , with other frame-work components .
An arrangement for bonding a micro-component to a substrate, the arrangement comprising a substrate and a dielectric layer disposed across a surface of the substrate and a plurality of parallel-disposed slots etched into the dielectric layer , the substrate forming an etch-stop for the slots , each slot having an associated, predefined length l and formed to an associated depth d into the dielectric layer the plurality of slots configured to accommodate and hold a prescribed volume of liquid adhesive material suitable for providing bonding of the micro-component to the substrate wherein the arrangement further comprises at least one channel disposed adjacent to the plurality of slots and configured to capture and retain extraneous liquid adhesive material upon the joining of the micro-component to the substrate, wherein the at least one channel is formed to surround the periphery of the plurality of slots ; and wherein the at least one channel is formed to be deeper than the plurality of slots , and extends into the substrate beneath the dielectric layer .
An aeration system for seawater oxidation in flue gas purification devices, comprising a) a tubular diffuser (TD), comprising a tubular body , defining an inner hollow space and a central longitudinal axis (A), wherein the tubular body has zones featuring air outlet ports , each of which extends from the hollow space outwardly and through the tubular body , b) at least two tubular, perforated, elastic membranes , which are positioned one after the other in a direction of the central longitudinal axis (A) as well as over and in contact with said zones of the tubular body featuring outlet ports , and with their corresponding end-zones (20.1, 20.2) at a distance (d) to each other, thereby defining at least one membrane-free section (FS) of the tubular body between the corresponding end-zones (20.1, 20.2) of adjacent elastic membranes , c) at least one support member (SP), which encircles the membrane-free section (FS) of the tubular body at least partially, and d) at least one sliding means , arranged between the support member (SP) and the membrane-free section (FS) of the tubular body , to allow a movement of the tubular body within the support member (SP) in the direction of the central longitudinal axis (A), without affecting the support function of the support. a) a tubular diffuser (TD), comprising a tubular body , defining an inner hollow space and a central longitudinal axis (A), wherein the tubular body has zones featuring air outlet ports , each of which extends from the hollow space outwardly and through the tubular body , b) at least two tubular, perforated, elastic membranes , which are positioned one after the other in a direction of the central longitudinal axis (A) as well as over and in contact with said zones of the tubular body featuring outlet ports , and with their corresponding end-zones (20.1, 20.2) at a distance (d) to each other, thereby defining at least one membrane-free section (FS) of the tubular body between the corresponding end-zones (20.1, 20.2) of adjacent elastic membranes , c) at least one support member (SP), which encircles the membrane-free section (FS) of the tubular body at least partially, and d) at least one sliding means , arranged between the support member (SP) and the membrane-free section (FS) of the tubular body , to allow a movement of the tubular body within the support member (SP) in the direction of the central longitudinal axis (A), without affecting the support function of the support.
A turbomachine, comprising: a high pressure spool (HS); a low pressure spool (LS); and a dual spool differential (100;100a) comprising a gear assembly connected to the low pressure spool at a low pressure spool input and the high pressure spool at a high pressure spool input , the gear assembly configured to combine the low pressure spool input and the high pressure spool input into a combination output to provide an output speed range smaller than a low pressure spool speed range alone; a direct drive assembly configured to selectively allow bypassing of the combination output to allow selective direct engagement of a low pressure spool to directly drive a rotational member (703; 109) or to be directly driven by the rotational member; and a transmission assembly connected to the direct drive assembly at a transmission input to be driven by the combination output to turn a transmission output , the transmission assembly configured to provide a first output gear ratio in a first state and a second output gear ratio in a second state. a high pressure spool (HS); a low pressure spool (LS); and a dual spool differential (100;100a) comprising a gear assembly connected to the low pressure spool at a low pressure spool input and the high pressure spool at a high pressure spool input , the gear assembly configured to combine the low pressure spool input and the high pressure spool input into a combination output to provide an output speed range smaller than a low pressure spool speed range alone; a direct drive assembly configured to selectively allow bypassing of the combination output to allow selective direct engagement of a low pressure spool to directly drive a rotational member (703; 109) or to be directly driven by the rotational member; and a transmission assembly connected to the direct drive assembly at a transmission input to be driven by the combination output to turn a transmission output , the transmission assembly configured to provide a first output gear ratio in a first state and a second output gear ratio in a second state.
A shutter for a rotary valve, comprising: a main body , having a substantially spheroidal conformation and equipped with a through cavity having a longitudinal axis (X); at least one plate , equipped with a plurality of through openings and arranged within the through cavity ; wherein the plate is arranged parallel to the longitudinal axis (X); and is equipped with a curved conformation about an axis parallel to the longitudinal axis (X) characterised in that : the plate comprises a concave face and a convex face concentric to one another and has a constant radius of curvature on any section plane perpendicular to the longitudinal axis (X); and in that the mean radius of curvature of the plate , measured approximately on an intermediate section between the concave face and the convex face, is substantially equal to the diameter of the through cavity .
A transportable container, of the type of a trolley case, suitcase, trunk, backpack, and the like, which comprises at least one shell , which delimits an inner compartment for accommodating items of clothing and other objects, and at least one handle , which can be gripped by a user, the container further comprising at least one removable means of interlocking said handle with at least one respective abutment , which is associated with said shell , said at least one removable interlocking means comprising at least one hook , which is anchored to said at least one handle and which can removably engage by interlocking with said at least one abutment , the container further comprising at least one pair of wheels , which are rotatably supported by a respective shaft , which is fixed to said shell , said at least one hook being engaged by interlocking with respective portions of said shaft , constituting said abutment .
A storage unit for an Unmanned Aerial Vehicle, also known as UAV , the storage unit comprising a container with a first sliding cover and with a second sliding cover for enclosing the UAV , characterised in that the storage unit further comprises a vibration sensor and mercury switch assembly (40") comprising a vibration sensor being adapted to detect slight shaking movement and a mercury switch being adapted to detect tilting.
A photosensitive microcapsule comprising a. a core material comprising a benefit agent; and b. a shell comprising a photosensitive polymer; wherein the photosensitive polymer comprises a photosensitive moiety comprising a structure selected from the group consisting of and combinations thereof; wherein R 5 is selected from alkyl, substituted alkyl, alkoxy, substituted alkoxy, carboxy, carboxyl, substituted carboxyl, aryl, substituted aryl, or is a carbon atom of a polymer backbone; wherein R 6 and R 9 comprise a 1,3 dione moiety. a. a core material comprising a benefit agent; and b. a shell comprising a photosensitive polymer; wherein R 5 is selected from alkyl, substituted alkyl, alkoxy, substituted alkoxy, carboxy, carboxyl, substituted carboxyl, aryl, substituted aryl, or is a carbon atom of a polymer backbone; wherein R 6 and R 9 comprise a 1,3 dione moiety.
An energy storage device comprising: a first electrode comprising an electrochemically active material and first porous carbon particles; a second electrode comprising lithium-intercalating carbon particles, elemental lithium metal and a fibrillizable binder; wherein at least some of the lithium-intercalating carbon particles and the elemental lithium metal form lithium-carbon composite particles, wherein the lithium-carbon composite particles comprise pores, and wherein at least some of the elemental lithium metal particles are situated within the pores; or wherein at least some of the lithium-intercalating carbon particles and the elemental lithium metal form lithium-intercalating carbon particles coated with elemental lithium metal; and a separator between the first electrode and the second electrode; wherein the second electrode is a dry process film free of solvent residues. a first electrode comprising an electrochemically active material and first porous carbon particles; a second electrode comprising lithium-intercalating carbon particles, elemental lithium metal and a fibrillizable binder; wherein at least some of the lithium-intercalating carbon particles and the elemental lithium metal form lithium-carbon composite particles, wherein the lithium-carbon composite particles comprise pores, and wherein at least some of the elemental lithium metal particles are situated within the pores; or wherein at least some of the lithium-intercalating carbon particles and the elemental lithium metal form lithium-intercalating carbon particles coated with elemental lithium metal; and wherein at least some of the lithium-intercalating carbon particles and the elemental lithium metal form lithium-carbon composite particles, wherein the lithium-carbon composite particles comprise pores, and wherein at least some of the elemental lithium metal particles are situated within the pores; or wherein at least some of the lithium-intercalating carbon particles and the elemental lithium metal form lithium-intercalating carbon particles coated with elemental lithium metal; and a separator between the first electrode and the second electrode; wherein the second electrode is a dry process film free of solvent residues.
A process for adjusting the time reference of time series data acquired from a wellbore sensor relative to a reference time series where the process comprises: a. acquiring a first time series from a sensor in a wellbore ; b. acquiring a reference time series; c. determining a linear moveout time correction to apply to the first time series, the linear moveout time correction equal to the depth of the wellbore sensor divided by the signal propagation velocity; d. applying the linear moveout correction to the first time series; characterised by e. cross-correlating the first-time series with the reference time series to determine a cross-correlation time correction to apply to the first-time series; f. applying the cross-correlation time correction to the first time series to obtain a cross-correlation corrected time series; and g. further characterised by determining a dynamic time warp series of time correction to apply to the first time series with the reference time series and correcting for clock-drift based on a dynamic time warping method. a. acquiring a first time series from a sensor in a wellbore ; b. acquiring a reference time series; c. determining a linear moveout time correction to apply to the first time series, the linear moveout time correction equal to the depth of the wellbore sensor divided by the signal propagation velocity; d. applying the linear moveout correction to the first time series; characterised by e. cross-correlating the first-time series with the reference time series to determine a cross-correlation time correction to apply to the first-time series; f. applying the cross-correlation time correction to the first time series to obtain a cross-correlation corrected time series; and g. further characterised by determining a dynamic time warp series of time correction to apply to the first time series with the reference time series and correcting for clock-drift based on a dynamic time warping method.
A vehicle comprising: a motor configured to drive a vehicle wheel ; a battery configured to supply electric power to the motor ; and a radiator configured to exchange heat between a coolant for cooling the motor and outside air (A), wherein the motor , the battery and the radiator are disposed at a rear portion of the vehicle , the battery is disposed in front of the motor with respect to the vehicle , and the radiator is disposed below a floor surface of the vehicle and in a gap (G) between the motor and the battery in a front-rear direction of the vehicle , characterized in that , the radiator is disposed in a state of being inclined downward from the front to the rear of the vehicle and is covered with an undercover from below, the undercover includes an opening portion for supplying the outside air (A) to the radiator in front of the radiator with respect to the vehicle , and the opening portion is an outlet portion of a duct recessed by the undercover such that a length in the vehicle width direction gradually increases toward the rear of the vehicle . a motor configured to drive a vehicle wheel ; a battery configured to supply electric power to the motor ; and a radiator configured to exchange heat between a coolant for cooling the motor and outside air (A), wherein the motor , the battery and the radiator are disposed at a rear portion of the vehicle , the battery is disposed in front of the motor with respect to the vehicle , and the radiator is disposed below a floor surface of the vehicle and in a gap (G) between the motor and the battery in a front-rear direction of the vehicle , characterized in that , the radiator is disposed in a state of being inclined downward from the front to the rear of the vehicle and is covered with an undercover from below, the undercover includes an opening portion for supplying the outside air (A) to the radiator in front of the radiator with respect to the vehicle , and the opening portion is an outlet portion of a duct recessed by the undercover such that a length in the vehicle width direction gradually increases toward the rear of the vehicle .
An optical film for eyewear comprising an optical functional layer , characterized in that the optical functional layer includes a cholesteric liquid crystal layer, the optical film is designed so that a color tone of transmitted light from a light source of white light through the optical film has a pale tone, a L* value representing luminance is within a range between 70 and 100 inclusive by quantifying the color tone of the transmitted light based on an L*a*b* color system according to CIE 1976, a C* value representing saturation and calculated by substituting an a* value and a b* value representing chromaticity for formula below is within a range between 1 and 35 inclusive by quantifying the color tone of the transmitted light based on the L*a*b* color system according to CIE 1976: C ∗ = a ∗ 2 + b ∗ 2 1 / 2 and the white light is standard light C standardized by CIE.
A method for controlling the electric power supply of a hot water supply system comprising at least one water tank (11; 12; 13), each water tank comprising an electric heating unit (18.1; 18.2 18.3) for heating water, a first time slot and a second time slot being predefined, the heating unit being active during the first time slot, the method comprising the following steps: - receiving a command for cutting the electric power supply of the system including a cutting time; - conditionally cutting the electric power supply of the heating unit as a function of a temporal position of the cutting time relative to the first and second time slots, wherein if the cutting time belongs to the first time slot, the electric power supply of the heating unit (18.1; 18.2; 18.3) of the water tank (11; 12; 13) is cut, and wherein the system further comprises means for drawing cold water at the inlet of the system, the second time slot being divided into first and second parts, wherein a restart threshold is predetermined, wherein the heating unit (18.1; 18.2; 18.3) of the tank (11; 12; 13) is active if, at the end of the first part of the second time slot, a volume drawn by the system is larger than said restart threshold, characterised in that the predetermined restart threshold has an initial value, and in that the method further comprises, during the second time slot following the first time slot comprising the cutting time, setting the restart threshold at a value lower than the initial value. - receiving a command for cutting the electric power supply of the system including a cutting time; - conditionally cutting the electric power supply of the heating unit as a function of a temporal position of the cutting time relative to the first and second time slots, wherein if the cutting time belongs to the first time slot, the electric power supply of the heating unit (18.1; 18.2; 18.3) of the water tank (11; 12; 13) is cut, and wherein the system further comprises means for drawing cold water at the inlet of the system, the second time slot being divided into first and second parts, wherein a restart threshold is predetermined, wherein the heating unit (18.1; 18.2; 18.3) of the tank (11; 12; 13) is active if, at the end of the first part of the second time slot, a volume drawn by the system is larger than said restart threshold, characterised in that the predetermined restart threshold has an initial value, and in that the method further comprises, during the second time slot following the first time slot comprising the cutting time, setting the restart threshold at a value lower than the initial value.