mhurhangee/patent-ind-claim-en huggingface dataset:
A scroll compressor comprising: a main shaft rotated around an axis (R); a drive bush disposed in one end portion in an axial direction of the main shaft , and eccentrically rotated in accordance with rotation of the main shaft ; a pair of angular bearings arranged back-to-back, and respectively clearance-fitted to an outside of the drive bush ; a compression unit that has a fixed scroll and a movable scroll , and that has a boss portion which protrudes from an end plate of the movable scroll and in which the pair of angular bearings are interference-fitted to an inner peripheral surface of the boss portion ; and a preload application unit that is configured to apply a preload to the pair of angular bearings in a direction in which the pair of angular bearings moves close to each other, characterized in that the preload application unit has a preload metal fitting which is clearance-fitted to an inside of one of the pair of angular bearings and which has a first through-hole at a position overlapping the drive bush , and a preload bolt which is fitted into the first through-hole , and and in that a side wall of the drive bush has a protruding portion which supports the other of the pair of angular bearings . a main shaft rotated around an axis (R); a drive bush disposed in one end portion in an axial direction of the main shaft , and eccentrically rotated in accordance with rotation of the main shaft ; a pair of angular bearings arranged back-to-back, and respectively clearance-fitted to an outside of the drive bush ; a compression unit that has a fixed scroll and a movable scroll , and that has a boss portion which protrudes from an end plate of the movable scroll and in which the pair of angular bearings are interference-fitted to an inner peripheral surface of the boss portion ; and a preload application unit that is configured to apply a preload to the pair of angular bearings in a direction in which the pair of angular bearings moves close to each other, characterized in that the preload application unit has a preload metal fitting which is clearance-fitted to an inside of one of the pair of angular bearings and which has a first through-hole at a position overlapping the drive bush , and a preload bolt which is fitted into the first through-hole , and and in that a side wall of the drive bush has a protruding portion which supports the other of the pair of angular bearings .
An aerosol-generating system comprising: a liquid storage portion comprising a housing holding a liquid aerosol-forming substrate and a capillary medium , the housing having an opening; a fluid permeable heater assembly comprising an arrangement of electrically conductive filaments arranged to define an air impingement surface, wherein the fluid permeable heater assembly extends across the opening of the housing, and wherein the filament arrangement defines a filament opening allowing airflow to pass through; wherein the capillary medium is provided in contact with the heater assembly; wherein the liquid aerosol-forming substrate is drawn via the capillary medium to the electrically conductive filament arrangement ; and wherein the capillary medium comprises a capillary medium opening extending the filament opening through the capillary medium , and wherein the aerosolgenerating system comprises a main housing and an air inlet provided in a sidewall of the main housing, such that ambient air is drawn towards the heating element from the air inlet at an angle of up to 90° with respect to an air duct defined by the capillary medium opening . a liquid storage portion comprising a housing holding a liquid aerosol-forming substrate and a capillary medium , the housing having an opening; a fluid permeable heater assembly comprising an arrangement of electrically conductive filaments arranged to define an air impingement surface, wherein the fluid permeable heater assembly extends across the opening of the housing, and wherein the filament arrangement defines a filament opening allowing airflow to pass through; wherein the capillary medium is provided in contact with the heater assembly; wherein the liquid aerosol-forming substrate is drawn via the capillary medium to the electrically conductive filament arrangement ; and wherein the capillary medium comprises a capillary medium opening extending the filament opening through the capillary medium , and wherein the aerosolgenerating system comprises a main housing and an air inlet provided in a sidewall of the main housing, such that ambient air is drawn towards the heating element from the air inlet at an angle of up to 90° with respect to an air duct defined by the capillary medium opening .
Thermal break on edge (R) for an insulating floor with beams forming webs (T, T') filled by insulating bay cases , which thermal break comprises at least one insulating material, and is contained within an upper face and a lower face , two opposing longitudinal faces (14; 14a, 14b) and two opposing end faces (13; 13a, 13b) arranged between the said longitudinal faces (14; 14a, 14b), the said lower face being at least contained within a horizontal plane and comprising at least one inclined face with respect to the said horizontal plane arranged to rest on an inclined longitudinal wing of an insulating bay case and interlocking means arranged to mechanically link the said thermal break to said insulating bay case provided with complementary interlocking means , characterized in that the said interlocking means comprise at least one transverse rib disposed in a transverse direction with respect to the longitudinal direction of the said thermal break , and in that the said at least one inclined face is provided on at least one breakable part (16; 16a, 16b) formed in the thickness of said thermal break between said upper face and the horizontal plane delimiting said lower face , said at least one breakable part (16; 16a, 16b) having a length and width less than the length and width of said thermal break, being arranged at any point in the length of said thermal break, outside said at least one transverse rib , and allowing the profile of the lower face of said thermal break to be modified by detaching the switch, especially on a site, from the said at least one breakable part.
A foldable display device (102, 103, 104, 105, 106, or 107), characterized by comprising: a foldable display panel comprising a flexible substrate ; and a foldable cover adhered to the foldable display panel , the foldable cover comprising: an inner substrate ; an outer substrate ; and a first adhesive disposed between the inner substrate and the outer substrate , wherein the first adhesive has a thickness (T2) in a range from 1 micrometer to 40 micrometers, and a ratio of the sum of the thickness (T2) of the first adhesive and a thickness (T1) of the inner substrate to a thickness (T5) of the foldable cover is greater than or equal to 0.5 and less than 1, wherein a ratio of the thickness (T5) of the foldable cover to a thickness (T6) of the flexible substrate is greater than or equal to 0.8 and less than or equal to 1.2. a foldable display panel comprising a flexible substrate ; and a foldable cover adhered to the foldable display panel , the foldable cover comprising: an inner substrate ; an outer substrate ; and a first adhesive disposed between the inner substrate and the outer substrate , an inner substrate ; an outer substrate ; and a first adhesive disposed between the inner substrate and the outer substrate , wherein the first adhesive has a thickness (T2) in a range from 1 micrometer to 40 micrometers, and a ratio of the sum of the thickness (T2) of the first adhesive and a thickness (T1) of the inner substrate to a thickness (T5) of the foldable cover is greater than or equal to 0.5 and less than 1, wherein a ratio of the thickness (T5) of the foldable cover to a thickness (T6) of the flexible substrate is greater than or equal to 0.8 and less than or equal to 1.2.
An adaptable wing having a variable geometry for influencing aerodynamic performance, the wing comprising a jointed leading edge having a main pivot , and a wrist joint , with a wing arm therebetween, and a distal wing hand depending from the wrist joint ; the wing being reciprocally actuable, via the main pivot and wrist joint , between a first state having an extended wing planform and a second state having a tucked wing planform ; the wing arm and wing hand comprise engagement members ; the engagement members comprise upper and lower foraminated lugs having the same size and separation; the upper and lower lugs are adapted to receive complementary formations of respective feather ribs using upper and lower spigots ; the wing arm and the wing hand having depending therefrom the feather ribs pivotally coupled thereto; characterised in that each feather rib comprises a cephalically disposed open end , bearing the spigots that transition, via upper and lower cambered sections , to a caudally disposed pointed section wherein the upper and lower cambered sections are separated by a supporting strut , and the upper and lower cambered sections are arranged to receive respective feathers.
A process for recovering acrylic acid, which comprises the steps of a) division of a mother acid stream which has been heated to a temperature of from 50°C to 100°C from a crystallization apparatus into a first mother acid substream and a second mother acid substream in the direction of an absorption column and in the direction of a dissociation column , b) feeding-in of the first heated mother acid substream as runback to the uppermost tray of the dissociation column , while the second mother acid substream is fed via a line to the condensation column , c) feeding-in of at least one stripping gas stream below the lowermost tray of the dissociation column , d) feeding-in of a secondary component stream comprising oligomeric acrylic acid from the condensation column to a middle tray of the dissociation column , e) dissociation of at least part of the oligomeric acrylic acid from the secondary component stream in the dissociation column to give monomeric acrylic acid, f) removal of the secondary components comprised in the secondary component stream by countercurrent rectification in the superposed dissociation column , g) discharge of the monomeric acrylic acid without condensation as gas mixture with the introduced circulating stripping gas stream at the top of the dissociation column and h) feeding-in of the gas mixture below the lowermost tray of the condensation column . a) division of a mother acid stream which has been heated to a temperature of from 50°C to 100°C from a crystallization apparatus into a first mother acid substream and a second mother acid substream in the direction of an absorption column and in the direction of a dissociation column , b) feeding-in of the first heated mother acid substream as runback to the uppermost tray of the dissociation column , while the second mother acid substream is fed via a line to the condensation column , c) feeding-in of at least one stripping gas stream below the lowermost tray of the dissociation column , d) feeding-in of a secondary component stream comprising oligomeric acrylic acid from the condensation column to a middle tray of the dissociation column , e) dissociation of at least part of the oligomeric acrylic acid from the secondary component stream in the dissociation column to give monomeric acrylic acid, f) removal of the secondary components comprised in the secondary component stream by countercurrent rectification in the superposed dissociation column , g) discharge of the monomeric acrylic acid without condensation as gas mixture with the introduced circulating stripping gas stream at the top of the dissociation column and h) feeding-in of the gas mixture below the lowermost tray of the condensation column .
A temperature sensor comprising a patch laminate, said patch laminate comprising an adhesive patch layer , said adhesive patch layer containing a patch medical component, a solar cell layer laminated on the adhesive patch layer , and a thermochromic resin layer covering the solar cell and having a light transmittance changeable according to a temperature change, the temperature sensor comprising further a transmitter electrically connected to the solar cell layer and configured to detect an electromotive force generated in the solar cell layer wherein the light transmittance of the thermochromic resin layer at a color changing temperature (T) or more is a light transmittance such that the solar cell layer receives the light via the thermochromic resin to thereby generate an electromotive force. a patch laminate, said patch laminate comprising an adhesive patch layer , said adhesive patch layer containing a patch medical component, a solar cell layer laminated on the adhesive patch layer , and a thermochromic resin layer covering the solar cell and having a light transmittance changeable according to a temperature change, the temperature sensor comprising further a transmitter electrically connected to the solar cell layer and configured to detect an electromotive force generated in the solar cell layer wherein the light transmittance of the thermochromic resin layer at a color changing temperature (T) or more is a light transmittance such that the solar cell layer receives the light via the thermochromic resin to thereby generate an electromotive force.
A flexible display device comprising: a display unit comprising a display area (DA) capable of displaying an image; and a thin film encapsulating layer encapsulating the display unit and comprising a first inorganic encapsulating film , an organic encapsulating film on the first inorganic encapsulating film , and a second inorganic encapsulating film on the organic encapsulating film , wherein the organic encapsulating film comprises at least one first organic region and at least one second organic region , the at least one first organic region and the at least one second organic region extend both along a first direction (X), the at least one first organic region and the at least one second organic region are aligned with each other, wherein the at least one first organic region has a first Young's modulus and the at least one second organic region has a second Young's modulus, wherein the first Young's modulus is different from the second Young's modulus, and wherein the areas of the first inorganic encapsulating film and the second inorganic encapsulating film are larger than the area of the organic encapsulating film , such that the entire organic encapsulating film is covered by the first inorganic encapsulating film and the second inorganic encapsulating film , wherein the first Young's modulus is smaller than the second Young's modulus, and wherein the flexible display device comprises at least one folding region (F) and the at least one folding region (F) extends along the first direction (X), and the at least one first organic region overlaps the at least one folding region (F). a display unit comprising a display area (DA) capable of displaying an image; and a thin film encapsulating layer encapsulating the display unit and comprising a first inorganic encapsulating film , an organic encapsulating film on the first inorganic encapsulating film , and a second inorganic encapsulating film on the organic encapsulating film , wherein the organic encapsulating film comprises at least one first organic region and at least one second organic region , the at least one first organic region and the at least one second organic region extend both along a first direction (X), the at least one first organic region and the at least one second organic region are aligned with each other, wherein the at least one first organic region has a first Young's modulus and the at least one second organic region has a second Young's modulus, wherein the first Young's modulus is different from the second Young's modulus, and wherein the areas of the first inorganic encapsulating film and the second inorganic encapsulating film are larger than the area of the organic encapsulating film , such that the entire organic encapsulating film is covered by the first inorganic encapsulating film and the second inorganic encapsulating film , wherein the first Young's modulus is smaller than the second Young's modulus, and wherein the flexible display device comprises at least one folding region (F) and the at least one folding region (F) extends along the first direction (X), and the at least one first organic region overlaps the at least one folding region (F).
Recombinant ADAMTS13 or a mutant thereof for use in treating and/or protecting from hepatic ischemia-reperfusion injury caused by ischemia-reperfusion comprising warm ischemia, wherein (i) said mutant has an enzymatic activity to cleave Von Willebrand factor (vWF), wherein the amino acids essential for the enzymatic activity of ADAMTS13 are not mutated; (ii) said mutant comprises the minimum unit necessary for exerting the ADAMTS13 activity, wherein said unit comprises the metalloprotease domain and the spacer domain of ADAMTS13; and/or (iii) said mutant is the ADAMTS13W688X protein which is ADAMTS13 lacking the C-terminal portion, wherein said C-terminal portion ranges from the amino acid at position 689 to the amino acid at position 1427. (i) said mutant has an enzymatic activity to cleave Von Willebrand factor (vWF), wherein the amino acids essential for the enzymatic activity of ADAMTS13 are not mutated; (ii) said mutant comprises the minimum unit necessary for exerting the ADAMTS13 activity, wherein said unit comprises the metalloprotease domain and the spacer domain of ADAMTS13; and/or (iii) said mutant is the ADAMTS13W688X protein which is ADAMTS13 lacking the C-terminal portion, wherein said C-terminal portion ranges from the amino acid at position 689 to the amino acid at position 1427.
A push button lock mechanism that is both directly mechanically operable and is remotely and electrically operable, the push button lock comprising: a lock cylinder that is rotatable when a key is located therein; an actuator that is connected to the lock cylinder to be rotated thereby and that is biased towards an outwards position; a locking gear formed to be rotated by the actuator between a first position in which the actuator is prevented from passing therethrough and a second position in which the actuator can pass therethrough from the outwards position to an inwards position; and a push button for linearly moving the actuator through the locking gear from the outwards position to the inwards position; wherein, the push button lock further comprises a remotely electrically operable motor that acts to rotate the locking gear between the first position and the second position when operated; wherein the locking gear has a toothed outer surface to allow rotation by the motor and the locking gear is in permanent geared connection with the motor via an idler gear . a lock cylinder that is rotatable when a key is located therein; an actuator that is connected to the lock cylinder to be rotated thereby and that is biased towards an outwards position; a locking gear formed to be rotated by the actuator between a first position in which the actuator is prevented from passing therethrough and a second position in which the actuator can pass therethrough from the outwards position to an inwards position; and a push button for linearly moving the actuator through the locking gear from the outwards position to the inwards position; wherein, the push button lock further comprises a remotely electrically operable motor that acts to rotate the locking gear between the first position and the second position when operated; wherein the locking gear has a toothed outer surface to allow rotation by the motor and the locking gear is in permanent geared connection with the motor via an idler gear .
A battery assembly , comprising: at least one insulated element defining an installation space ; at least one battery detachably inserted into the installation space ; and a shell defining a receiving space for receiving the at least one insulated element and the at least one battery inserted into the insulated element , and the at least one battery being prevented from contacting with the shell by the at least one insulated element , wherein the shell further comprises at least one securing element configured for fixing the at least one insulated element on the shell ; characterized in that the at least one securing element is an adhesive article. at least one insulated element defining an installation space ; at least one battery detachably inserted into the installation space ; and a shell defining a receiving space for receiving the at least one insulated element and the at least one battery inserted into the insulated element , and the at least one battery being prevented from contacting with the shell by the at least one insulated element , wherein the shell further comprises at least one securing element configured for fixing the at least one insulated element on the shell ; characterized in that the at least one securing element is an adhesive article.
A method of purifying one or more cannabinoids from a plant material, the method consisting essentially of the following steps: a) incubating the plant material with a non-polar solvent selected from the group consisting of petroleum ether (40-60°C), pentane and hexane to form a first solvent mixture which extracts the one or more cannabinoids from a plant material; b) reducing the volume of the first solvent mixture to about 50% or less of the original volume of the first solvent mixture in step (a) thereby concentrating the one or more cannabinoids; c) incubating the reduced first solvent mixture at a temperature range of between about - 70°C to about 40°C to crystalize the one or more cannabinoids; d) incubating the one or more crystalized cannabinoids with the non-polar solvent, wherein the non-polar solvent is the same non-polar solvent as in step (a) to form a second solvent mixture, thereby dissolving at least 50% of the one or more crystalized cannabinoids; and e) incubating the second solvent mixture at a temperature range of between about -70°C to about 40°C to crystalize the one or more cannabinoids, thereby resulting in the purification of one or more cannabinoids. a) incubating the plant material with a non-polar solvent selected from the group consisting of petroleum ether (40-60°C), pentane and hexane to form a first solvent mixture which extracts the one or more cannabinoids from a plant material; b) reducing the volume of the first solvent mixture to about 50% or less of the original volume of the first solvent mixture in step (a) thereby concentrating the one or more cannabinoids; c) incubating the reduced first solvent mixture at a temperature range of between about - 70°C to about 40°C to crystalize the one or more cannabinoids; d) incubating the one or more crystalized cannabinoids with the non-polar solvent, wherein the non-polar solvent is the same non-polar solvent as in step (a) to form a second solvent mixture, thereby dissolving at least 50% of the one or more crystalized cannabinoids; and e) incubating the second solvent mixture at a temperature range of between about -70°C to about 40°C to crystalize the one or more cannabinoids, thereby resulting in the purification of one or more cannabinoids.