mhurhangee/patent-ind-claim-en huggingface dataset:
An inhaler (700; 800; 900; 1100; 1200) and a data processing device which is external to the inhaler, wherein the inhaler comprises: a miniature pressure sensor (110; 210; 310; 410; 510), a sensor port (111; 211; 511) of said sensor being configured to be pneumatically coupled to a flow channel (120; 520) of the inhaler through which a user can inhale a medicament, wherein the miniature pressure sensor is a barometric microelectromechanical system pressure sensor; and wherein the data processing device comprises: a processor configured to: receive data from a sensing element of the sensor; characterised in that the processor is further configured to determine a tare reading based on the data received from the sensing element of the sensor; calibrate the data received from the sensing element subsequently using said tare reading; and based on said calibrated data, make a determination that inhalation and/or exhalation through said flow channel complies with one or more predetermined requirements for successful dosing of said medicament. a miniature pressure sensor (110; 210; 310; 410; 510), a sensor port (111; 211; 511) of said sensor being configured to be pneumatically coupled to a flow channel (120; 520) of the inhaler through which a user can inhale a medicament, wherein the miniature pressure sensor is a barometric microelectromechanical system pressure sensor; and wherein the data processing device comprises: a processor configured to: receive data from a sensing element of the sensor; characterised in that the processor is further configured to determine a tare reading based on the data received from the sensing element of the sensor; calibrate the data received from the sensing element subsequently using said tare reading; and based on said calibrated data, make a determination that inhalation and/or exhalation through said flow channel complies with one or more predetermined requirements for successful dosing of said medicament. receive data from a sensing element of the sensor; characterised in that the processor is further configured to determine a tare reading based on the data received from the sensing element of the sensor; calibrate the data received from the sensing element subsequently using said tare reading; and based on said calibrated data, make a determination that inhalation and/or exhalation through said flow channel complies with one or more predetermined requirements for successful dosing of said medicament.
Dosing system for a dosing material comprising a nozzle , with an outlet opening , in the region of which a closure element is movably arranged, which is moved during operation in an ejection direction (E) and/or a retraction direction (R), wherein the closure element is coupled to at least two piezoelectric actuators connected in opposite directions such that a first piezoelectric actuator , when it is expanded in operation, moves the closure element in the retraction direction (R), and a second piezoelectric actuator , when it is expanded in operation, moves the closure element in the ejection direction (E) to eject dosing material from the nozzle , characterized in that , during operation, the first piezoelectric actuator compensates the dimensional change of the second piezoelectric actuator with its dimensional change, and the second piezoelectric actuator compensates the dimensional change of the first piezoelectric actuator with its dimensional change.
A printing apparatus for printing by ejecting ink from an ejection head , the printing apparatus comprising: a print control unit configured to perform a printing operation by ejecting ink from the ejection head ; and a recovery control unit configured to perform a recovery operation to recover an ejection state in the ejection head before the printing operation is performed by the print control unit , characterized in that the printing apparatus comprises a setting unit configured to set a control mode among a plurality of control modes which include: (i) a first control mode where a first recovery operation is performed as the recovery operation and the printing operation is performed under a first printing condition; and (ii) a second control mode where a second recovery operation for recovery at a lower level compared to the first recovery operation is performed as the recovery operation or the recovery operation is not performed and the printing operation is performed under a second printing condition, wherein performing the printing operation under the second printing condition corresponds to setting a higher target temperature, at which the ejection head is maintained during the printing operation, compared to the first printing condition and/or setting a lower drive frequency of the ejection head compared to the first printing condition. a print control unit configured to perform a printing operation by ejecting ink from the ejection head ; and a recovery control unit configured to perform a recovery operation to recover an ejection state in the ejection head before the printing operation is performed by the print control unit , characterized in that the printing apparatus comprises a setting unit configured to set a control mode among a plurality of control modes which include: (i) a first control mode where a first recovery operation is performed as the recovery operation and the printing operation is performed under a first printing condition; and (ii) a second control mode where a second recovery operation for recovery at a lower level compared to the first recovery operation is performed as the recovery operation or the recovery operation is not performed and the printing operation is performed under a second printing condition, (i) a first control mode where a first recovery operation is performed as the recovery operation and the printing operation is performed under a first printing condition; and (ii) a second control mode where a second recovery operation for recovery at a lower level compared to the first recovery operation is performed as the recovery operation or the recovery operation is not performed and the printing operation is performed under a second printing condition, wherein performing the printing operation under the second printing condition corresponds to setting a higher target temperature, at which the ejection head is maintained during the printing operation, compared to the first printing condition and/or setting a lower drive frequency of the ejection head compared to the first printing condition.
A resin composition for sealing electrical electronic components, containing a crystalline polyester-based elastomer (A), a phenol-modified alkylbenzene resin (B1), and a polyolefin resin (C), and having a melt viscosity of 5 dPa·s or more and 3000 dPa·s or less when dried to a water content of 0.1% or less, heated to 220°C, subjected to a pressure of 1 MPa, and extruded through a die with a hole diameter of 1.0 mm and a thickness of 10 mm, wherein the crystalline polyester-based elastomer (A) is a polyester having a chemical structure formed by condensation polymerization of a polyvalent carboxylic acid compound and a polyhydric alcohol compound and having a glass transition temperature of 0 degrees C or lower and a melting temperature of 100 degrees C or higher, wherein the glass transition temperature and the melting point are determined by using a differential scanning calorimeter "DSC 220 model", manufactured by Seiko Electronics Industrial Co., Ltd., wherein measurement was carried out by putting 5 mg of a measurement specimen in an aluminum pan, sealing the specimen by pressing a lid, holding it once at 250°C for 5 minutes, quenching it with liquefied nitrogen, and thereafter carrying out heating from -150°C to 250°C at a rate of temperature rise of 20°C/min, and the inflection point in the obtained curve was defined as the glass transition temperature and the heat absorption peak was defined as the melting point. a crystalline polyester-based elastomer (A), a phenol-modified alkylbenzene resin (B1), and a polyolefin resin (C), and having a melt viscosity of 5 dPa·s or more and 3000 dPa·s or less when dried to a water content of 0.1% or less, heated to 220°C, subjected to a pressure of 1 MPa, and extruded through a die with a hole diameter of 1.0 mm and a thickness of 10 mm, wherein the crystalline polyester-based elastomer (A) is a polyester having a chemical structure formed by condensation polymerization of a polyvalent carboxylic acid compound and a polyhydric alcohol compound and having a glass transition temperature of 0 degrees C or lower and a melting temperature of 100 degrees C or higher, wherein the glass transition temperature and the melting point are determined by using a differential scanning calorimeter "DSC 220 model", manufactured by Seiko Electronics Industrial Co., Ltd., wherein measurement was carried out by putting 5 mg of a measurement specimen in an aluminum pan, sealing the specimen by pressing a lid, holding it once at 250°C for 5 minutes, quenching it with liquefied nitrogen, and thereafter carrying out heating from -150°C to 250°C at a rate of temperature rise of 20°C/min, and the inflection point in the obtained curve was defined as the glass transition temperature and the heat absorption peak was defined as the melting point.
A process instrument comprising: a wafer-style body for mounting between an upstream flanged pipe and a downstream flanged pipe , the body having a flow passage ; a transmitter connected to the process instrument body for measuring a parameter of a process fluid flowing through the flow passage ; characterised by a first end plate fixed to the body, the first endplate having a first set of cams for engaging a plurality of threaded fasteners extending between the upstream flanged pipe and the downstream flanged pipe ; and a second end plate fixed to the body, the second endplate having a second set of cams for engaging the plurality of threaded fasteners , wherein engagement of the first set of cams and the second set of cams with the plurality of threaded fasteners centers the flow passage with respect to the upstream flanged pipe and the downstream flanged pipe , wherein the transmitter is joined to the body by a repositionable neck, wherein the repositionable neck comprises a series of rotatable segments , the rotatable segments comprising male and female ends to facilitate leak-proof rotation. a wafer-style body for mounting between an upstream flanged pipe and a downstream flanged pipe , the body having a flow passage ; a transmitter connected to the process instrument body for measuring a parameter of a process fluid flowing through the flow passage ; characterised by a first end plate fixed to the body, the first endplate having a first set of cams for engaging a plurality of threaded fasteners extending between the upstream flanged pipe and the downstream flanged pipe ; and a second end plate fixed to the body, the second endplate having a second set of cams for engaging the plurality of threaded fasteners , wherein engagement of the first set of cams and the second set of cams with the plurality of threaded fasteners centers the flow passage with respect to the upstream flanged pipe and the downstream flanged pipe , wherein the transmitter is joined to the body by a repositionable neck, wherein the repositionable neck comprises a series of rotatable segments , the rotatable segments comprising male and female ends to facilitate leak-proof rotation.
Aeroplane tyre , comprising a tread having an axial width L, the tread comprising: - a middle part having an axial width L C at least equal to 50% and at most equal to 80% of the axial width L of the tread and composed of a middle rubber composition, - and two lateral parts positioned axially on either side of the middle part , each having an axial width (L S1 , L S2 ) at least equal to 10% and at most equal to 25% of the axial width L of the tread and each composed of a lateral rubber composition, characterized in that the middle rubber composition comprises at least 50 phr of a first middle part diene elastomer, at most 70 phr of a middle part reinforcing filler and a crosslinking system, which first middle part diene elastomer comprises ethylene units and diene units comprising a carbon-carbon double bond, which units are distributed randomly within the first diene elastomer, the ethylene units representing at least 50 mol% of all the monomer units of the first diene elastomer, and in that the lateral rubber composition of each lateral part comprises at least 50 phr of a first lateral part diene elastomer, a content of lateral part reinforcing filler greater than the content of middle part reinforcing filler, and a crosslinking system, which first lateral part diene elastomer comprises ethylene units and diene units comprising a carbon-carbon double bond, which units are distributed randomly within the first diene elastomer, the ethylene units representing at least 50 mol% of all the monomer units of the first diene elastomer. - a middle part having an axial width L C at least equal to 50% and at most equal to 80% of the axial width L of the tread and composed of a middle rubber composition, - and two lateral parts positioned axially on either side of the middle part , each having an axial width (L S1 , L S2 ) at least equal to 10% and at most equal to 25% of the axial width L of the tread and each composed of a lateral rubber composition,
A brake hub assembly couplable to the axle of a vehicle, the brake hub assembly comprising: a brake hub defining a central axis, the hub having a first set of lugs and a second set of lugs axially spaced from the first set of lugs ; a wheel flange plate to which a wheel is securable, the wheel flange plate being removeably coupled to the first set of lugs with a first set of fasteners ; and a brake disk removeably coupled to the second set of lugs with a second set of fasteners ; wherein each of the wheel flange plate and the brake disk is removable from the hub without removing the hub from the axle. a brake hub defining a central axis, the hub having a first set of lugs and a second set of lugs axially spaced from the first set of lugs ; a wheel flange plate to which a wheel is securable, the wheel flange plate being removeably coupled to the first set of lugs with a first set of fasteners ; and a brake disk removeably coupled to the second set of lugs with a second set of fasteners ; wherein each of the wheel flange plate and the brake disk is removable from the hub without removing the hub from the axle.
A chassis cooling device , comprising: a manifold (102-1 ... 102-N, 302-1 ... 302-N) within the chassis , the manifold (102-1 ... 102-N, 302-1 ... 302-N) configured to distribute a cooling resource among a cooling loop (104-1... 104-N) and a heat exchanger , the manifold (102-1 ... 102-N, 302-1 ... 302-N) comprising a cooling loop return portion (102-2) and a cooling loop supply portion (102-3); a first plurality of pumps (108-1, 108-2), coupled to the cooling loop return portion (102-2) of the manifold (102-1 ... 102-N, 302-1 ... 302-N), arranged in parallel in the chassis and configured to pump the cooling resource; and a second plurality of pumps (108-3, 108-N), coupled to the cooling loop supply portion (102-3) of the manifold (102-1 ... 102-N, 302-1 ... 302-N), arranged in parallel in the chassis and configured to pump the cooling resource, wherein the second plurality of pumps (108-3, 108-N) are arranged in series with the first plurality of pumps (108-1, 108-2), wherein each pump of the first plurality of pumps (108-1, 108-2) and the second plurality of pumps (108-3, 108-N) is individually mate-able and removable to the manifold (102-1 ... 102-N, 302-1 ... 302-N). a manifold (102-1 ... 102-N, 302-1 ... 302-N) within the chassis , the manifold (102-1 ... 102-N, 302-1 ... 302-N) configured to distribute a cooling resource among a cooling loop (104-1... 104-N) and a heat exchanger , the manifold (102-1 ... 102-N, 302-1 ... 302-N) comprising a cooling loop return portion (102-2) and a cooling loop supply portion (102-3); a first plurality of pumps (108-1, 108-2), coupled to the cooling loop return portion (102-2) of the manifold (102-1 ... 102-N, 302-1 ... 302-N), arranged in parallel in the chassis and configured to pump the cooling resource; and a second plurality of pumps (108-3, 108-N), coupled to the cooling loop supply portion (102-3) of the manifold (102-1 ... 102-N, 302-1 ... 302-N), arranged in parallel in the chassis and configured to pump the cooling resource, wherein the second plurality of pumps (108-3, 108-N) are arranged in series with the first plurality of pumps (108-1, 108-2), wherein each pump of the first plurality of pumps (108-1, 108-2) and the second plurality of pumps (108-3, 108-N) is individually mate-able and removable to the manifold (102-1 ... 102-N, 302-1 ... 302-N).
A method implemented on a computing device including a processor and a storage media, the method comprising: obtaining first image data of a subject related to a first scan of the subject, the first scan being of a first type of scan; reconstructing a first image of the subject based on the first image data; generating a dose plan of a second scan based on the first image, the second scan being of a second type of scan; and obtaining second image data of the subject related to the second scan of the subject, the second scan being performed according to the dose plan, characterised in that the generating a dose plan of a second scan based on the first image comprises: identifying at least one region of interest (ROI) in the first image; and determining the dose plan of the second scan based on the at least one ROI, the dose plan including a first dose corresponding to the ROI and a second dose corresponding to a region outside the ROI, and the first dose being higher than the second dose, the second image data corresponding to the ROI and the region outside the ROI. obtaining first image data of a subject related to a first scan of the subject, the first scan being of a first type of scan; reconstructing a first image of the subject based on the first image data; generating a dose plan of a second scan based on the first image, the second scan being of a second type of scan; and obtaining second image data of the subject related to the second scan of the subject, the second scan being performed according to the dose plan, characterised in that the generating a dose plan of a second scan based on the first image comprises: identifying at least one region of interest (ROI) in the first image; and determining the dose plan of the second scan based on the at least one ROI, the dose plan including a first dose corresponding to the ROI and a second dose corresponding to a region outside the ROI, and the first dose being higher than the second dose, the second image data corresponding to the ROI and the region outside the ROI. identifying at least one region of interest (ROI) in the first image; and determining the dose plan of the second scan based on the at least one ROI, the dose plan including a first dose corresponding to the ROI and a second dose corresponding to a region outside the ROI, and the first dose being higher than the second dose, the second image data corresponding to the ROI and the region outside the ROI.
Guanidine-based poly (amido-amine) polymer of formula (I): wherein n is an integer between 3 and 400; R 1 is H, C 1-6 alkyl, or taken together with the N atoms to which is bound and R 2 is a piperazinic ring; R 2 is C 2-6 alkylen, C 5-6 cycloalkylen, CH-COOH, CH-COOR, wherein R is C 1-4 alkyl, phenyl or benzyl; R 3 is -(CH 2 ) p -HN-C(NH 2 )=NH, wherein p is an integer 1 to 6; salts, hydrates or solvates thereof, for use as antiviral agents in the prevention and/or treatment of viral infections in a mammal. wherein n is an integer between 3 and 400; R 1 is H, C 1-6 alkyl, or taken together with the N atoms to which is bound and R 2 is a piperazinic ring; R 2 is C 2-6 alkylen, C 5-6 cycloalkylen, CH-COOH, CH-COOR, wherein R is C 1-4 alkyl, phenyl or benzyl; R 3 is -(CH 2 ) p -HN-C(NH 2 )=NH, wherein p is an integer 1 to 6; salts, hydrates or solvates thereof, for use as antiviral agents in the prevention and/or treatment of viral infections in a mammal.
A polylactic acid foam molding material made from three types of cross-linked polylactic acids (A), (B), and (C) each manufactured individually by cross-linking the polylactic acids each having differing structural proportions of D isomers and L isomers, with between 0.2 and 2.0 parts by weight of a cross-linking agent having epoxy groups or polyisocyanate groups, relative to a total of 100 parts by weight for the polylactic acids, wherein the structural proportions (D/L) for the D isomers and the L isomers in the polylactic acids (A), (B), and (C) are D A /L A = 5 to 20/95 to 80 (where D A + L A = 100) for the polylactic acid (A), D B /L B = (D A +3 to D A +10)/(L A -3 to L A -10) (where D B + L B = 100) for the polylactic acid (B), and D C /L C = (D B +3 to D B +10)/(L B -3 to L B -10) (where D C + L C = 100) for the polylactic acid (C), wherein no polylactic acid with a polystyrene-equivalent molecular weight of 2,000,000 or more, in a GPC measurement, is included, the weight proportions of the polylactic acids (A):(B):(C) are 25-50:25-50:25-50 (wherein (A) + (B) + (C) = 100), and wherein the MI value, measured in accordance with JIS K 7210 at 190°C and a load of 21.6 kg, is between 0.05 and 5.