mhurhangee/patent-ind-claim-en huggingface dataset:
A device for administering a surgical sealant comprising at least two components wherein a first component comprises fibrinogen and a second component comprises thrombin, wherein the device comprises: - a concentric lumen arrangement including (i) an inner cannula having a lumen with an inlet opening at a first end and a tip with an outlet opening at a second end opposite its first end, and (ii) an outer sheath having opposite first and second ends facing the respective first and second ends of the inner cannula, and surrounding the inner cannula along an axial length between the first and second ends of the inner cannula, - wherein the outer sheath at its second end is sealingly and fixedly connected to the inner cannula and defines an outer lumen around the inner cannula, - wherein the second end of the outer sheath is truncated and spaced apart from the tip end of the inner cannula , and - wherein the inner cannula is provided with one hole located 3 mm to 50 mm from the tip of the inner cannula for providing fluid communication between the outer lumen around the inner cannula and the lumen of the inner cannula - wherein the device is configured such that the first and second component flow separately through the inner and outer lumen and are mixed in the inner cannula prior to being administered. - a concentric lumen arrangement including (i) an inner cannula having a lumen with an inlet opening at a first end and a tip with an outlet opening at a second end opposite its first end, and (ii) an outer sheath having opposite first and second ends facing the respective first and second ends of the inner cannula, and surrounding the inner cannula along an axial length between the first and second ends of the inner cannula, - wherein the outer sheath at its second end is sealingly and fixedly connected to the inner cannula and defines an outer lumen around the inner cannula, - wherein the second end of the outer sheath is truncated and spaced apart from the tip end of the inner cannula , and - wherein the inner cannula is provided with one hole located 3 mm to 50 mm from the tip of the inner cannula for providing fluid communication between the outer lumen around the inner cannula and the lumen of the inner cannula - wherein the device is configured such that the first and second component flow separately through the inner and outer lumen and are mixed in the inner cannula prior to being administered.
CPAP apparatus comprising an electric motor , an impeller rotated by the motor, a patient interface , an air delivery conduit for delivering air from the impeller to the patient interface, and a microcontroller , wherein the microcontroller is configured to perform a method of determining an expiratory pause fraction F exp,p,LPF , of a breath, wherein the method of determining an expiratory pause fraction F exp,p,LPF of a breath comprises the following steps: continuously calculating a flow signal indicative of a respiratory flow of air to a patient; and characterized in that the method further comprises the steps of: calculating an expiratory pause fuzzy logical quantity as a fuzzy AND of a fuzzy logical quantity "small flow" and T exp > 0.2 sec, wherein a membership function for the fuzzy logical quantity "small flow" is 0 for absolute values of respiratory flow greater than a first value and 1 for absolute values of respiratory flow less than a second value, the second value being smaller than the first value, wherein the membership function is linearly interpolated between 0 and 1 for values between the first and second values; and calculating the expiratory pause fraction F exp,p,LPF as the low pass filtered value of said expiratory pause fuzzy logical quantity by using a low pass filter, wherein the low pass filter is updated only during expiration. continuously calculating a flow signal indicative of a respiratory flow of air to a patient; and characterized in that the method further comprises the steps of: calculating an expiratory pause fuzzy logical quantity as a fuzzy AND of a fuzzy logical quantity "small flow" and T exp > 0.2 sec, wherein a membership function for the fuzzy logical quantity "small flow" is 0 for absolute values of respiratory flow greater than a first value and 1 for absolute values of respiratory flow less than a second value, the second value being smaller than the first value, wherein the membership function is linearly interpolated between 0 and 1 for values between the first and second values; and calculating the expiratory pause fraction F exp,p,LPF as the low pass filtered value of said expiratory pause fuzzy logical quantity by using a low pass filter, wherein the low pass filter is updated only during expiration. calculating an expiratory pause fuzzy logical quantity as a fuzzy AND of a fuzzy logical quantity "small flow" and T exp > 0.2 sec, wherein a membership function for the fuzzy logical quantity "small flow" is 0 for absolute values of respiratory flow greater than a first value and 1 for absolute values of respiratory flow less than a second value, the second value being smaller than the first value, wherein the membership function is linearly interpolated between 0 and 1 for values between the first and second values; and calculating the expiratory pause fraction F exp,p,LPF as the low pass filtered value of said expiratory pause fuzzy logical quantity by using a low pass filter, wherein the low pass filter is updated only during expiration.
A garment comprising one or plural fans for taking external air into a space between the garment and the body, characterized in that a fabric of the garment has a basis weight of 250 g/m 2 or less, and a contact cold/warm sensation value Q-max of 0.30 W/cm 2 or larger, wherein the contact cold/warm sensation value Q-max is measured by a method in which a measurement fabric and apparatus are left to stand for at least 12 hours in a room adjusted to have a temperature of 20°C and a relative humidity of 60%, a temperature of a T-BOX used for measuring a heat transfer amount in contact with the measurement fabric is adjusted to be 10°C higher than room temperature by setting a heat-storing hot plate BT at 30°C while a hot plate G-BT guarding a periphery of the hot plate BT for heating the hot plate BT is set at 20.3°C, and these hot plates are stabilized, and the measurement fabric is placed with its back side (skin side when worn) facing up, and the T-BOX is quickly placed on the measurement fabric to measure the Q-max; and wherein the fabric of the garment has an air permeability of 10 cc/cm 2 /sec or higher, wherein the air permeability is measured in accordance with JIS L1096 8.26.1 Air Permeability - Method A (Frazier method). characterized in that a fabric of the garment has a basis weight of 250 g/m 2 or less, and a contact cold/warm sensation value Q-max of 0.30 W/cm 2 or larger, wherein the contact cold/warm sensation value Q-max is measured by a method in which a measurement fabric and apparatus are left to stand for at least 12 hours in a room adjusted to have a temperature of 20°C and a relative humidity of 60%, a temperature of a T-BOX used for measuring a heat transfer amount in contact with the measurement fabric is adjusted to be 10°C higher than room temperature by setting a heat-storing hot plate BT at 30°C while a hot plate G-BT guarding a periphery of the hot plate BT for heating the hot plate BT is set at 20.3°C, and these hot plates are stabilized, and the measurement fabric is placed with its back side (skin side when worn) facing up, and the T-BOX is quickly placed on the measurement fabric to measure the Q-max; and wherein the fabric of the garment has an air permeability of 10 cc/cm 2 /sec or higher, wherein the air permeability is measured in accordance with JIS L1096 8.26.1 Air Permeability - Method A (Frazier method).
A method of testing an executable software application, the method comprising: extracting, by a processor, program code files from the executable application file (APF); converting, by the processor, the program code files into program text files (CF); for each program text file of the software application, computing at least one metric of syntactical metrics or program complexity metrics (QT1-QTn); computing, by the processor, a respective score (FMT) for each program text file based on the computed metrics; generating and providing, by the processor, a list of program text files, each program text file in the list being associated with its computed score; providing, by the processor, the list of program text files, the list of program text files being provided to identify program text files that are insufficiently obfuscated. extracting, by a processor, program code files from the executable application file (APF); converting, by the processor, the program code files into program text files (CF); for each program text file of the software application, computing at least one metric of syntactical metrics or program complexity metrics (QT1-QTn); computing, by the processor, a respective score (FMT) for each program text file based on the computed metrics; generating and providing, by the processor, a list of program text files, each program text file in the list being associated with its computed score; providing, by the processor, the list of program text files, the list of program text files being provided to identify program text files that are insufficiently obfuscated.
A variable flow resistance system for use with a subterranean well, the system comprising: at least first and second flow paths , whereby a resistance to a flow of a fluid composition through the system changes in response to a change in a proportion of the fluid composition which flows through the first and second flows paths ; characterised in that the system further comprises at least one airfoil which rotates about a pivot connection and changes a deflection of the flow of the fluid composition relative to the first and second flow paths in response to a change in a ratio of desired to undesired fluid in the fluid composition . at least first and second flow paths , whereby a resistance to a flow of a fluid composition through the system changes in response to a change in a proportion of the fluid composition which flows through the first and second flows paths ; characterised in that the system further comprises at least one airfoil which rotates about a pivot connection and changes a deflection of the flow of the fluid composition relative to the first and second flow paths in response to a change in a ratio of desired to undesired fluid in the fluid composition .
A hard coat laminated film sequentially comprising, from a surface layer side, a first hard coat, a second hard coat, and a resin film layer, wherein the first hard coat is formed of a coating material containing no inorganic particles, the second hard coat is formed of a coating material containing inorganic particles, the resin film comprises (α) at least one layer of an acrylic resin comprising 50 to 95% by mole of a structural unit derived from methyl methacrylate and 50 to 5% by mole of a structural unit derived from vinyl cyclohexane relative to 100% by mole of the total amount of structural units derived from a polymerizable monomer, and the following (i) to (iii) are satisfied: (i) a total light transmittance, measured as described in the description, of 85% or more; (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more; and (iii) a yellowness index, measured as described in the description, of 3 or less. the first hard coat is formed of a coating material containing no inorganic particles, the second hard coat is formed of a coating material containing inorganic particles, the resin film comprises (α) at least one layer of an acrylic resin comprising 50 to 95% by mole of a structural unit derived from methyl methacrylate and 50 to 5% by mole of a structural unit derived from vinyl cyclohexane relative to 100% by mole of the total amount of structural units derived from a polymerizable monomer, and the following (i) to (iii) are satisfied: (i) a total light transmittance, measured as described in the description, of 85% or more; (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more; and (iii) a yellowness index, measured as described in the description, of 3 or less. (i) a total light transmittance, measured as described in the description, of 85% or more; (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more; and (iii) a yellowness index, measured as described in the description, of 3 or less.
Process for the production of metal-ceramic substrates, characterized by the following process steps: a. providing an unstructured metal-ceramic substrate having metal coatings on both sides of the ceramic substrate, and having a first individualized encoding on the ceramic substrate; b. structuring the double-sided metal coating of the metal-ceramic substrate; c. providing the metal-ceramic substrate with a second individualized coding on one of the metal coatings or on both metal coatings of the metal-ceramic substrate. a. providing an unstructured metal-ceramic substrate having metal coatings on both sides of the ceramic substrate, and having a first individualized encoding on the ceramic substrate; b. structuring the double-sided metal coating of the metal-ceramic substrate; c. providing the metal-ceramic substrate with a second individualized coding on one of the metal coatings or on both metal coatings of the metal-ceramic substrate.
A multi-component plastic body (1; 7; 9; 12; 15; 16) - having at least one silicone component (2; 14), - having at least one further polymer component (3; 10; 13) made of a further nonpolar polymer, wherein the further polymer component (3; 10; 13) has at least one thermoplastic elastomer, - having a bonding agent between the silicone component (2; 14) and the further polymer component (3; 10; 13), - wherein the bonding agent has bonding bodies , which mechanically bond the two components (2, 3; 2, 10; 13, 14), - wherein the multi-component plastic body (1; 7; 9; 12; 15) is designed as a multi-layered tube, wherein the silicone component (2; 14) forms a silicone tube layer, and the polymer component (3; 10; 13) forms a polymer tube layer, characterized in that - the further polymer component (3; 10; 13) includes at least one of the following polymers: -- polypropylene, -- polyethylene. - having at least one silicone component (2; 14), - having at least one further polymer component (3; 10; 13) made of a further nonpolar polymer, wherein the further polymer component (3; 10; 13) has at least one thermoplastic elastomer, - having a bonding agent between the silicone component (2; 14) and the further polymer component (3; 10; 13), - wherein the bonding agent has bonding bodies , which mechanically bond the two components (2, 3; 2, 10; 13, 14), - wherein the multi-component plastic body (1; 7; 9; 12; 15) is designed as a multi-layered tube, wherein the silicone component (2; 14) forms a silicone tube layer, and the polymer component (3; 10; 13) forms a polymer tube layer, characterized in that - the further polymer component (3; 10; 13) includes at least one of the following polymers: -- polypropylene, -- polyethylene. -- polypropylene, -- polyethylene.
A pharmaceutical composition comprising a poorly-soluble drug, and polyvinyl alcohol having a saponification degree of 63 mol% or more and 67 mol% or less, wherein the poorly-soluble drug has a solubility of 10 μg/mL or less in water.
A fraud prevention apparatus for a coin payout apparatus , comprising: a coin sensor comprising an electrical oscillator for detecting coins in a coin outlet path; and at least one controller configured to cause an expected change in an oscillating frequency of the sensor and to verify whether the oscillating frequency has changed as expected; wherein, if the at least one controller fails to verify that the oscillating frequency of the sensor has changed as expected, the at least one controller is configured to cause an alarm signal to be generated to cause the coin payout apparatus to shut down payout operations. a coin sensor comprising an electrical oscillator for detecting coins in a coin outlet path; and at least one controller configured to cause an expected change in an oscillating frequency of the sensor and to verify whether the oscillating frequency has changed as expected; wherein, if the at least one controller fails to verify that the oscillating frequency of the sensor has changed as expected, the at least one controller is configured to cause an alarm signal to be generated to cause the coin payout apparatus to shut down payout operations.
A sensor , comprising: an airfoil body defining a sensor axis and having a leading edge , a trailing edge , and an ice accretion feature ; a heater element extending axially through the airfoil body between the leading edge and the trailing edge of the airfoil body; a tip surface extending from the ice accretion feature to the trailing edge of the airfoil body ; a tip surface aperture extending through the tip surface ; and a temperature probe extending axially through the airfoil body between the heater element and the trailing edge of the airfoil body, wherein the airfoil body defines a temperature sense chamber that is located chordwise between the trailing edge of the airfoil body and the heater element , wherein the temperature prove extends at least partially through the temperature sense chamber, wherein the temperature sense chamber is in fluid communication with the external environment through the tip surface aperture, and wherein the heater element is axially overlapped by the ice accretion feature to accrete ice chordwise forward of a tip surface aperture ; wherein the ice accretion feature includes a fin body extending from the leading edge to an ice accretion feature terminus that is located chordwise between the heater element and the temperature probe; or the airfoil body has a spherical body extending from the leading edge to an ice accretion feature terminus that is located chordwise between the heater element and the temperature probe. an airfoil body defining a sensor axis and having a leading edge , a trailing edge , and an ice accretion feature ; a heater element extending axially through the airfoil body between the leading edge and the trailing edge of the airfoil body; a tip surface extending from the ice accretion feature to the trailing edge of the airfoil body ; a tip surface aperture extending through the tip surface ; and a temperature probe extending axially through the airfoil body between the heater element and the trailing edge of the airfoil body, wherein the airfoil body defines a temperature sense chamber that is located chordwise between the trailing edge of the airfoil body and the heater element , wherein the temperature prove extends at least partially through the temperature sense chamber, wherein the temperature sense chamber is in fluid communication with the external environment through the tip surface aperture, and wherein the heater element is axially overlapped by the ice accretion feature to accrete ice chordwise forward of a tip surface aperture ; wherein the ice accretion feature includes a fin body extending from the leading edge to an ice accretion feature terminus that is located chordwise between the heater element and the temperature probe; or the airfoil body has a spherical body extending from the leading edge to an ice accretion feature terminus that is located chordwise between the heater element and the temperature probe.
A semiconductor device comprising: - a wiring board having a surface; - a semiconductor element arranged on the surface of the wiring board ; - an insulating layer located on the surface of the wiring board and arranged to enclose the semiconductor element ; and - a continuous conductor layer covering the outer surface of the insulating layer and connected to the wiring board , - the outer surface of the insulating layer including an upper surface located over the semiconductor element , and a side surface connecting the upper surface and the wiring board , - the side surface of the outer surface of the insulating layer including a reverse tapered portion where the width of the insulating layer increases with increasing distance from the wiring board , characterised by - the continuous conductor layer being in contact with the surface of the reverse tapered portion . - a wiring board having a surface; - a semiconductor element arranged on the surface of the wiring board ; - an insulating layer located on the surface of the wiring board and arranged to enclose the semiconductor element ; and - a continuous conductor layer covering the outer surface of the insulating layer and connected to the wiring board , - the outer surface of the insulating layer including an upper surface located over the semiconductor element , and a side surface connecting the upper surface and the wiring board , - the side surface of the outer surface of the insulating layer including a reverse tapered portion where the width of the insulating layer increases with increasing distance from the wiring board , characterised by - the continuous conductor layer being in contact with the surface of the reverse tapered portion .
A multifunctional energy storage (MES) composite comprising (a) an electrode stack for energy storage comprising a plurality of electrode layers, (b) two stiff structural facesheets sandwiching the electrode stack, (c) an array of a plurality of perforations through all electrode layers of the electrode stack, (d) a plurality of reinforcements, wherein the reinforcements are bonded to the structural facesheets by an intermediate adhesive layer by fusing the same material or by chemical bonding, wherein: (bi) the stiff structural facesheets have a thickness of up to 20 mm and have one or more lateral dimensions from 1 cm to 20 m, (ci) the diameters or lateral dimensions of the perforations are up to 5 cm and each perforation has a lateral dimension identical, or substantially identical, to the lateral dimensions of the reinforcements, (cii) the perforations are distributed in a pre-designed pattern which can be a regular pattern, a staggered pattern or other perforation patterns, the distance between each perforation being from 10 mm to 20 times the diameters or lateral dimensions of the perforations, and (di) the reinforcements are through-thickness reinforcements, extending through the perforations in the electrode stack, and mechanically linking the two stiff structural facesheets together, the through-thickness reinforcements being formed of polymers, copolymers or fiber reinforced polymers, and the reinforcements can each have a diameter of from 0.5 mm to 20mm. (bi) the stiff structural facesheets have a thickness of up to 20 mm and have one or more lateral dimensions from 1 cm to 20 m, (ci) the diameters or lateral dimensions of the perforations are up to 5 cm and each perforation has a lateral dimension identical, or substantially identical, to the lateral dimensions of the reinforcements, (cii) the perforations are distributed in a pre-designed pattern which can be a regular pattern, a staggered pattern or other perforation patterns, the distance between each perforation being from 10 mm to 20 times the diameters or lateral dimensions of the perforations, and (di) the reinforcements are through-thickness reinforcements, extending through the perforations in the electrode stack, and mechanically linking the two stiff structural facesheets together, the through-thickness reinforcements being formed of polymers, copolymers or fiber reinforced polymers, and the reinforcements can each have a diameter of from 0.5 mm to 20mm.