mhurhangee/ep-ind-claims huggingface dataset:
A tail skid assembly comprising: an elongate structure which may be connected to a tail section of an aircraft; and a deployment device connected to the elongate structure in which the deployment device is configured to move such that a deployed position for the elongate structure changes to one of a plurality of deployed positions for the elongate structure, characterized by an actuator system configured to move the deployment device such that the deployment device rotates, wherein rotation of the deployment device changes the deployed position for the elongate structure, a pin configured to connect the deployment device to the elongate structure in which the pin is inserted through an opening in the deployment device and an elongate opening in a lever and in which the actuator system is configured to move the pin to move the deployment device, an elongate member connected to the actuator system and to the deployment device in which the elongate member is configured to create a moment when the actuator system moves the deployment device and in which the moment causes the deployment device to rotate; and wherein the actuator system comprises at least one of a hydraulic actuator, a linear actuator, and a pneumatic actuator. an elongate structure which may be connected to a tail section of an aircraft; and a deployment device connected to the elongate structure in which the deployment device is configured to move such that a deployed position for the elongate structure changes to one of a plurality of deployed positions for the elongate structure, characterized by an actuator system configured to move the deployment device such that the deployment device rotates, wherein rotation of the deployment device changes the deployed position for the elongate structure, a pin configured to connect the deployment device to the elongate structure in which the pin is inserted through an opening in the deployment device and an elongate opening in a lever and in which the actuator system is configured to move the pin to move the deployment device, an elongate member connected to the actuator system and to the deployment device in which the elongate member is configured to create a moment when the actuator system moves the deployment device and in which the moment causes the deployment device to rotate; and
Use of a composition, comprising: an organic compound having a molecular weight of 100 or more, said compound including (i) at least one atom selected from the group consisting of a fluorine atom, a nitrogen atom, and a chlorine atom, or (ii) 3 or more hydroxyl groups; a pH adjusting agent; and 0 % by mass of abrasive grains; for polishing a substrate comprising polysilicon which has been polished by using a polishing composition comprising abrasive grains or an organic compound. an organic compound having a molecular weight of 100 or more, said compound including (i) at least one atom selected from the group consisting of a fluorine atom, a nitrogen atom, and a chlorine atom, or (ii) 3 or more hydroxyl groups; (i) at least one atom selected from the group consisting of a fluorine atom, a nitrogen atom, and a chlorine atom, or (ii) 3 or more hydroxyl groups; a pH adjusting agent; and 0 % by mass of abrasive grains; for polishing a substrate comprising polysilicon which has been polished by using a polishing composition comprising abrasive grains or an organic compound.
A method of authenticating data, comprising: storing a plurality of combinations of representations of public keys and session key IDs in a non-volatile memory; wherein the storing of the plurality of combinations of representations of public keys and session key IDs includes storing the representation of each session key ID in a plurality of e-fuses; inputting a payload and accompanying public key, session key ID, and signature of the payload, wherein the signature is a function of the payload and a private key of a key pair that includes the accompanying public key and the private key; determining with a processor whether or not the payload is authentic, from the accompanying public key and session key ID and the combinations stored in the non-volatile memory, and from the signature and the payload; in response to determining that the payload is authentic, processing the payload; in response to determining that the payload is not authentic, disabling processing of the payload; and establishing a new session key ID by disabling current flow through only one of the plurality of e-fuses of the representations of the session key ID of one of the plurality of combinations. storing a plurality of combinations of representations of public keys and session key IDs in a non-volatile memory; wherein the storing of the plurality of combinations of representations of public keys and session key IDs includes storing the representation of each session key ID in a plurality of e-fuses; inputting a payload and accompanying public key, session key ID, and signature of the payload, wherein the signature is a function of the payload and a private key of a key pair that includes the accompanying public key and the private key; determining with a processor whether or not the payload is authentic, from the accompanying public key and session key ID and the combinations stored in the non-volatile memory, and from the signature and the payload; in response to determining that the payload is authentic, processing the payload; in response to determining that the payload is not authentic, disabling processing of the payload; and establishing a new session key ID by disabling current flow through only one of the plurality of e-fuses of the representations of the session key ID of one of the plurality of combinations.
A heart monitoring apparatus, comprising: an ultrasound-frequency signal generator configured to drive an ultrasound transducer; a receiver configured to receive ultrasound-frequency return signals reflected from a target region in a patient's lungs induced by moving borders between blood vessels/soft tissue in the lung and air-filled alveoli that surround the blood vessels/soft tissue and detect Doppler shifts of the return signals; and a processor configured to (a) process the detected Doppler shifts with a noise reduction algorithm and output processed power and velocity data for a period of time that corresponds to a plurality of cardiac cycles, (b) identify features in the power and velocity data that occur once per cardiac cycle, and (c) determine timing between the identified features. an ultrasound-frequency signal generator configured to drive an ultrasound transducer; a receiver configured to receive ultrasound-frequency return signals reflected from a target region in a patient's lungs induced by moving borders between blood vessels/soft tissue in the lung and air-filled alveoli that surround the blood vessels/soft tissue and detect Doppler shifts of the return signals; and a processor configured to (a) process the detected Doppler shifts with a noise reduction algorithm and output processed power and velocity data for a period of time that corresponds to a plurality of cardiac cycles, (b) identify features in the power and velocity data that occur once per cardiac cycle, and (c) determine timing between the identified features.
Suspension device comprising a base plate intended to be fastened to a surface, e.g. a wall, and two rods (15, 16) fastened on the base plate horizontally pointing towards one another and a spring to permit for a gap between the ends of the rods to permit for a narrow object, e.g. a key ring, to pass through the gap, characterised in that the end of one of the rods consists of an end knob which has a cylindrical blind hole into which the rod is inserted and the spring is arranged in the blind hole between the bottom of the hole and the end of the rod, so that the end knob is tensioned against the end of the other rod, and the end knob and the end of the other rod have an initial angle in relation to one another such that the object when pressed against their contact surfaces will displace the end knob along said one rod so that the object can pass through the gap between the contact surfaces.
A composite negative electrode material for a secondary battery, the composite negative electrode material comprising: a graphene sheet having a thickness of 0.1 to 1 μm; and two or more coating layers formed on both sides of the graphene sheet, wherein the two or more coating layers comprise a first coating layer formed on both sides of the graphene sheet and a second coating layer formed on a surface of the first coating layer, wherein the first coating layer comprises a pitch coating layer, and the second coating layer comprises a polymer coating layer, the pitch coating layer being obtainable by (i) mixing the graphene sheet and a pitch; and (ii) sintering and carbonizing the mixture; and the graphene sheet and the two or more coating layers are included in a weight ratio of 1: greater than 0.01 to less than 0.1, wherein the polymer coating layer comprises a polyacrylic acid ester-based copolymer. a graphene sheet having a thickness of 0.1 to 1 μm; and two or more coating layers formed on both sides of the graphene sheet, wherein the two or more coating layers comprise a first coating layer formed on both sides of the graphene sheet and a second coating layer formed on a surface of the first coating layer, wherein the first coating layer comprises a pitch coating layer, and the second coating layer comprises a polymer coating layer, the pitch coating layer being obtainable by (i) mixing the graphene sheet and a pitch; and (ii) sintering and carbonizing the mixture; and the graphene sheet and the two or more coating layers are included in a weight ratio of 1: greater than 0.01 to less than 0.1, wherein the polymer coating layer comprises a polyacrylic acid ester-based copolymer.
An exhaust purification system of an internal combustion engine comprising an HC adsorbent arranged in an exhaust passage of an internal combustion engine and adsorbing HC in exhaust gas, an NOx adsorbent arranged in the exhaust passage and adsorbing NOx in exhaust gas, a catalyst arranged in the exhaust passage at a downstream side from the HC adsorbent and the NOx adsorbent in a direction of exhaust flow and removing HC and NOx at a predetermined air-fuel ratio, an air-fuel ratio control part configured to control an air-fuel ratio of exhaust gas, and an HC concentration calculating part configured to calculate a concentration of HC desorbed from the HC adsorbent, wherein wherein the HC adsorbent and NOx adsorbent are configured so that the difference between a peak of a desorption temperature of HC at the HC adsorbent and a peak of a desorption temperature of NOx at the NOx adsorbent is within 20°C, wherein the peak of the desorption temperature of HC means the temperature of the adsorbent when the HC desorption concentration becomes maximum, wherein the peak of the desorption temperature of NOx means the temperature of the adsorbent when the NOx desorption concentration becomes maximum, and the air-fuel ratio control part is configured to control an air-fuel ratio of inflowing exhaust gas flowing into the catalyst to the predetermined air-fuel ratio based on the concentration of HC calculated by the HC concentration calculating part when HC is desorbed from the HC adsorbent. an HC adsorbent arranged in an exhaust passage of an internal combustion engine and adsorbing HC in exhaust gas, an NOx adsorbent arranged in the exhaust passage and adsorbing NOx in exhaust gas, a catalyst arranged in the exhaust passage at a downstream side from the HC adsorbent and the NOx adsorbent in a direction of exhaust flow and removing HC and NOx at a predetermined air-fuel ratio, an air-fuel ratio control part configured to control an air-fuel ratio of exhaust gas, and an HC concentration calculating part configured to calculate a concentration of HC desorbed from the HC adsorbent, wherein wherein the HC adsorbent and NOx adsorbent are configured so that the difference between a peak of a desorption temperature of HC at the HC adsorbent and a peak of a desorption temperature of NOx at the NOx adsorbent is within 20°C, wherein the peak of the desorption temperature of HC means the temperature of the adsorbent when the HC desorption concentration becomes maximum, wherein the peak of the desorption temperature of NOx means the temperature of the adsorbent when the NOx desorption concentration becomes maximum, and the air-fuel ratio control part is configured to control an air-fuel ratio of inflowing exhaust gas flowing into the catalyst to the predetermined air-fuel ratio based on the concentration of HC calculated by the HC concentration calculating part when HC is desorbed from the HC adsorbent.
A transportable fuel container for motor vehicles which is formed as small container (10, 20) provided with a closable discharge opening (3, 27) and having the shape of a curved part-ring-like tube so that it has a banana-like shape, characterized in that one end of the tube is provided with the discharge opening (3, 27) and this end is so tapered or conically formed that it can be introduced into the tank inlet pipe of a motor vehicle.
A two-dimensional code, comprising: cells representing binary-coded data that are arranged as a pattern in the form of a two-dimensional matrix; and a position detection pattern (12A-12D, 52A-52D), in which two-dimensional code an arbitrary design can be arranged, characterized in that the binary-coded data comprises design-embedding information indicating the position of a design region. cells representing binary-coded data that are arranged as a pattern in the form of a two-dimensional matrix; and a position detection pattern (12A-12D, 52A-52D), in which two-dimensional code an arbitrary design can be arranged, characterized in that the binary-coded data comprises design-embedding information indicating the position of a design region.
A curing composition, comprising: a) a condensation product of: at least one carboxylic acid having 20-60 carbon atoms and at least two carboxyl groups and/or at least one ester derived from a carboxylic acid having 20-60 carbon atoms and at least two carboxyl groups; and at least one polyoxyalkyleneamine, wherein the polyoxyalkyleneamine includes: I) at least two oxyalkylene moieties; and II) at least two primary amino groups; and b) at least one amine having at least one amino group. a) a condensation product of: at least one carboxylic acid having 20-60 carbon atoms and at least two carboxyl groups and/or at least one ester derived from a carboxylic acid having 20-60 carbon atoms and at least two carboxyl groups; and at least one polyoxyalkyleneamine, wherein the polyoxyalkyleneamine includes: I) at least two oxyalkylene moieties; and II) at least two primary amino groups; and at least one carboxylic acid having 20-60 carbon atoms and at least two carboxyl groups and/or at least one ester derived from a carboxylic acid having 20-60 carbon atoms and at least two carboxyl groups; and at least one polyoxyalkyleneamine, wherein the polyoxyalkyleneamine includes: I) at least two oxyalkylene moieties; and II) at least two primary amino groups; and I) at least two oxyalkylene moieties; and II) at least two primary amino groups; and b) at least one amine having at least one amino group.
A fridge, comprising a fridge body, a refrigerating and circulating system and an air passage, wherein the fridge body comprises a refrigerating compartment and a dry article compartment, the dry article compartment comprises a barrel and a drawer drawably received in the barrel, and the barrel is provided with a dry article compartment air passage communicating with the air passage and an air door baffle mounted inside the dry article compartment air passage; the refrigerating and circulating system comprises a compressor, a condenser, a throttling member and an evaporator; and the fridge further comprises a blower arranged inside the air passage, the blower is configured to blow cooled and dehumidified air to the refrigerating compartment and/or the dry article compartment, wherein a joint between the barrel and the drawer is sealed by a sealing member so as to be isolated from external air, and the dry article compartment is not provided with an air discharging door; the fridge being characterized in that: two side walls of the dry article compartment are respectively provided with rollers, two sides of the drawer are respectively provided with inclined slide rails for receiving the rollers, and the drawer is closed when sliding along the inclined slide rails; wherein a tail end of the inclined slide rail is provided with a clearance so that the drawer tightly presses the dry article compartment by means of the self weight of the drawer and of an article placed in the drawer; wherein ventilation of the dry article compartment is carried out by an assembling clearance between the barrel and the drawer. two side walls of the dry article compartment are respectively provided with rollers, two sides of the drawer are respectively provided with inclined slide rails for receiving the rollers, and the drawer is closed when sliding along the inclined slide rails; wherein a tail end of the inclined slide rail is provided with a clearance so that the drawer tightly presses the dry article compartment by means of the self weight of the drawer and of an article placed in the drawer; wherein ventilation of the dry article compartment is carried out by an assembling clearance between the barrel and the drawer.
A method for manufacturing a cover (100, 200) having a metallic grid structure for a portable terminal comprising an antenna, the method comprising: forming pattern portions (110, 210) formed of a metallic material, in which a plurality of patterns (111, 211) are independently disposed spaced apart from each other; and forming injection portions (120, 230) disposed between the patterns (111, 211) to fix /3 the patterns (111, 211), the injection portion (120, 230) being formed of a non-metallic material, /3 wherein forming the pattern portion comprises forming a pre-pattern portion by press, forging, etching, or CNC on a metallic plate prior to forming of the injection portion, and if the plurality of patterns in irregular or regular form are formed on one portion of surface of the pre-pattern portion and the injection portion is formed between the patterns on the other surface of the pre-pattern portion, providing at least one bridge connecting the patterns to fix positions of the patterns. forming pattern portions (110, 210) formed of a metallic material, in which a plurality of patterns (111, 211) are independently disposed spaced apart from each other; and forming injection portions (120, 230) disposed between the patterns (111, 211) to fix /3 the patterns (111, 211), the injection portion (120, 230) being formed of a non-metallic material, /3 wherein forming the pattern portion comprises forming a pre-pattern portion by press, forging, etching, or CNC on a metallic plate prior to forming of the injection portion, and if the plurality of patterns in irregular or regular form are formed on one portion of surface of the pre-pattern portion and the injection portion is formed between the patterns on the other surface of the pre-pattern portion, providing at least one bridge connecting the patterns to fix positions of the patterns.
A method for an electronic device comprising: in response to detecting a touch input on a touch screen, detecting a number of simultaneous individual contacts of the touch input by respective objects with the touch screen; when the number of simultaneous individual contacts of the touch input corresponds to one or a predetermined number of simultaneous individual contacts, executing scrolling of a screen displayed on the touch screen according to the touch input; when the number of simultaneous individual contacts of the touch input is different from one and the predetermined number, calculating a scale factor, based on a change in distance between coordinates of the simultaneous individual contacts; when the scale factor is equal to one, executing scrolling of a screen displayed on the touch screen according to the touch input; and when the scale factor is less than or greater than one, executing gesture-based zoom of the screen displayed on the touch screen according to the touch input, characterized in that the predetermined number of simultaneous individual contacts is a range greater than or equal to three and less than or equal to ten. in response to detecting a touch input on a touch screen, detecting a number of simultaneous individual contacts of the touch input by respective objects with the touch screen; when the number of simultaneous individual contacts of the touch input corresponds to one or a predetermined number of simultaneous individual contacts, executing scrolling of a screen displayed on the touch screen according to the touch input; when the number of simultaneous individual contacts of the touch input is different from one and the predetermined number, calculating a scale factor, based on a change in distance between coordinates of the simultaneous individual contacts; when the scale factor is equal to one, executing scrolling of a screen displayed on the touch screen according to the touch input; and when the scale factor is less than or greater than one, executing gesture-based zoom of the screen displayed on the touch screen according to the touch input, characterized in that the predetermined number of simultaneous individual contacts is a range greater than or equal to three and less than or equal to ten.