mhurhangee/patent-ind-claim-en huggingface dataset:
A malfunction diagnosing apparatus comprising: a data collector configured to collect vibration data generated when a diagnosed apparatus operates in each of a plurality of predetermined operating sequences; a data analyzer configured to analyze the collected vibration data and calculate a feature quantity; a malfunction detector configured to determine, based on the calculated feature quantity, whether or not something is wrong with the diagnosed apparatus ; and a controller configured to control the data analyzer and the malfunction detector and configured to control, if it is determined that something is wrong with the diagnosed apparatus , the diagnosed apparatus to repeat for a predetermined number of times an operating sequence of the plurality of operating sequences that has been determined as a candidate for malfunction, wherein the malfunction detector determines that malfunction occurs in the diagnosed apparatus if it is determined that something is wrong with the diagnosed apparatus in the operating sequence repeated for the predetermined number of times, characterized in that , in case of repeating the operating sequence that it is determined that something is wrong with the diagnosed apparatus for the predetermined number of times, the number of times of repeating the operating sequence subsequent to a first repetition is modified in accordance with a type of the operating sequence that has been determined as a candidate for malfunction. a data collector configured to collect vibration data generated when a diagnosed apparatus operates in each of a plurality of predetermined operating sequences; a data analyzer configured to analyze the collected vibration data and calculate a feature quantity; a malfunction detector configured to determine, based on the calculated feature quantity, whether or not something is wrong with the diagnosed apparatus ; and a controller configured to control the data analyzer and the malfunction detector and configured to control, if it is determined that something is wrong with the diagnosed apparatus , the diagnosed apparatus to repeat for a predetermined number of times an operating sequence of the plurality of operating sequences that has been determined as a candidate for malfunction, wherein the malfunction detector determines that malfunction occurs in the diagnosed apparatus if it is determined that something is wrong with the diagnosed apparatus in the operating sequence repeated for the predetermined number of times, characterized in that , in case of repeating the operating sequence that it is determined that something is wrong with the diagnosed apparatus for the predetermined number of times, the number of times of repeating the operating sequence subsequent to a first repetition is modified in accordance with a type of the operating sequence that has been determined as a candidate for malfunction.
Engine start control method comprising: a cell starting method to be performed at a time of starting an engine with a cell motor ; a power starting method to be performed at a time of starting the engine with a power start device, a determining step capable of determining which one of the starting methods is performed; said method being characterised in further comprising: detecting a difference between a first battery voltage at a time of an engine stop, such as in a state before or in absence of engine rotation, and a second battery voltage at a time of commencement of an engine start when a crank pulse signal after engine rotation is equal to a predetermined number of pulses, wherein the predetermined number of pulses is 3 to 5, determining that the engine is started in accordance with the cell starting method, if the detected voltage difference is larger than a predetermined value, and/or determining that the engine is started in accordance with the power start method, preferably being a human power start method such as a kick start method, if the detected voltage difference is smaller than a predetermined value. a cell starting method to be performed at a time of starting an engine with a cell motor ; a power starting method to be performed at a time of starting the engine with a power start device, a determining step capable of determining which one of the starting methods is performed; said method being characterised in further comprising: detecting a difference between a first battery voltage at a time of an engine stop, such as in a state before or in absence of engine rotation, and a second battery voltage at a time of commencement of an engine start when a crank pulse signal after engine rotation is equal to a predetermined number of pulses, wherein the predetermined number of pulses is 3 to 5, determining that the engine is started in accordance with the cell starting method, if the detected voltage difference is larger than a predetermined value, and/or determining that the engine is started in accordance with the power start method, preferably being a human power start method such as a kick start method, if the detected voltage difference is smaller than a predetermined value. detecting a difference between a first battery voltage at a time of an engine stop, such as in a state before or in absence of engine rotation, and a second battery voltage at a time of commencement of an engine start when a crank pulse signal after engine rotation is equal to a predetermined number of pulses, wherein the predetermined number of pulses is 3 to 5, determining that the engine is started in accordance with the cell starting method, if the detected voltage difference is larger than a predetermined value, and/or determining that the engine is started in accordance with the power start method, preferably being a human power start method such as a kick start method, if the detected voltage difference is smaller than a predetermined value.
An image forming system , comprising: an image forming apparatus which is configured to form an image on a recording medium (M) by the image forming apparatus ; and a reading apparatus which is configured to read the image formed on the recording medium (M) by the image forming apparatus , wherein the reading apparatus includes: a supporting section which is configured to position a reading surface (MP1, MP2) for reading the image on the recording medium (M) by contacting the recording medium on which the image is formed by the image forming apparatus ; a conveyance section which is configured to convey the recording medium (M) so that the recording medium (M) contacts the supporting section from a leading direction not parallel with respect to the reading surface (MP1, MP2) and moves apart from the supporting section to an ejection direction not parallel with respect to the reading surface (MP1, MP2); and a reading section which is configured to read the image on the reading surface of the recording medium, characterized in that the image forming apparatus is configured to convey a recording medium (M) having the image formed thereon to the reading apparatus . an image forming apparatus which is configured to form an image on a recording medium (M) by the image forming apparatus ; and a reading apparatus which is configured to read the image formed on the recording medium (M) by the image forming apparatus , wherein the reading apparatus includes: a supporting section which is configured to position a reading surface (MP1, MP2) for reading the image on the recording medium (M) by contacting the recording medium on which the image is formed by the image forming apparatus ; a conveyance section which is configured to convey the recording medium (M) so that the recording medium (M) contacts the supporting section from a leading direction not parallel with respect to the reading surface (MP1, MP2) and moves apart from the supporting section to an ejection direction not parallel with respect to the reading surface (MP1, MP2); and a reading section which is configured to read the image on the reading surface of the recording medium, characterized in that the image forming apparatus is configured to convey a recording medium (M) having the image formed thereon to the reading apparatus . a supporting section which is configured to position a reading surface (MP1, MP2) for reading the image on the recording medium (M) by contacting the recording medium on which the image is formed by the image forming apparatus ; a conveyance section which is configured to convey the recording medium (M) so that the recording medium (M) contacts the supporting section from a leading direction not parallel with respect to the reading surface (MP1, MP2) and moves apart from the supporting section to an ejection direction not parallel with respect to the reading surface (MP1, MP2); and a reading section which is configured to read the image on the reading surface of the recording medium, characterized in that the image forming apparatus is configured to convey a recording medium (M) having the image formed thereon to the reading apparatus .
An Embryonic Structure Targeting Injection System (ESTIS) for injecting a substance into a specific location within a developing avian embryo , or a specific location of an egg containing an avian embryo, comprising: a means for aseptically cutting the outer shell of an egg, such that a defined portion of the shell is prepared for subsequent removal; a means for removing the defined shell portion to produce an opening in the egg; a means for mapping or targeting the x, y, z coordinates of embryonic structures to locate the desired specific injection location comprising a camera and a microprocessor; a means for injecting the specific substance into the specific injection location; a means for aseptically sealing the opening, and an egg holder or tray having an egg immobilization means, which employs either vacuum or a suitable mechanical means to fix the position of the egg or plurality of eggs, and a light source , or plurality of light sources, which is a component of the mapping means, characterized in that the system further comprises, an egg transfer assembly, which is capable of moving eggs from their incubation position, wherein the stump pole faces upward, to their injection position, wherein the pointed pole faces upward such that it is accessible to the injection needle. a means for aseptically cutting the outer shell of an egg, such that a defined portion of the shell is prepared for subsequent removal; a means for removing the defined shell portion to produce an opening in the egg; a means for mapping or targeting the x, y, z coordinates of embryonic structures to locate the desired specific injection location comprising a camera and a microprocessor; a means for injecting the specific substance into the specific injection location; a means for aseptically sealing the opening, and an egg holder or tray having an egg immobilization means, which employs either vacuum or a suitable mechanical means to fix the position of the egg or plurality of eggs, and a light source , or plurality of light sources, which is a component of the mapping means,
A process for preparing a ring electrode comprising the steps of: a) providing a monolithic metal precursor, wherein the monolithic metal precursor comprises an outer tube forming a first cavity of the precursor, and wherein the outer tube has a wall comprising in one section an inner tube forming a second cavity of the precursor; b) preparing a composite precursor by inserting a first sacrificial core element into the first cavity of the precursor provided in step a) and a second sacrificial core element into the second cavity of the precursor provided in step a); c) forming the composite precursor obtained in step b) to obtain a formed composite having a smaller outer diameter than the composite precursor obtained in step b); d) separating a composite disk from the formed composite obtained in step c); e) removing the first and the second sacrificial core element from the composite disk obtained in step d). a) providing a monolithic metal precursor, wherein the monolithic metal precursor comprises an outer tube forming a first cavity of the precursor, and wherein the outer tube has a wall comprising in one section an inner tube forming a second cavity of the precursor; wherein the monolithic metal precursor comprises an outer tube forming a first cavity of the precursor, and wherein the outer tube has a wall comprising in one section an inner tube forming a second cavity of the precursor; b) preparing a composite precursor by inserting a first sacrificial core element into the first cavity of the precursor provided in step a) and a second sacrificial core element into the second cavity of the precursor provided in step a); c) forming the composite precursor obtained in step b) to obtain a formed composite having a smaller outer diameter than the composite precursor obtained in step b); d) separating a composite disk from the formed composite obtained in step c); e) removing the first and the second sacrificial core element from the composite disk obtained in step d).
A gas meter comprising: a shutoff valve configured to shut off a gas flow; a flow rate measurer configured to measure a gas flow rate; a return unit configured to open the shutoff valve ; a display configured to display a status; a communication unit configured to communicate with an outside; and a controller configured to control the shutoff valve , the flow rate measurer , the return unit , the display , and the communication unit , characterised in that the controller is further configured to extract area information when the communication unit receives a shutoff instruction, and the gas meter further comprises an area information setting unit configured to set and store area information related to a gas piping system (A) where the gas meter is installed; and an area information comparator configured to compare the area information extracted by the controller with the area information stored in the area information setting unit , wherein the controller is configured to close the shutoff valve in a case where the area information stored in the area information setting unit and the area information extracted from the shutoff instruction match. a shutoff valve configured to shut off a gas flow; a flow rate measurer configured to measure a gas flow rate; a return unit configured to open the shutoff valve ; a display configured to display a status; a communication unit configured to communicate with an outside; and a controller configured to control the shutoff valve , the flow rate measurer , the return unit , the display , and the communication unit , characterised in that the controller is further configured to extract area information when the communication unit receives a shutoff instruction, and the gas meter further comprises an area information setting unit configured to set and store area information related to a gas piping system (A) where the gas meter is installed; and an area information comparator configured to compare the area information extracted by the controller with the area information stored in the area information setting unit , wherein the controller is configured to close the shutoff valve in a case where the area information stored in the area information setting unit and the area information extracted from the shutoff instruction match.
A cartridge for a vaporizer device , the cartridge comprising: a cartridge housing having a first housing segment coupled with a second housing segment , at least a portion of the cartridge housing forming a wick housing ; a reservoir disposed within the cartridge housing, the reservoir including a storage chamber and a collector , the collector including an overflow channel configured to retain a volume of a vaporizable material in fluid contact with the storage chamber , the overflow channel including one or more microfluidic features (230a, b) configured to provide a constriction point at which a meniscus forms to create a pressure differential between the reservoir and ambient pressure, the meniscus further regulating an exchange of air and the vaporizable material into and out of the reservoir ; a heating element , the heating element including a heating portion disposed at least partially inside the wick housing and a contact portion extending at least partially outside of the wick housing , the contact portion including one or more cartridge contacts configured to form an electric coupling with one or more contacts in the vaporizer device ; and a wicking element disposed at least partially inside the wick housing and proximate to the heating portion of the heating element , the wicking element being in fluid communication with the reservoir , and the wicking element configured to draw the vaporizable material from the reservoir for vaporization by the heating element . a cartridge housing having a first housing segment coupled with a second housing segment , at least a portion of the cartridge housing forming a wick housing ; a reservoir disposed within the cartridge housing, the reservoir including a storage chamber and a collector , the collector including an overflow channel configured to retain a volume of a vaporizable material in fluid contact with the storage chamber , the overflow channel including one or more microfluidic features (230a, b) configured to provide a constriction point at which a meniscus forms to create a pressure differential between the reservoir and ambient pressure, the meniscus further regulating an exchange of air and the vaporizable material into and out of the reservoir ; a heating element , the heating element including a heating portion disposed at least partially inside the wick housing and a contact portion extending at least partially outside of the wick housing , the contact portion including one or more cartridge contacts configured to form an electric coupling with one or more contacts in the vaporizer device ; and a wicking element disposed at least partially inside the wick housing and proximate to the heating portion of the heating element , the wicking element being in fluid communication with the reservoir , and the wicking element configured to draw the vaporizable material from the reservoir for vaporization by the heating element .
A camshaft , comprising a hollow shaft , at least one cam and a closing cover which is arranged in the interior of hollow shaft and at a distance from the cam in the axial direction, wherein the camshaft comprises one or more holding means in order to prevent slipping of the closing cover in at least one axial direction, characterized in that the axial extent of the one or more holding means is smaller than or equal to the axial distance between an end of the closing cover that faces the cam and the cam .
A composition of matter comprising; zinc oxide particles, distilled water, and a pH increasing buffering agent adjusting a pH of 10 or greater for said composition of matter, wherein said zinc oxide particles have a diameter of 0.1 μm to 0.9 μm, wherein said composition of matter exhibits stable UVB and UVA spectral absorption between about 290 nm and about 375 nm wavelengths of light, wherein said buffering agent is L-arginine.
A carbon fibre wheel for a vehicle, the carbon fibre wheel comprising a wheel body comprising a rim portion and a face portion , the rim portion comprises an annulus structure configured to receive and seat a tyre, the face portion including a hub configured to fix the wheel to the vehicle, and a connection structure that extends between and interconnects the hub and the rim, the wheel body having an inner side configured to face a wheel mount of a vehicle, and an outer side configured to face outwardly when connected to a wheel mount of a vehicle, the wheel body being formed from a first carbon fibre composite composition comprising a carbon fibre layup infused with a first resin; and a fascia layer attached to at least a portion of the face portion of the outer side of the wheel body, the fascia layer being formed from a second fibre composite composition characterized in comprising a selected fibre layup infused with a second resin wherein the first resin has a different composition to the second resin. a wheel body comprising a rim portion and a face portion , the rim portion comprises an annulus structure configured to receive and seat a tyre, the face portion including a hub configured to fix the wheel to the vehicle, and a connection structure that extends between and interconnects the hub and the rim, the wheel body having an inner side configured to face a wheel mount of a vehicle, and an outer side configured to face outwardly when connected to a wheel mount of a vehicle, the wheel body being formed from a first carbon fibre composite composition comprising a carbon fibre layup infused with a first resin; and a fascia layer attached to at least a portion of the face portion of the outer side of the wheel body, the fascia layer being formed from a second fibre composite composition characterized in comprising a selected fibre layup infused with a second resin wherein the first resin has a different composition to the second resin.
Multi-layered sheet material for a crossway element for protection of a passageway of two vehicle parts (31a; 31 b) or components, which are connected together movably relative to each other, the multi-layered sheet material comprising a reinforcing support that comprises a polymer coating at least on one side, preferably on both sides, wherein the reinforcing support comprises at least one textile fabric , preferably a supporting woven fabric , wherein the textile fabric , in particular the supporting woven fabric , comprises at least two surface regions (13a; 13b; 34a; 34b), which differ from each other in at least one mechanical property, characterized in that the surface regions (13a; 13b; 34a; 34b) differ from each other with respect to at least one mechanical strength property in at least one surface direction (4a;b) of the multi-layered sheet material with respect to the maximum tensile force F H according to DIN EN ISO 13934-1:2013 and/or the elongation at maximum tensile force ε H according to DIN EN ISO 13934-1:2013 and/or the ratio of tensile force according to DIN EN ISO 13934-1:2013 to elongation according to DIN EN ISO 13934-1:2013. wherein the textile fabric , in particular the supporting woven fabric , comprises at least two surface regions (13a; 13b; 34a; 34b), which differ from each other in at least one mechanical property, characterized in that the surface regions (13a; 13b; 34a; 34b) differ from each other with respect to at least one mechanical strength property in at least one surface direction (4a;b) of the multi-layered sheet material with respect to the maximum tensile force F H according to DIN EN ISO 13934-1:2013 and/or the elongation at maximum tensile force ε H according to DIN EN ISO 13934-1:2013 and/or the ratio of tensile force according to DIN EN ISO 13934-1:2013 to elongation according to DIN EN ISO 13934-1:2013.
Device for disposal of neutron flux sensors and/or thermocouples comprising a shielding body with a longitudinal cavity inside, the shielding body being provided with an input opening in its lower part to allow insertion of said sensors and/or thermocouples, wherein a cutting mechanism is arranged in an upper part of the cavity , said cutting mechanism comprising a cutting body (3.1) and a cutting head (3.4); a receptacle is arranged within the cavity below said cutting mechanism to store said sensors and/or thermocouples being disposed, said cutting mechanism is arranged above the receptacle to allow a direct transfer of the cut-off parts of the sensor and/or thermocouples into the receptacle by gravity; wherein a channel is provided above the input opening ; the device being characterized in that said channel has a vertical part and a bent part, said vertical part of the channel being formed in parallel to the vertical axis of the shielding body and said bent part of the channel being provided to supply the sensors and/or thermocouples to the cutting mechanism , and wherein a feeding mechanism is provided at the input opening to feed the sensors and/or thermocouples from the input opening through the channel to the cutting mechanism .