mhurhangee/patent-ind-claim-en huggingface dataset:
A heat exchanger comprising: a plurality of heat exchange units each including an inner pipe in which a first fluid flows, an insertion body inserted in the inner pipe , and at least one or more outer pipes in which a second fluid flows, the one or more outer pipes being provided on an outer periphery of the inner pipe ; and a joint unit installed on the inner pipe , ends of the plurality of heat exchange units being connected by the joint unit , wherein the insertion body includes a shaft and a helical protrusion placed on an outer surface of the shaft , the first fluid flows in a helical flow channel including an inner surface of the inner pipe , the shaft , and the helical protrusion , and at least two or more heat exchange units (11, 11a, 11b, 11c, 11d, 11 e, 11g, 11h, 11i) among the plurality of heat exchange units (11, 11a, 11b, 11c, 11d, 11 e, 11g, 11h, 11 i) are communicated by the joint unit , characterized in that the first fluid is branched by the joint unit and flows in the inner pipe in the same direction in at least two or more heat exchange units , wherein each of the plurality of heat exchange units (11, 11a, 11b, 11c, 11d, 11e, 11g, 11h, 11 i) includes a drain port that drains water inside each of the plurality of heat exchange units , wherein the joint unit includes a plurality of joints and a communication passage that makes the plurality of joints be communicated, and wherein the drain port is placed on any of the plurality of joints or the communication passage . a plurality of heat exchange units each including an inner pipe in which a first fluid flows, an insertion body inserted in the inner pipe , and at least one or more outer pipes in which a second fluid flows, the one or more outer pipes being provided on an outer periphery of the inner pipe ; and a joint unit installed on the inner pipe , ends of the plurality of heat exchange units being connected by the joint unit , wherein the insertion body includes a shaft and a helical protrusion placed on an outer surface of the shaft , the first fluid flows in a helical flow channel including an inner surface of the inner pipe , the shaft , and the helical protrusion , and at least two or more heat exchange units (11, 11a, 11b, 11c, 11d, 11 e, 11g, 11h, 11i) among the plurality of heat exchange units (11, 11a, 11b, 11c, 11d, 11 e, 11g, 11h, 11 i) are communicated by the joint unit , the first fluid is branched by the joint unit and flows in the inner pipe in the same direction in at least two or more heat exchange units , wherein each of the plurality of heat exchange units (11, 11a, 11b, 11c, 11d, 11e, 11g, 11h, 11 i) includes a drain port that drains water inside each of the plurality of heat exchange units , wherein the joint unit includes a plurality of joints and a communication passage that makes the plurality of joints be communicated, and wherein the drain port is placed on any of the plurality of joints or the communication passage .
An underground energy storage arrangement for storing pressurized gas comprising, at least one unlined cavern (110;210) configured to store said pressurized gas, wherein said at least one unlined cavern (110;210) is arranged at a first vertical level (L1); a water seal arranged around said at least one unlined cavern (110;210) configured to act as a seal for said at least one unlined cavern (110;210), wherein said water seal comprises a plurality of waterfilled boreholes (125;225) drilled in a bedrock at angles such that the waterfilled boreholes (125;225) are connected with each other, enclosing said at least one unlined cavern (110;210); at least one first pipe connected to said at least one unlined cavern (110;210) and configured to allow said pressurized gas to move to and from said at least one unlined cavern (110;210); a balance water source arranged at a second vertical level (L2) higher than said first vertical level (L1), wherein said balance water source is connected to said at least one unlined cavern (110;210) and configured to allow water to fill parts of said at least one unlined cavern (110;210) when not filled with said pressurized gas, and wherein said balance water source has a larger volume than said at least one unlined cavern (110;210); and a water source , arranged at a third vertical level (L3) higher than said first vertical level (L1) and said second vertical level (L2), wherein said water source is connected to said water seal through at least one second pipe ensuring water supply to said boreholes . at least one unlined cavern (110;210) configured to store said pressurized gas, wherein said at least one unlined cavern (110;210) is arranged at a first vertical level (L1); a water seal arranged around said at least one unlined cavern (110;210) configured to act as a seal for said at least one unlined cavern (110;210), wherein said water seal comprises a plurality of waterfilled boreholes (125;225) drilled in a bedrock at angles such that the waterfilled boreholes (125;225) are connected with each other, enclosing said at least one unlined cavern (110;210); at least one first pipe connected to said at least one unlined cavern (110;210) and configured to allow said pressurized gas to move to and from said at least one unlined cavern (110;210); a balance water source arranged at a second vertical level (L2) higher than said first vertical level (L1), wherein said balance water source is connected to said at least one unlined cavern (110;210) and configured to allow water to fill parts of said at least one unlined cavern (110;210) when not filled with said pressurized gas, and wherein said balance water source has a larger volume than said at least one unlined cavern (110;210); and a water source , arranged at a third vertical level (L3) higher than said first vertical level (L1) and said second vertical level (L2), wherein said water source is connected to said water seal through at least one second pipe ensuring water supply to said boreholes .
A miniature smart lock with an anti-prizing function, comprising a lock shell , and a magnetic rod , a push head , a bolt , a V-shaped push rod , an anti-prizing guide slot , and a positioning guide pin , which are mounted in the lock shell , wherein a magnetic coil is mounted surrounding an outer portion of the magnetic rod , a magnetic rod spring is mounted on the magnetic rod on the left side of the magnetic coil , the push head is mounted at the right end of the magnetic rod , the V-shaped push rod is connected to the right end of the push head via a V-shaped push rod connection pin , the V-shaped push rod is movably connected to the bolt via an anti-prizing pin , an end of the anti-prizing pin , which passes through the V-shape push rod and the bolt , is arranged within the anti-prizing guide slot , the positioning guide pin is connected to the right side of the bolt , and a return spring connected with the lock shell is mounted at the lower part of the positioning guide pin , in which a bottom lateral slot of the anti-prizing guide slot is parallel to a bottom of the lock shell, and a longitudinal slot of the anti-prizing guide slot extends towards the top of the lock shell in an inclined line.
A balancer shaft assembly for an internal combustion engine comprising: a bearing cap ; and a balancer shaft configured to rotate within a bearing comprising the bearing cap and a bearing seat , the bearing cap comprising first and second thrust control faces on opposing sides of the bearing cap, wherein the balancer shaft comprises first and second components , at least one of the first and second components being operable to balance the internal combustion engine, and wherein the first and second components are arranged on the opposing sides of the bearing cap to thereby constrain axial movement of the balancer shaft, characterised in that a width of the bearing cap in an axial direction of the balancer shaft is greater than a width of the bearing seat in the axial direction. a bearing cap ; and a balancer shaft configured to rotate within a bearing comprising the bearing cap and a bearing seat , the bearing cap comprising first and second thrust control faces on opposing sides of the bearing cap, wherein the balancer shaft comprises first and second components , at least one of the first and second components being operable to balance the internal combustion engine, and wherein the first and second components are arranged on the opposing sides of the bearing cap to thereby constrain axial movement of the balancer shaft, characterised in that a width of the bearing cap in an axial direction of the balancer shaft is greater than a width of the bearing seat in the axial direction.
A neck protection system for being used in a vehicle , comprising: a support structure ; a helmet ; a force transmission arrangement ; an actuator arrangement ; and a controller ; wherein the force transmission arrangement is mechanically coupled to the support structure and to the helmet and configured to apply a relative force between the support structure and the helmet ; wherein the actuator arrangement is mechanically coupled with the force transmission arrangement and configured to apply a load to the force transmission arrangement to initiate the relative force between the support structure and the helmet ; wherein the controller is communicatively connected to the actuator arrangement and configured to generate and send control commands to the actuator arrangement based on which the actuator arrangement applies the load to the force transmission arrangement ; characterized in that the controller is configured to receive maneuver information from a control computer of the vehicle and to generate the control commands for the actuator arrangement based on the received maneuver information. a support structure ; a helmet ; a force transmission arrangement ; an actuator arrangement ; and a controller ; wherein the force transmission arrangement is mechanically coupled to the support structure and to the helmet and configured to apply a relative force between the support structure and the helmet ; wherein the actuator arrangement is mechanically coupled with the force transmission arrangement and configured to apply a load to the force transmission arrangement to initiate the relative force between the support structure and the helmet ; wherein the controller is communicatively connected to the actuator arrangement and configured to generate and send control commands to the actuator arrangement based on which the actuator arrangement applies the load to the force transmission arrangement ; characterized in that the controller is configured to receive maneuver information from a control computer of the vehicle and to generate the control commands for the actuator arrangement based on the received maneuver information.
A panel for attenuating noise, comprising: a porous first skin ; a second skin ; and a core connected between the porous first skin and the second skin , the core including a corrugated body and a plurality of stringer bodies ; the corrugated body including a plurality of corrugations configured from at least a plurality of baffles and a plurality of porous septums , each of the corrugations including a respective one of the baffles and a respective one of the porous septums , wherein a first of the corrugations forms a first channel that extends laterally between a first of the baffles and a first of the porous septums ; and the stringer bodies spaced longitudinally along the first channel , each of the stringer bodies comprising a first sidewall disposed within the first channel and configured to fluidly isolate longitudinally adjacent portions of the first channel from one another; characterised in that each of the stringer bodies further includes a tongue laterally connected to the first sidewall , and the tongue is mated with a respective groove in a peak formed by the first of the baffles and a second of the porous septums . a porous first skin ; a second skin ; and a core connected between the porous first skin and the second skin , the core including a corrugated body and a plurality of stringer bodies ; the corrugated body including a plurality of corrugations configured from at least a plurality of baffles and a plurality of porous septums , each of the corrugations including a respective one of the baffles and a respective one of the porous septums , wherein a first of the corrugations forms a first channel that extends laterally between a first of the baffles and a first of the porous septums ; and the stringer bodies spaced longitudinally along the first channel , each of the stringer bodies comprising a first sidewall disposed within the first channel and configured to fluidly isolate longitudinally adjacent portions of the first channel from one another; characterised in that each of the stringer bodies further includes a tongue laterally connected to the first sidewall , and the tongue is mated with a respective groove in a peak formed by the first of the baffles and a second of the porous septums .
A method for registering an intelligent electronic device for controlling a power electric device with a certification authority , the method comprising: enrolling a configuration tool at the certification authority ; generating a one-time password for the intelligent electronic device and storing the one-time password in the certification authority and in the configuration tool , wherein the configuration tool requests a configuration certificate from the certification authority and the one-time password is encrypted with the configuration certificate of the configuration tool ; connecting to the intelligent electronic device with the configuration tool , wherein the configuration tool authenticates at the intelligent electronic device ; sending the one-time password from the configuration tool to the intelligent electronic device , wherein the one-time password is included in configuration data sent to the intelligent electronic device , wherein the configuration data furthermore include at least one of an address of the certification authority and a root certificate of the certification authority ; enrolling the intelligent electronic device at the certification authority with the one-time password and registering the intelligent electronic device with the certification authority , wherein the one-time password is included into registration authority/certification authority, RA/CA, registration data created by the intelligent electronic device from the configuration data ; receiving a device certificate from the certification authority in the intelligent electronic device . enrolling a configuration tool at the certification authority ; generating a one-time password for the intelligent electronic device and storing the one-time password in the certification authority and in the configuration tool , wherein the configuration tool requests a configuration certificate from the certification authority and the one-time password is encrypted with the configuration certificate of the configuration tool ; connecting to the intelligent electronic device with the configuration tool , wherein the configuration tool authenticates at the intelligent electronic device ; sending the one-time password from the configuration tool to the intelligent electronic device , wherein the one-time password is included in configuration data sent to the intelligent electronic device , wherein the configuration data furthermore include at least one of an address of the certification authority and a root certificate of the certification authority ; enrolling the intelligent electronic device at the certification authority with the one-time password and registering the intelligent electronic device with the certification authority , wherein the one-time password is included into registration authority/certification authority, RA/CA, registration data created by the intelligent electronic device from the configuration data ; receiving a device certificate from the certification authority in the intelligent electronic device .
An image-forming apparatus that includes a light-irradiation means configured to irradiate a surface of a charged photosensitive member with laser light emitted by a light source in accordance with image data so that a spot of the laser light on the surface of the photosensitive member moves at a non-constant scanning velocity in a main scanning direction to form a latent image on the surface of the photosensitive member, and that forms a toner image by applying toner onto the latent image, comprising: an image formation lens configured to cause a light beam to be focused on a scanned surface of a photosensitive drum so as to form the spot at an image height, the image height of the spot increasing with a scanning angle of the light beam; an image data correcting means configured to correct a length in the main scanning direction of the image data by inserting one or more image data pieces into the image data, to increase the number of the image data pieces inserted as the scanning velocity decreases, and/or extracting one or more image data pieces from the image data, to increase the number of the image data pieces extracted as the scanning velocity increases; and a brightness correcting means configured to correct a brightness of the laser light so that an emission brightness of the light source increases as the scanning velocity increases and/or the emission brightness of the light source decreases as the scanning velocity decreases, wherein the brightness correcting means is configured to correct brightness so that the total amount of exposure for each image data piece becomes constant at each image height. an image formation lens configured to cause a light beam to be focused on a scanned surface of a photosensitive drum so as to form the spot at an image height, the image height of the spot increasing with a scanning angle of the light beam; an image data correcting means configured to correct a length in the main scanning direction of the image data by inserting one or more image data pieces into the image data, to increase the number of the image data pieces inserted as the scanning velocity decreases, and/or extracting one or more image data pieces from the image data, to increase the number of the image data pieces extracted as the scanning velocity increases; and a brightness correcting means configured to correct a brightness of the laser light so that an emission brightness of the light source increases as the scanning velocity increases and/or the emission brightness of the light source decreases as the scanning velocity decreases, wherein the brightness correcting means is configured to correct brightness so that the total amount of exposure for each image data piece becomes constant at each image height.
Method for producing a beverage with a portion pack , comprising a container made of filter material in which an extraction material is arranged and a supporting body surrounding the container at least in some areas, comprising the following steps: - inserting the closed portion pack into a filter vessel; - opening the container of the portion pack on an upper side and increasing the inner volume of the container by at least 50 % compared to the inner volume in the closed position, and - applying water to the extraction material for beverage preparation, whereby the supporting body comprises at least one folding edge which is connected to a pivotable flap , and the opening of the portion pack on the upper side is effected by pivoting the at least one flap , characterized in that an upper section of filter material which is fixed to the at least one flap is pivoted along with the flap . - inserting the closed portion pack into a filter vessel; - opening the container of the portion pack on an upper side and increasing the inner volume of the container by at least 50 % compared to the inner volume in the closed position, and - applying water to the extraction material for beverage preparation, whereby the supporting body comprises at least one folding edge which is connected to a pivotable flap , and the opening of the portion pack on the upper side is effected by pivoting the at least one flap , characterized in that an upper section of filter material which is fixed to the at least one flap is pivoted along with the flap .
A liquid ejecting apparatus comprising: a liquid ejecting head having N nozzle line groups (Ch1, Ch2, Ch3, Ch4), N being an integer of three or more, arranged in a first direction (D1) each of which includes at least one nozzle line (NL) having a plurality of nozzles (Nz) which eject liquid on a medium (P); a main scanning section configured to move the liquid ejecting head in a second direction (D2) which intersects with the first direction (D1) for scanning; a selection section configured to select a set of use nozzle lines (NL) to be used for formation of dots on the medium (P) from among the N nozzle line groups (Ch1, Ch2, Ch3, Ch4); and an ejection controller configured to control the liquid ejecting head to form the dots by ejecting the liquid from the nozzles (Nz) included in the set of use nozzle lines (NL) selected by the selection section , characterised in that the selection section selects M groups among the N nozzle line groups (Ch1, Ch2, Ch3, Ch4) which are consecutively adjacent to each other in the first direction (D1) as the set of use nozzle lines (NL), M being equal to or larger than two and smaller than N. a liquid ejecting head having N nozzle line groups (Ch1, Ch2, Ch3, Ch4), N being an integer of three or more, arranged in a first direction (D1) each of which includes at least one nozzle line (NL) having a plurality of nozzles (Nz) which eject liquid on a medium (P); a main scanning section configured to move the liquid ejecting head in a second direction (D2) which intersects with the first direction (D1) for scanning; a selection section configured to select a set of use nozzle lines (NL) to be used for formation of dots on the medium (P) from among the N nozzle line groups (Ch1, Ch2, Ch3, Ch4); and an ejection controller configured to control the liquid ejecting head to form the dots by ejecting the liquid from the nozzles (Nz) included in the set of use nozzle lines (NL) selected by the selection section , characterised in that the selection section selects M groups among the N nozzle line groups (Ch1, Ch2, Ch3, Ch4) which are consecutively adjacent to each other in the first direction (D1) as the set of use nozzle lines (NL), M being equal to or larger than two and smaller than N.
A method for melting and solidification of a scintillating material in micromechanical structures, wherein the method includes controlling the melting and solidification of the scintillating material by individually controlled heat sources, a top heater and a bottom heater , placed above and below a process chamber , which includes a sample with the micromechanical structures and the scintillating material, wherein the heaters are controlled to set a vertical temperature gradient over the sample to control the melting and solidification of the scintillating material: wherein, during the melting process, the top heater is ramped up and stabilized at a temperature where no melting occurs and the bottom heater is ramped up and stabilized at a temperature where melting occurs during a period of time while the scintillating material melts and flows into the micromechanical structures, and wherein, during the solidification phase, the temperature of the bottom heater is ramped down to enable solidification to take place starting from the bottom of the micromechanical structures. wherein, during the melting process, the top heater is ramped up and stabilized at a temperature where no melting occurs and the bottom heater is ramped up and stabilized at a temperature where melting occurs during a period of time while the scintillating material melts and flows into the micromechanical structures, and wherein, during the solidification phase, the temperature of the bottom heater is ramped down to enable solidification to take place starting from the bottom of the micromechanical structures.