mhurhangee/ep-ind-claims huggingface dataset:
A system for controlling multiple solar surfaces comprising: a track for setting a pre-determined path; a first solar surface of the multiple solar surfaces coupled to a first end of a first support structure, wherein a second end of said first support structure is attached adjacent to a first position of said track and said first support structure includes a first position locking mechanism; a second solar surface of the multiple solar surfaces coupled to a first end of a second support structure, wherein a second end of said second support structure is attached adjacent to a second position of said track and said second support structure includes a second position locking mechanism; and characterized by a robotic controller, including a drive system for moving said robotic controller on said track and to modify a direction of said first solar surface when said robotic controller is positioned near said first position of said track, and to modify a direction of said second solar surface when said robotic controller is positioned near said second position of said track. a track for setting a pre-determined path; a first solar surface of the multiple solar surfaces coupled to a first end of a first support structure, wherein a second end of said first support structure is attached adjacent to a first position of said track and said first support structure includes a first position locking mechanism; a second solar surface of the multiple solar surfaces coupled to a first end of a second support structure, wherein a second end of said second support structure is attached adjacent to a second position of said track and said second support structure includes a second position locking mechanism; and characterized by a robotic controller, including a drive system for moving said robotic controller on said track and to modify a direction of said first solar surface when said robotic controller is positioned near said first position of said track, and to modify a direction of said second solar surface when said robotic controller is positioned near said second position of said track.
An image printing method, comprising: applying a first processing fluid containing a multivalent metal salt to a predetermined region of a print medium; and applying a second processing fluid containing a resin emulsion containing an anionic functional group to the predetermined region of the print medium to which the first processing fluid is applied and any other region of the print medium to which the first processing fluid is not applied, wherein the area ratio of the predetermined region is 1% or greater but 95% or less relative to the entire print medium, the method further comprising, after the applying the first processing fluid, applying an ink containing a coloring material to the predetermined region of the print medium to which the first processing fluid is applied and the any other region of the print medium to which the first processing fluid is not applied. applying a first processing fluid containing a multivalent metal salt to a predetermined region of a print medium; and applying a second processing fluid containing a resin emulsion containing an anionic functional group to the predetermined region of the print medium to which the first processing fluid is applied and any other region of the print medium to which the first processing fluid is not applied, wherein the area ratio of the predetermined region is 1% or greater but 95% or less relative to the entire print medium, the method further comprising, after the applying the first processing fluid, applying an ink containing a coloring material to the predetermined region of the print medium to which the first processing fluid is applied and the any other region of the print medium to which the first processing fluid is not applied.
Ski- or trekking-pole composed of at least one stem interposed between at least one handle and at least one ring placed at the two opposite ends of said stem, comprising at least one harvester device for generating electric current composed of: - at least one moving magnetic element sliding along at least one sliding guide; ed - at least one first winding made of electrically conductive material adapted to concatenate a magnetic field of said moving magnetic element sliding along said sliding guide; characterised in that it further comprises: - at least one fixed magnetic element arranged in the vertically lower end of said sliding guide, said fixed magnetic element and said moving magnetic element sliding along said sliding guide being mutually oriented in such a way as to oppose the two faces with the same polarity in order to generate a magnetic repulsion force which is contrasted only by the force of gravity applied by the moving magnetic element and is capable of pushing the moving magnetic element upwards along a length of said sliding guide which is much greater than the distance between said fixed magnetic element and said moving magnetic element. - at least one moving magnetic element sliding along at least one sliding guide; ed - at least one first winding made of electrically conductive material adapted to concatenate a magnetic field of said moving magnetic element sliding along said sliding guide; - at least one fixed magnetic element arranged in the vertically lower end of said sliding guide, said fixed magnetic element and said moving magnetic element sliding along said sliding guide being mutually oriented in such a way as to oppose the two faces with the same polarity in order to generate a magnetic repulsion force which is contrasted only by the force of gravity applied by the moving magnetic element and is capable of pushing the moving magnetic element upwards along a length of said sliding guide which is much greater than the distance between said fixed magnetic element and said moving magnetic element.
An air conditioner, comprising: a fan, including a short-air discharge distance fan assembly and a long-air discharge distance fan assembly, for discharging air; a cabinet assembly defining a suction inlet and a discharge outlet (301, 302); a compressor; a water tank disposed within the cabinet assembly and configured to store water; a steam generator disposed within the cabinet assembly and configured to receive the water stored in the water tank, wherein the steam generation converts the stored water into steam to produce humidified air; a humidification fan coupled to the steam generator and for supplying filtered air to the steam generator; and a controller (3240, 3310) configured to control an operation of the air conditioner, wherein, in a smart care mode, the controller (3240, 3310) is configured to control operation of the steam generator during a heating operation and controlling the compressor and the fan (300, 400) thereby discharging the humidified air together with heat-exchanged air to continuously adjust a temperature and humidity, wherein, during a steam sterilization operation, the controller (3240, 3310) is configured to operate a heater of the steam generator to generate the humidified air, and operate the humidification fan, wherein a rotation speed of the humidification fan during the steam sterilization operation is lower than the rotation speed of the humidification fan in the smart care mode. a fan, including a short-air discharge distance fan assembly and a long-air discharge distance fan assembly, for discharging air; a cabinet assembly defining a suction inlet and a discharge outlet (301, 302); a compressor; a water tank disposed within the cabinet assembly and configured to store water; a steam generator disposed within the cabinet assembly and configured to receive the water stored in the water tank, wherein the steam generation converts the stored water into steam to produce humidified air; a humidification fan coupled to the steam generator and for supplying filtered air to the steam generator; and a controller (3240, 3310) configured to control an operation of the air conditioner, wherein, in a smart care mode, the controller (3240, 3310) is configured to control operation of the steam generator during a heating operation and controlling the compressor and the fan (300, 400) thereby discharging the humidified air together with heat-exchanged air to continuously adjust a temperature and humidity, wherein, during a steam sterilization operation, the controller (3240, 3310) is configured to operate a heater of the steam generator to generate the humidified air, and operate the humidification fan, wherein a rotation speed of the humidification fan during the steam sterilization operation is lower than the rotation speed of the humidification fan in the smart care mode.
A riveting tool chuck, including a cylindrical handle(i), which is provided with a rotating part through the cylindrical handle, the rotating part is positioned axially and rotatably circumferentially connected to the cylindrical handle(i); and a transmission part that is circumferentially positioned and axially movably connected to the cylindrical handle(i), wherein the rotating part and the transmission part are connected by a threaded structure, and a plurality of claws distributed in the circumferential direction and a limiting structure capable of preventing the claws from being detached are arranged at the front end of the transmission part, wherein the front end of the cylindrical handle(i) is provided with a cylindrical guiding nozzle making the front end of each claw against the rear end thereof, and between the front end of the transmission part and the rear end of each claw are provided with a claw top column, the transmission part can push the limiting structure to move forward axially so that the claws are radially separated under the cooperation of the claw top column and the cylindrical guiding nozzle when the rotating part is reversed, and the transmission part can drive the limiting structure to move axially backwards so that the claws are radially gathered and continue to move axially backwards when the rotating part rotates forward, characterised in that the riveting tool chuck further comprises a safety valve mechanism enabling the threaded structure to have a screw pair pre-loading force, said safety valve mechanism being arranged between the claw top column and the transmission part, and the safety valve mechanism being configured to enable, in use, the screw pair conversion of the threaded structure to be performed before the axial reaction force between the front end of each claw and the rear end of the cylindrical guiding nozzle is reduced to zero during the forward rotation of the rotating part, thereby avoiding the idle return stroke of the thread structure.
Helmet comprising: - a cap; - a visor configured to be coupled in a removable manner to said cap in at least one coupling region of said cap about an axis of rotation; wherein said helmet further comprises a covering device able to cover said coupling region and comprising a constraining or coupling portion and a head portion; and wherein said covering device is configured to be coupled in said coupling region in a removable manner to said cap by means of said constraining or coupling portion and to assume at least a first constraining or coupling position and a second constraining or coupling position; and wherein in said first constraining position said head portion is constrained in a first spatial relationship with respect to said cap and wherein in said second constraining position said head portion is constrained in a second spatial relationship with respect to said cap; and wherein in said second spatial relationship said head portion is closer to said cap along said axis of rotation than in said first spatial relationship; and wherein said covering device is configured to be uncoupled from or coupled in a removable manner to said cap by means of a rototranslational movement; and characterized in that said head portion of said covering device is configured so that it can be deformed in an elastic manner to allow a translation of said constraining or coupling portion during said rototranslational movement. - a cap; - a visor configured to be coupled in a removable manner to said cap in at least one coupling region of said cap about an axis of rotation; wherein said helmet further comprises a covering device able to cover said coupling region and comprising a constraining or coupling portion and a head portion; and wherein said covering device is configured to be coupled in said coupling region in a removable manner to said cap by means of said constraining or coupling portion and to assume at least a first constraining or coupling position and a second constraining or coupling position; and wherein in said first constraining position said head portion is constrained in a first spatial relationship with respect to said cap and wherein in said second constraining position said head portion is constrained in a second spatial relationship with respect to said cap; and wherein in said second spatial relationship said head portion is closer to said cap along said axis of rotation than in said first spatial relationship; and wherein said covering device is configured to be uncoupled from or coupled in a removable manner to said cap by means of a rototranslational movement; and characterized in that said head portion of said covering device is configured so that it can be deformed in an elastic manner to allow a translation of said constraining or coupling portion during said rototranslational movement.
A video source access method, comprising: acquiring an address identifier of a video source supporting a certain format, wherein the video source comprises video data in a format carrying a timestamp; acquiring, based on the address identifier, the video data in an ascending order of the timestamp carried in the video data; converting the video data from the format into a preset common video format to obtain the video data in the common video format; and inputting the video data in the common video format to a service device to achieve an access to the video source, wherein the service device is configured to store and manage the video data in the common video format, and provide, when a content distribution network server receives a video request from a user, the video data in the common video format to the user via the content distribution network server. acquiring an address identifier of a video source supporting a certain format, wherein the video source comprises video data in a format carrying a timestamp; acquiring, based on the address identifier, the video data in an ascending order of the timestamp carried in the video data; converting the video data from the format into a preset common video format to obtain the video data in the common video format; and inputting the video data in the common video format to a service device to achieve an access to the video source, wherein the service device is configured to store and manage the video data in the common video format, and provide, when a content distribution network server receives a video request from a user, the video data in the common video format to the user via the content distribution network server.
An ex-vivo perfusion solution for machine perfusion of donor lungs at physiologic or near physiologic conditions to permit normal cellular metabolism in the lungs, the solution comprising: an energy-rich perfusion nutrient, wherein the energy-rich perfusion nutrient includes glucose monohydrate in an amount of 1.7 g to 2.3 g in 1 liter of the perfusion solution, sodium chloride in an amount of 6.8 g to 9.2 g in 1 liter of the perfusion solution, potassium chloride in an amount of 0.34 g to 0.46 g in 1 liter of the perfusion solution, and a multi-vitamin in an amount of 1 unit vial in 1 liter of the perfusion solution, a colloid, wherein the colloid includes dextran 40 in an amount of 42.5 g to 57.5 g in 1 liter of the perfusion solution, a hormone, wherein the hormone includes insulin in an amount of 17 IU to 23 IU in 1 liter of the perfusion solution, a steroid, wherein the steroid includes methylprednisolone, a buffer, wherein the buffer includes disodium phosphate anhydrate in an amount of 0.039 g to 0.052 g in 1 liter of the perfusion solution, monopotassium phosphate in an amount of 0.053 g to 0.072 g in 1 liter of the perfusion solution and sodium bicarbonate in an amount of 12.75 mEq to 17.25 mEq in 1 liter of the perfusion solution, magnesium sulfate anhydrate in an amount of 0.083 g to 0.1127 g in 1 liter of the perfusion solution, an adenosine-3',5'-cyclic monophosphate (cAMP) selective phosphodiesterase type III (PDE III) inhibitor, which inhibitor comprises milrinone in an amount of 3400 mcg to 4600 mcg in 1 liter of the perfusion solution, and nitroglycerin in an amount of 10 mg to 50 mg in 1 liter of the perfusion solution. an energy-rich perfusion nutrient, wherein the energy-rich perfusion nutrient includes glucose monohydrate in an amount of 1.7 g to 2.3 g in 1 liter of the perfusion solution, sodium chloride in an amount of 6.8 g to 9.2 g in 1 liter of the perfusion solution, potassium chloride in an amount of 0.34 g to 0.46 g in 1 liter of the perfusion solution, and a multi-vitamin in an amount of 1 unit vial in 1 liter of the perfusion solution, a colloid, wherein the colloid includes dextran 40 in an amount of 42.5 g to 57.5 g in 1 liter of the perfusion solution, a hormone, wherein the hormone includes insulin in an amount of 17 IU to 23 IU in 1 liter of the perfusion solution, a steroid, wherein the steroid includes methylprednisolone, a buffer, wherein the buffer includes disodium phosphate anhydrate in an amount of 0.039 g to 0.052 g in 1 liter of the perfusion solution, monopotassium phosphate in an amount of 0.053 g to 0.072 g in 1 liter of the perfusion solution and sodium bicarbonate in an amount of 12.75 mEq to 17.25 mEq in 1 liter of the perfusion solution, magnesium sulfate anhydrate in an amount of 0.083 g to 0.1127 g in 1 liter of the perfusion solution, an adenosine-3',5'-cyclic monophosphate (cAMP) selective phosphodiesterase type III (PDE III) inhibitor, which inhibitor comprises milrinone in an amount of 3400 mcg to 4600 mcg in 1 liter of the perfusion solution, and nitroglycerin in an amount of 10 mg to 50 mg in 1 liter of the perfusion solution.
An oligonucleotide molecule comprising, from 5' to 3', an amplification segment, a hybridization segment, and a reversibly terminating nucleotide, wherein the amplification segment is an RNA polymerase promoter.
Fixing arrangement having an anchoring substrate, an insulation sheet, and an insulation fixing plug for fixing the insulation sheet to the anchoring substrate, wherein the insulation fixing plug has an expansion portion, which is arranged to be expanded by means of an expander element for anchoring in a hole drilled in the anchoring substrate, having a holding element for holding the insulation sheet, and having a longitudinal compression region (9, 109, 209), which is arranged between the expansion portion and the holding element and which is arranged to be longitudinally compressed when the expander element is driven in, as a result of which the spacing between the expansion portion and the holding element is reduced, wherein there are arranged in the longitudinal compression region bridging members (10, 110, 210, 11, 111, 211) which form a network of meshes (12, 112, 212) in which the meshes (12, 112, 212) surround openings (13, 113, 213), characterised in that the insulation fixing plug is so constructed that during longitudinal compression the longitudinal compression region (9, 109, 209) is located in the region of the insulation sheet and the bridging members (10, 110, 210, 11, 111, 211) during longitudinal compression yield and/or buckle out from their initial position, become twisted and are displaced against and over one another and are moved so that they close the openings (13, 113, 213) so that the longitudinally compressed longitudinal compression region (9, 109, 209) in a final position forms a sleeve, in which the area of the openings (13, 113, 213) remaining is a maximum of 10 % of the envelope surface of the non-longitudinally-compressed longitudinal compression region (9, 109, 209).
An image sensor, comprising: an array of sensor pixels (300, 400), having columns and rows, wherein each discrete pixel that makes up said array of sensor pixels further comprises; a photosensitive region configured to detect an image, a region configured to integrate and store said image, and circuitry for providing a pair of identical output signals from each of said discrete pixels that makes up said array of sensor pixels (207-210; 307-310; 406, 408-410, 421, 422), the image sensor further comprising: a plurality of column circuits (213, 313, 413, 502) configured one per each column in said image sensor and further configured to sum one of said pair of identical signals generated in a particular discrete pixel with said signal from each of a group of selected said discrete pixels in a common column for each imager column into a summed column data signal; and a plurality of row circuits (216, 317, 417, 503) configured one per each row in said image sensor and further configured to sum a second of said pair of identical signals generated in said particular discrete pixel with said signal from each of a group of selected said discrete pixels in a common row for each imager row into a summed row data signal. an array of sensor pixels (300, 400), having columns and rows, wherein each discrete pixel that makes up said array of sensor pixels further comprises; a photosensitive region configured to detect an image, a region configured to integrate and store said image, and circuitry for providing a pair of identical output signals from each of said discrete pixels that makes up said array of sensor pixels (207-210; 307-310; 406, 408-410, 421, 422), a plurality of column circuits (213, 313, 413, 502) configured one per each column in said image sensor and further configured to sum one of said pair of identical signals generated in a particular discrete pixel with said signal from each of a group of selected said discrete pixels in a common column for each imager column into a summed column data signal; and a plurality of row circuits (216, 317, 417, 503) configured one per each row in said image sensor and further configured to sum a second of said pair of identical signals generated in said particular discrete pixel with said signal from each of a group of selected said discrete pixels in a common row for each imager row into a summed row data signal.
A heat sink comprising: - an extruded hollow body, having at least one flat outer surface between a first and a second end, and said body comprising at least one elongated internal cavity passing through the body from the first to the second end, - said hollow body including a plurality of parallel fins directed into and along said at least one cavity, - a lid attached at both ends of the hollow body for forming a liquid cooling system, characterized by - an insert housed in said at least one cavity connecting the tops of the fins in a fluid-tight manner thereby forming liquid channels (20, 22) for a coolant liquid between the insert and the hollow body. - an extruded hollow body, having at least one flat outer surface between a first and a second end, and said body comprising at least one elongated internal cavity passing through the body from the first to the second end, - said hollow body including a plurality of parallel fins directed into and along said at least one cavity, - a lid attached at both ends of the hollow body for forming a liquid cooling system, characterized by - an insert housed in said at least one cavity connecting the tops of the fins in a fluid-tight manner thereby forming liquid channels (20, 22) for a coolant liquid between the insert and the hollow body.