Abstract: This disclosure provides a heat conduction structure and a heat dissipation device. The heat dissipation device includes the heat conduction structure and a heat conductor. The heat-absorbing side of the heat conducting base is recessed with an accommodating slot. The heat diffusion plate is movably disposed in the accommodating slot and includes an inner conducting surface, an outer conducting surface, and an anti-vibration surface. The anti-vibration surface is connected to the inner conducting surface and the outer conducting surface, and a lateral gap is reserved between the anti-vibration surface and an inner wall surface of the accommodating slot. The thermal interface material is filled in the lateral gap to have the anti-vibration effect and avoid damage caused by an external vibration for maintaining the normal operation and reliability of the system.

Abstract: A heat dissipation module with a shock resisting effect is provided. The heat dissipation module includes a heat absorbing unit, a heat dissipating unit and at least one flexible heat conducting bundle. The heat absorbing unit has a first installing surface. The heat dissipating unit is disposed corresponding to the heat absorbing unit and has a second installing surface facing the first installing surface. The flexible heat conducting bundle is connected between the first installing surface and the second installing surface, and used for transferring heat of the heat absorbing unit to the heat dissipating unit to dissipate the heat. Accordingly, the heat dissipation module is provided with a flexible stretching function and a shock resisting effect.

Abstract: A tool and associated functionality are described for efficiently obtaining information regarding local goods and services as well as making associated arrangements. The tool includes a system (100) for accessing and using a Wi-Fi hotspot (102). The hotspot (102) allows a user device (104) to access portals (116) of a network (114), such as the Internet, via a gateway (106) of the hotspot (102). The tool then monitors (204) the operation of the user device (104) to identify a condition that indicates a captive portal issue. In response, the tool transmits (208) a trip message to the gateway (106). The user device (104) then receives a challenge from the gateway. Once the challenge has been satisfied, the tool establishes a connection to a network portal (116). The tool may access the portal (116) to download local information such as search results, mapping information, or the like.

Abstract: The present disclosure relates to complexes comprising caffeine and tannic acid as well as emulsions and beverages comprising these complexes which slow the release of the caffeine. Also described are methods of preparing the complexes and emulsions and beverages comprising caffeine-tannic acid complexes.

Abstract: The present disclosure relates to colloids comprising caffeine-tannic acid complexes which slow the release of the caffeine. Also described are methods of preparing the colloids and beverages comprising colloids comprising caffeine-tannic acid complexes.

Abstract: A structure of heat pipe with adjustable working temperature range are provided. The heat pipe includes a tube, a capillary structure and a working liquid. The tube includes a passage having a length direction and a diameter direction. Besides, a part of the tube has a pressed deformation zone in the pipe diameter direction, and the pressed cross-sectional area of the deformation zone in the diameter direction is reduced by a reduction ratio with respect to an original cross-sectional area before pressing, so that the deformation zone has a higher fluid resistance. Thereby, the heat pipe can be operated under a certain working temperature range, and the working object can achieve the working efficiency.

Abstract: A manufacturing method and structure of heat pipe with adjustable working temperature range are provided. The heat pipe includes a tube, a capillary structure and a working liquid. The tube includes a passage having a length direction and a diameter direction. Besides, a part of the tube has a pressed deformation zone in the pipe diameter direction, and the pressed cross-sectional area of the deformation zone in the diameter direction is reduced by a reduction ratio with respect to an original cross-sectional area before pressing, so that the deformation zone has a higher fluid resistance. Thereby, the heat pipe can be operated under a certain working temperature range, and the working object can achieve the working efficiency.

Abstract: A heat pipe with a non-condensable gas includes a thermal conductor, and a working fluid and a non-condensable gas filled into a hollow chamber of the thermal conductor, and the thermal conductor has a heat-absorbing side attached to a heat-generating electronic component and an exothermal side attached to a radiator, and the exothermal side has at least one protrusion, and the exothermal side with the protrusion can reduce the contact area with the radiator, and the heat pipe lowers the conduction efficiency by the non-condensable gas and the protrusion, so as to achieve a work efficiency of the heat-generating electronic component in an operation within a working temperature range.

Abstract: A manufacturing method and structure of heat pipe with adjustable working temperature range are provided. The heat pipe includes a tube, a capillary structure and a working liquid. The tube includes a passage having a length direction and a diameter direction. Besides, a part of the tube has a pressed deformation zone in the pipe diameter direction, and the pressed cross-sectional area of the deformation zone in the diameter direction is reduced by a reduction ratio with respect to an original cross-sectional area before pressing, so that the deformation zone has a higher fluid resistance. Thereby, the heat pipe can be operated under a certain working temperature range, and the working object can achieve the working efficiency.

Abstract: The present disclosure is a method and system for the processing of ore and ore tailings to recover metals, minerals and rare earth elements, and more particularly to a method and system for treating the ore and ore tailings using a closed loop chlorine gas oxidant treatment system using an electrochemical cell and the co-addition of an additional oxidizer such as chloric acid to enhance the dissolution of the metals from the ore which is then further processed to separate and recover the metals.

Abstract: A heat pipe with a non-condensable gas includes a thermal conductor, and a working fluid and a non-condensable gas filled into a hollow chamber of the thermal conductor, and the thermal conductor has a heat-absorbing side attached to a heat-generating electronic component and an exothermal side attached to a radiator, and the exothermal side has at least one protrusion, and the exothermal side with the protrusion can reduce the contact area with the radiator, and the heat pipe lowers the conduction efficiency by the non-condensable gas and the protrusion, so as to achieve a work efficiency of the heat-generating electronic component in an operation within a working temperature range.

Abstract: A heat pipe with a non-condensable gas includes a thermal conductor, and a working fluid and a non-condensable gas filled into a hollow chamber of the thermal conductor, and the thermal conductor has a heat-absorbing side attached to a heat-generating electronic component and an exothermal side attached to a radiator, and the exothermal side has at least one protrusion, and the exothermal side with the protrusion can reduce the contact area with the radiator, and the heat pipe lowers the conduction efficiency by the non-condensable gas and the protrusion, so as to achieve a work efficiency of the heat-generating electronic component in an operation within a working temperature range.

Abstract: A heat pipe with a non-condensable gas includes a thermal conductor, and a working fluid and a non-condensable gas filled into a hollow chamber of the thermal conductor, and the thermal conductor has a heat-absorbing side attached to a heat-generating electronic component and an exothermal side attached to a radiator, and the exothermal side has at least one protrusion, and the exothermal side with the protrusion can reduce the contact area with the radiator, and the heat pipe lowers the conduction efficiency by the non-condensable gas and the protrusion, so as to achieve a work efficiency of the heat-generating electronic component in an operation within a working temperature range.

Abstract: A heat sink of a metallic shielding structure is provided in this disclosure, which includes a heating module and a cooling module. The heating module includes a heat generating component, a substrate, and a shield housing. The heat generating component is electrically connected to one side surface of the substrate and forms an opening corresponding the substrate. The cooling module includes a body and a working fluid is disposed in the body.

Abstract: A heat sink of a metallic shielding structure is provided in this disclosure, which includes a heating module and a cooling module. The heating module includes a heat generating component, a substrate, and a shield housing. The heat generating component is electrically connected to one side surface of the substrate and forms an opening corresponding the substrate. The cooling module includes a body and a working fluid is disposed in the body.

Abstract: A vapor chamber structure includes an extruded aluminum case having a bottom plate and plural first separating units, an extruded aluminum cover combined with the extruded aluminum case correspondingly and having a top plate and plural second separating units, and a working fluid filled in an interior formed by the extruded aluminum case and the extruded aluminum cover. Each first separating unit includes plural first fins. A first groove is disposed between adjacent first fins. Each second separating unit includes plural second fins. A second groove is disposed between adjacent second fins. Each second separating unit is disposed between adjacent first separating units. The first grooves are individually interlaced with the adjacent second grooves. Thus, the heat exchange between the vaporized working fluid and the gas in adjacent grooves can be performed, which improves the efficiency of heat transfer.

Abstract: A magnetic resonance imaging (MRT) method for jointly estimating an image degradation and reconstructing an image of a subject in which that image degradation is mitigated is provided. The MRI system is operated to acquire multiple different k-space data sets that are acquired with different acquisition parameters so as to modulate the image degradation to be estimated. Using an iterative process, the image degradation is estimated while jointly reconstructing an image in which the estimated image degradation is mitigated.

Abstract: The present disclosure relates to a weather resistant wooden door and methods for manufacturing and assembling the weather resistant wooden door. The weather resistant wooden door includes at least two stiles, a bottom rail, and a top rail configured to form the door assembly. A moisture resistant overlay is attached to either the aforementioned door components before assembly into a door or to the door assembly itself. The overlay is bonded to the underlying member by placing the overlay and member into a press where the pressure in the press is elevated for a predetermined amount of time. The overlay inhibits the infiltration of moisture from the environment.

Abstract: A magnetic resonance imaging (MRT) method for jointly estimating an image degradation and reconstructing an image of a subject in which that image degradation is mitigated is provided. The MRI system is operated to acquire multiple different k-space data sets that are acquired with different acquisition parameters so as to modulate the image degradation to be estimated. Using an iterative process, the image degradation is estimated while jointly reconstructing an image in which the estimated image degradation is mitigated.