Heat dissipater with axial and radial air aperture and application device thereof

BACKGROUND OF THE INVENTION

(a) Field of the Invention

The present invention provides an electric luminous body having a heat dissipater with axial and radial air apertures for meeting the heat dissipation requirement of an electric illumination device, e.g. utilizing a light emitting diode (LED) as an electric luminous body, so the heat generated by the electric illumination device cannot only be dissipated to the exterior through the surface of the heat dissipater, but also enabled to be further dissipated by the air flowing capable of assisting heat dissipation through the hot airflow in a heat dissipater (101) with axial and radial air apertures generating a hot ascent/cold descent effect for introducing airflow from an air inlet port formed near a light projection side to pass an axial tubular flowpath (102) then be discharged from a radial air outlet hole (107) formed near a connection side (104) of the heat dissipater (101) with axial and radial air apertures.

(b) Description of the Prior Art

A conventional heat dissipation device used in an electric luminous body of an electric illumination device, e.g. a heat dissipater of a LED illumination device, generally transmits heat generated by the LED to the heat dissipater for discharging the heat to the exterior through the surface of the heat dissipater, and said conventional heat dissipater is not equipped with functions of utilizing the airflow introduced from an air inlet port to pass an inner heat dissipation surface formed by an axial hole then discharged by a radial air outlet for the purpose of increasing the effect of externally dissipating heat from the interior of the heat dissipater. The present invention is provided with a heat dissipater (101) with axial and radial air apertures in which an axial tubular flowpath (102) is formed for structuring an axial hole, so heat generated by an electric luminous body installed at a light projection side (103) of the heat dissipater (101) with axial and radial air apertures cannot only be dissipated to the exterior through the surface of the heat dissipater, but also enabled to be further dissipated by the air flowing capable of assisting the heat being dissipated from the interior of the heat dissipater to the exterior through the hot airflow in the heat dissipater (101) with axial and radial air apertures generating a hot ascent/cold descent effect for introducing airflow from an air inlet port of the axial hole structured by the axial tubular flowpath (102) and formed near a light projection side then be discharged from a radial air outlet hole (107) formed near a connection side (104) of the heat dissipater (101) with axial and radial air apertures.

SUMMARY OF THE INVENTION

A conventional heat dissipation device used in an electric luminous body of an electric illumination device, e.g. a heat dissipater of a LED illumination device, generally transmits heat generated by the LED to the heat dissipater for discharging the heat to the exterior through the surface of the heat dissipater, and said conventional heat dissipater is not equipped with functions of utilizing the airflow introduced from an air inlet port to pass an inner heat dissipation surface formed by an axial hole then discharged by a radial air outlet for the purpose of increasing the effect of externally dissipating heat from the interior of the heat dissipater. The present invention provides an electric luminous body having a heat dissipater with axial and radial air apertures for meeting the heat dissipation requirement of an electric illumination device, e.g. utilizing a light emitting diode (LED) as an electric luminous body, the interior of the heat dissipater (101) with axial and radial air apertures is formed with an axial tubular flowpath (102) for structuring an axial hole, so heat generated by an electric luminous body installed at a light projection side (103) of the heat dissipater (101) with axial and radial air apertures cannot only be dissipated to the exterior through the surface of the heat dissipater, but also enabled to be further dissipated by the air flowing capable of assisting the heat being dissipated from the interior of the heat dissipater to the exterior through the hot airflow in the heat dissipater (101) with axial and radial air apertures generating a hot ascent/cold descent effect for introducing airflow from an air inlet port of the axial hole structured by the axial tubular flowpath (102) and formed near a light projection side then be discharged from a radial air outlet hole (107) formed near a connection side (104) of the heat dissipater (101) with axial and radial air apertures, thereby assisting the hot airflow inside the heat dissipater (101) with axial and radial air apertures to be dissipated to the exterior.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic view showing the basic structure and operation of the present invention.

FIG. 2 is a cross sectional view of FIG. 1 taken from A-A cross section.

FIG. 3 is a schematic structural view illustrating an electric luminous body being installed at the center of the end surface of a light projection side of the heat dissipater (101) with axial and radial air apertures, and a radial air inlet port (108) being formed near the outer periphery of the light projection side, according to one embodiment of the present invention;

FIG. 4 is a top view of FIG. 3.

FIG. 5 is a schematic structural view illustrating the electric luminous body being annularly installed near the outer periphery of the light projection side of the heat dissipater (101) with axial and radial air apertures, and being formed with a central axial air inlet port (109), according to one embodiment of the present invention;

FIG. 6 is a top view of FIG. 5.

FIG. 7 is a schematic structural view illustrating the electric luminous body being annularly installed near the inner periphery of the light projection side of the heat dissipater (101) with axial and radial air apertures, and being formed with a central axial air inlet port (109), according to one embodiment of the present invention;

FIG. 8 is a top view of FIG. 7.

FIG. 9 is a schematic structural view illustrating the electric luminous body being installed at the center of the end surface of the light projection side of the heat dissipater (101) with axial and radial air apertures, and the light projection side being formed with an air inlet port (110) annularly arranged near the periphery of axial end surface, according to one embodiment of the present invention;

FIG. 10 is a top view of FIG. 9.

FIG. 11 is a schematic structural view illustrating the electric luminous body downwardly projecting light and being annularly installed at the light projection side of the heat dissipater (101) with axial and radial air apertures, and being formed with a central axial air inlet port (109), according to one embodiment of the present invention;

FIG. 12 is a top view of FIG. 11.

FIG. 13 is a schematic structural view illustrating the electric luminous body downwardly projecting light in a multiple circular manner and being annularly installed at the light projection side of the heat dissipater (101) with axial and radial air apertures, and being formed with a central axial air inlet port (109), according to one embodiment of the present invention;

FIG. 14 is a top view of FIG. 13.

FIG. 15 is a schematic structural view illustrating the electric luminous body downwardly projecting light in a multiple circular manner and being annularly installed at the light projection side of the heat dissipater (101) with axial and radial air apertures, and being formed with an air inlet port (110) annularly arranged near the periphery of axial end surface and formed with a central axial air inlet port (109) at the periphery of the light projection side or between the electric luminous body downwardly projecting light in a multiple circular manner and annularly installed, according to one embodiment of the present invention;

FIG. 16 is a bottom view of FIG. 15.

FIG. 17 is a schematic structural view illustrating the embodiment disclosed in FIG. 3 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 18 is a bottom view of FIG. 17.

FIG. 19 is a schematic structural view illustrating the embodiment disclosed in FIG. 5 being applied in the heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 20 is a bottom view of FIG. 19.

FIG. 21 is a schematic structural view illustrating the embodiment disclosed in FIG. 7 being applied in the heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 22 is a bottom view of FIG. 21.

FIG. 23 is a schematic structural view illustrating the embodiment disclosed in FIG. 9 being applied in the heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 24 is a bottom view of FIG. 23.

FIG. 25 is a schematic structural view illustrating the embodiment disclosed in FIG. 11 being applied in the heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 26 is a bottom view of FIG. 25.

FIG. 27 is a schematic structural view illustrating the embodiment disclosed in FIG. 13 being applied in the heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 28 is a bottom view of FIG. 27.

FIG. 29 is a schematic structural view illustrating the embodiment disclosed in FIG. 15 being applied in the heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention.

FIG. 30 is a bottom view of FIG. 29.

FIG. 31 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as an oval hole, according to one embodiment of the present invention.

FIG. 32 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a triangular hole, according to one embodiment of the present invention.

FIG. 33 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a rectangular hole, according to one embodiment of the present invention.

FIG. 34 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a pentagonal hole, according to one embodiment of the present invention.

FIG. 35 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a hexagonal hole, according to one embodiment of the present invention.

FIG. 36 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a U-shaped hole, according to one embodiment of the present invention.

FIG. 37 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a singular-slot hole with dual open ends, according to one embodiment of the present invention.

FIG. 38 is a schematic view illustrating the axial A-A cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a multiple-slot hole with dual open ends, according to one embodiment of the present invention.

FIG. 39 is a schematic view illustrating the axial B-B cross section of the axial tubular flowpath (102) shown in FIG. 1 being formed as a heat dissipation fin structure (200), according to one embodiment of the present invention.

FIG. 40 is a schematic view showing the heat dissipater (101) with axial and radial air aperture being formed as a porous structure, according to one embodiment of the present invention.

FIG. 41 is a schematic view showing the heat dissipater (101) with axial and radial air aperture being formed as a net-shaped structure, according to one embodiment of the present invention.

FIG. 42 is a schematic structural view illustrating a flow guide conical member (301) being formed at the inner top of the heat dissipater (101) with axial and radial air apertures and facing the axial direction of the light projection side (103), according to one embodiment of the present invention;

FIG. 43 is a schematic structural view illustrating a flow guide conical member (302) being formed on the side of the axially-fixed and electric-conductive interface (114) connected to the heat dissipater (101) with axial and radial air apertures and facing the axially direction of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures, according to one embodiment of the present invention;

FIG. 44 is a schematic view illustrating an electric motor driven fan (400) being provided in the interior, according to one embodiment of the present invention.

DESCRIPTION OF MAIN COMPONENT SYMBOLS

(101): heat dissipater with axial and radial air aperture

(102): axial tubular flowpath

(103): light projection side

(104): connection side

(105): external heat dissipation surface

(106): internal heat dissipation surface

(107): radial air outlet hole

(108): radial air inlet port

(109): central axial air inlet port

(110): air inlet port annularly arranged near the periphery of axial end

surface

(111): light emitting diode

(112): secondary optical device

(113): light-pervious lampshade

(114): axially-fixed and electric-conductive interface

(115): radially-fixed and electric-conductive interface

(116): top cover member

(200): heat dissipation fin structure

(301), (302): flow guide conical member

(400): electric motor driven fan

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

The present invention provides an heat dissipater with axial and radial air aperture and application device thereofelectric luminous body having a heat dissipater with axial and radial air apertures for meeting the heat dissipation requirement of an electric illumination device, e.g. utilizing a light emitting diode (LED) as an electric luminous body, so the heat generated by the electric illumination device cannot only be dissipated to the exterior through the surface of the heat dissipater, but also enabled to be further dissipated by the air flowing capable of assisting heat dissipation through the hot airflow in a heat dissipater (101) with axial and radial air apertures generating a hot ascent/cold descent effect for introducing airflow from an air inlet port formed near a light projection side to pass an axial tubular flowpath (102) then be discharged from a radial air outlet hole (107) formed near a connection side (104) of the heat dissipater (101) with axial and radial air apertures.

FIG. 1 is a schematic view showing the basic structure and operation of the present invention;

FIG. 2 is a cross sectional view of FIG. 1 taken from A-A cross section;

As shown in FIG. 1 and FIG. 2, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and the light projection side (103) is installed with one or more than one air inlet ports, said air inlet ports are installed to at least one or more than one of three locations which include the outer periphery being installed with a radial air inlet port (108) and/or the center of axial end surface of the light projection side (103) being installed with a central axial air inlet port (109) and/or the light projection side (103) being installed with an air inlet port (110) annularly arranged near the periphery of axial end surface;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from the air inlet port formed near the light projection side to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior.

FIG. 4 is a top view of FIG. 3;

As shown in FIG. 3 and FIG. 4, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- radial air inlet port (108): constituted by one or more than one radial air inlet ports (108) installed near the outer periphery of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture, and said radial air inlet port (108) includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from one or more than one radial air inlet ports (108) of the light projection side (103) to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by one or more than one devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the center of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures for projecting light to the exterior according to a set direction;
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 6 is a top view of FIG. 5;

As shown in FIG. 5 and FIG. 6, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- central axial air inlet port (109): constituted by a central axial air inlet port structure installed on the axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture for communicating to the axial tubular flowpath (102), and said central axial air inlet port (109) includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from the central axial air inlet port (109) of the light projection side (103) to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by one or more than one devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the outer of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures for projecting light to the exterior according to a set direction;
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 8 is a top view of FIG. 7;

As shown in FIG. 7 and FIG. 8, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- central axial air inlet port (109): constituted by a central axial air inlet port structure installed on the axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture for communicating to the axial tubular flowpath (102), and said central axial air inlet port (109) includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from the central axial air inlet port (109) of the light projection side (103) to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by one or more than one devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the inner of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures for projecting light to the exterior according to a set direction;
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 10 is a top view of FIG. 9;

As shown in FIG. 9 and FIG. 10, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- air inlet port (110) annularly arranged near the periphery of axial end surface: constituted by one or more than one air inlet port structures annularly installed near the periphery of axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture for communicating to the axial tubular flowpath (102), and said air inlet port (110) annularly arranged near the periphery of axial end surface includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from one or more than one air inlet port (110) annularly arranged near the periphery of axial end surface at the light projection side (103) to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by one or more than one devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the center of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures for projecting light to the exterior according to a set direction;
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 12 is a top view of FIG. 11;

As shown in FIG. 11 and FIG. 12, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- central axial air inlet port (109): constituted by a central axial air inlet port structure installed on the axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture for communicating to the axial tubular flowpath (102), and said central axial air inlet port (109) includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from the central axial air inlet port (109) of the light projection side (103) to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by one or more than one devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the inner periphery of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures, downwardly disposed and projecting light to the exterior according to a set direction.
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 14 is a top view of FIG. 13;

As shown in FIG. 13 and FIG. 14, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- central axial air inlet port (109): constituted by a central axial air inlet port structure installed on the axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture for communicating to the axial tubular flowpath (102), and said central axial air inlet port (109) includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from the central axial air inlet port (109) of the light projection side (103) to pass the axial hole configured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by a plurality of devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the inner periphery of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures, downwardly disposed in a multiple circular manner, and projecting light to the exterior according to a set direction;
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 16 is a bottom view of FIG. 15;

As shown in FIG. 15 and FIG. 16, it mainly consists of:

- heat dissipater (101) with axial and radial air apertures: made of a material having good heat conductivity and formed as an integral or assembled hollow member, the outer radial surface is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an external heat dissipation surface (105); the radial interior is formed as a smooth surface, rib surface, grid surface, porous, net-shaped or fin-shaped structure, thereby forming an internal heat dissipation surface (106); the center is provided with an axial tubular flowpath (102) to constitute an axial hole allowing airflow to pass, and one axial side of the heat dissipater (101) with axial and radial air apertures is defined as a light projection side (103) allowing an electric luminous body to be installed thereon, and the other axial side is formed in a sealed or semi-sealed or opened structure for serving as a connection side (104) to be served as the external connecting structure;
- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and said radial air outlet hole (107) includes grid holes configured by a hole-shaped or net-shaped structure;
- central axial air inlet port (109): constituted by a central axial air inlet port structure installed on the axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air aperture for communicating to the axial tubular flowpath (102), and said central axial air inlet port (109) includes grid holes configured by a hole-shaped or net-shaped structure;
- air inlet port (110) annularly arranged near the periphery of axial end surface: constituted by one or more than one air inlet port structures annularly installed near the periphery of axial end surface of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures or between the LED (111) downwardly projecting light in a multiple circular manner and annularly installed for communicating to the axial tubular flowpath (102), and said air inlet port (110) annularly arranged near the periphery of axial end surface includes grid holes configured by a hole-shaped or net-shaped structure;

With the mentioned structure when generating heat loss during the electric luminous body being electrically conducted for emitting light, the air flowing formed through the hot airflow in the heat dissipater (101) with axial and radial air aperture generating a hot ascent/cold descent effect for introducing airflow from the central axial air inlet port (109) and the air inlet port (110) annularly arranged near the periphery of axial end surface of the light projection side (103) to pass the axial hole structured by the axial tubular flowpath (102) then be discharged from the radial air outlet hole (107) formed near the connection side (104) of the heat dissipater (101) with axial and radial air aperture, thereby discharging thermal energy in the axial tubular flowpath (102) to the exterior;

- electric luminous body: constituted by a plurality of devices capable of being inputted with electric power for generating optical power, e.g. a LED (111) or LED module, installed at the inner periphery of the light projection side (103) of the heat dissipater (101) with axial and radial air apertures, downwardly disposed in a multiple circular manner, and projecting light to the exterior according to a set direction;
- secondary optical device (112): optionally installed, provided with functions of condensing, diffusing, refracting or reflecting the optical energy of the LED (111) for projecting light to the exterior;
- light-pervious lampshade (113): made of a light-pervious material, covering the LED (111) for the purpose of protecting the LED (111), and allowing the optical energy of LED (111) passing through for projecting to the exterior;
- axially-fixed and electric-conductive interface (114): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and an axial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power.

FIG. 18 is a bottom view of FIG. 17;

As shown in FIG. 17 and FIG. 18, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 3;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air apertures for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air apertures to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air apertures and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air apertures to be dissipated to the exterior.

FIG. 19 is a schematic structural view illustrating the embodiment disclosed in FIG. 5 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention;

FIG. 20 is a bottom view of FIG. 19;

As shown in FIG. 19 and FIG. 20, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 5;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air aperture for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air aperture to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air aperture and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air aperture to be dissipated to the exterior.

FIG. 21 is a schematic structural view illustrating the embodiment disclosed in FIG. 7 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention;

FIG. 22 is a bottom view of FIG. 21;

As shown in FIG. 21 and FIG. 22, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 7;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air aperture for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air aperture to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air aperture and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air aperture to be dissipated to the exterior.

FIG. 23 is a schematic structural view illustrating the embodiment disclosed in FIG. 9 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention;

FIG. 24 is a bottom view of FIG. 23;

As shown in FIG. 23 and FIG. 24, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 9;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air aperture for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air aperture to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air aperture and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air aperture to be dissipated to the exterior.

FIG. 25 is a schematic structural view illustrating the embodiment disclosed in FIG. 11 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention;

FIG. 26 is a bottom view of FIG. 25;

As shown in FIG. 25 and FIG. 26, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 11;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air aperture for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air aperture to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air aperture and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air aperture to be dissipated to the exterior.

FIG. 27 is a schematic structural view illustrating the embodiment disclosed in FIG. 13 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention;

FIG. 28 is a bottom view of FIG. 27;

As shown in FIG. 27 and FIG. 28, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 13;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air aperture for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air aperture to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air aperture and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air aperture to be dissipated to the exterior.

FIG. 29 is a schematic structural view illustrating the embodiment disclosed in FIG. 15 being applied in a heat dissipater (101) with axial and radial air aperture having the top being installed with a radially-fixed and electric conductive interface (115) and installed with a top cover member (116), according to one embodiment of the present invention;

FIG. 30 is a bottom view of FIG. 29;

As shown in FIG. 29 and FIG. 30, the radially-fixed and electric-conductive interface (115) is used for replacing the axially-fixed and electric-conductive interface (114), and a top cover member (116) is further installed, all the other components are the same as what is shown in FIG. 15;

Wherein:

- radially-fixed and electric-conductive interface (115): one end thereof is connected to the connection side (104) of the heat dissipater (101) with axial and radial air aperture, the other end is a screw-in type, insertion type or lock-on type lamp head or lamp holder structure, or an electric conductive interface structure configured by an electric conductive terminal structure, provided as a connection interface for the electric luminous body and a radial external electric power, and connected to the electric luminous body with an electric conductive member for transmitting electric power;
- top cover member (116): made of a thermal conductive or non thermal conductive material, connected at the connection side (104) of the heat dissipater (101) with axial and radial air aperture for guiding the shape of the airflow at the inner top space of the heat dissipater (101) with axial and radial air aperture to be radially diffused, or providing functions of optical reflecting or refracting or condensing or diffusing; when being made of a non thermal conductive material, the top cover member (116) further provides with a function of insulating or reducing the heat transmission between the inner top space of the heat dissipater (101) with axial and radial air aperture and the exterior; when being made of a thermal conductive material, the top cover member (116) further provides a function of assisting the airflow having relatively higher temperature inside the heat dissipater (101) with axial and radial air aperture to be dissipated to the exterior.

According to the present invention, when the electric luminous body having heat dissipater with axial and radial air aperture being further applied, air inlet ports can be installed at plural locations, wherein:

- one end of the heat dissipater (101) with axial and radial air aperture near the connection side (104) is installed with one or more than one radial air outlet holes (107), and the light projection side (103) is installed with air inlet ports, said air inlet ports are installed to at least one or more than one of three locations which include the outer periphery being installed with a radial air inlet port (108) and/or the center of axial end surface of the light projection side (103) being installed with a central axial air inlet port (109) and/or the light projection side (103) being installed with an air inlet port (110) annularly arranged near the periphery of axial end surface;

According to the heat dissipater with axial and radial air aperture and application device thereof, the shape of the axial tubular flowpath (102) is not limited to be formed in the round shape, which can be further included with an oval tubular flowpath, triangle tubular flowpath, rectangular tubular flowpath, pentagonal tubular flowpath, hexangular tubular flowpath, polygonal tubular flowpath having more than six angles, U-shaped tubular flowpath, singular-slot hole tubular flowpath with dual open ends, or multiple-slot hole tubular flowpath with dual open ends; or can be shaped to a cross section having plural angles or geometric shapes, etc., illustrated with the following embodiment:

As shown in FIG. 31 the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in an oval shape.

As shown in FIG. 32, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in a triangular or triangular-like shape.

As shown in FIG. 33, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in a rectangular or rectangular-like shape.

As shown in FIG. 34, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in a pentagonal or pentagonal-like shape.

As shown in FIG. 35, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in a hexagonal or hexagonal-like shape.

As shown in FIG. 36, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in a U shape with single sealed side.

As shown in FIG. 37, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is formed as a singular-slot hole with dual open ends.

As shown in FIG. 38, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the A-A cross section of the tubular flowpath is in formed as two or more than two slot hole with dual open ends.

According to the heat dissipater with axial and radial air aperture and application device thereof, both or at least one of the interior and the exterior of the axial cross section of the axial tubular flowpath (102) can be provided with a heat dissipation fin structure (200) for increasing the heat dissipation effect;

As shown in FIG. 39, the main configuration is that the heat dissipater (101) with axial and radial air aperture is made of a material having good thermal conductivity, and between the radial air outlet hole near the connection side (104) and the air inlet port near the light projection side (103), the axial tubular flowpath (102) is served as a communicated tubular flowpath, wherein the B-B cross section of the tubular flowpath is formed with the heat dissipation fin structure (200).

According to the heat dissipater with axial and radial air aperture and application device thereof, the heat dissipater (101) with axial and radial air aperture can be further formed as a porous or net-shaped structure which is made of a thermal conductive material, and the holes of the porous structure and the net holes of the net-shaped structure can be used for replacing the radial air outlet hole (107) and the radial air inlet port (108); and the light projection side (103) is formed with a block-shaped heat conductive structure allowing the electric luminous body to be installed thereon;

FIG. 40 is a schematic view showing the heat dissipater (101) with axial and radial air aperture being formed as a porous structure, according to one embodiment of the present invention;

As shown in FIG. 40, in the heat dissipater with axial and radial air aperture and application device thereof, the heat dissipater (101) with axial and radial air aperture can be further formed as a porous structure made of a thermal conductive material, and the holes of the porous structure can be used for replacing the radial air outlet hole (107) and the radial air inlet port (108); and the light projection side (103) is formed with a block-shaped heat conductive structure allowing the electric luminous body to be installed thereon;

FIG. 41 is a schematic view showing the heat dissipater (101) with axial and radial air aperture being formed as a net-shaped structure, according to one embodiment of the present invention;

As shown in FIG. 41, in the heat dissipater with axial and radial air aperture and application device thereof, the heat dissipater (101) with axial and radial air aperture can be further formed as a net-shaped structure made of a thermal conductive material, and the net holes of the net-shaped structure can be used for replacing the radial air outlet hole (107) and the radial air inlet port (108); and the light projection side (103) is formed with a block-shaped heat conductive structure allowing the electric luminous body to be installed thereon.

In the heat dissipater with axial and radial air aperture and application device thereofs, for facilitating the smoothness of the hot ascent/cold descent formed in the axial tubular flowpath (102), the inner top of the heat dissipater (101) with axial and radial air aperture is formed with a flow guide conical member (301) at the axial direction facing the light projection side (103); or formed with a flow guide conical member (302) along the axial direction facing the light projection side (103) of the heat dissipater (101) with axial and radial air aperture at the side of the axially-fixed and electric-conductive interface (114) for connecting to the heat dissipater (101) with axial and radial air aperture; the directions of said flow guide conical members (301), (302) facing the light projection side (103) of the heat dissipater (101) with axial and radial air aperture are formed in a conical shape for guiding the hot-ascended airflow in the axial tubular flowpath (102) to the radial air outlet hole (107); FIG. 42 is a schematic structural view illustrating the axial direction facing the light projection side (103) at the inner top of the heat dissipater (101) with axial and radial air aperture being formed with a flow guide conical member (301), according to one embodiment of the present invention;

As shown in FIG. 42, the inner top of the heat dissipater (101) with axial and radial air aperture disclosed in each embodiment is formed with a flow guide conical member (301) at the axial direction facing the light projection side (103), wherein the direction of said flow guide conical member (301) facing the light projection side (103) of the heat dissipater (101) with axial and radial air aperture is formed in a conical shape for guiding the hot-ascended airflow in the axial tubular flowpath (102) to the radial air outlet hole (107);

FIG. 43 is a schematic structural view illustrating that along the axial direction facing the light projection side (103) of the heat dissipater (101) with axial and radial air aperture at the side of the axially-fixed and electric-conductive interface (114) for connecting to the heat dissipater (101) with axial and radial air aperture being formed with a flow guide conical member (302), according to one embodiment of the present invention;

As shown in FIG. 43, for the axially-fixed and electric-conductive interface (114) disclosed in each embodiment of the present invention, along the axial direction facing the light projection side (103) of the heat dissipater (101) with axial and radial air aperture at the side of the axially-fixed and electric-conductive interface (114) for connecting to the heat dissipater (101) with axial and radial air aperture is formed with a flow guide conical member (302), wherein the direction of said flow guide conical member (302) facing the light projection side (103) of the heat dissipater (101) with axial and radial air aperture is formed in a conical shape for guiding the hot-ascended airflow in the axial tubular flowpath (102) to the radial air outlet hole (107).

According to the heat dissipater with axial and radial air aperture and application device thereof, the interior of the axial tubular flowpath (102) can be installed with an electric motor driven fan (400) for assisting the flowing of the hot airflow in the axial tubular flowpath (102) for increasing the heat dissipation effect;

FIG. 44 is a schematic view illustrating an electric motor driven fan (400) being provided in the interior, according to one embodiment of the present invention;

As shown in FIG. 44, in the heat dissipater with axial and radial air aperture and application device thereof, the airflow in the axial tubular flowpath (102) not only can be driven by the hot ascent/cool descent effect, but the electric motor driven fan (400) can also be further installed in the axial tubular flowpath (102) for assisting the flowing of the hot airflow in the axial tubular flowpath (102), and thereby increasing the heat dissipation effect.

Number	Name	Date	Kind
4503360	Bedel	Mar 1985	A
6793374	Begemann	Sep 2004	B2
7575346	Horng et al.	Aug 2009	B1
8066414	Pabst et al.	Nov 2011	B2
8143769	Li	Mar 2012	B2
20060193139	Sun et al.	Aug 2006	A1
20060290891	Wang et al.	Dec 2006	A1
20070279862	Li	Dec 2007	A1
20080049399	Lu	Feb 2008	A1
20080212333	Chen	Sep 2008	A1
20100060130	Li	Mar 2010	A1

	Number	Date	Country
Parent	13345848	Jan 2012	US
Child	13354401		US

Heat dissipater with axial and radial air aperture and application device thereof

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CPC

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CROSS-REFERENCE TO RELATED APPLICATION

US Referenced Citations (11)

Related Publications (1)

Continuation in Parts (1)