CN108894908A - Movable wave energy generation platform waterborne - Google Patents
Movable wave energy generation platform waterborne Download PDFInfo
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- CN108894908A CN108894908A CN201810747350.2A CN201810747350A CN108894908A CN 108894908 A CN108894908 A CN 108894908A CN 201810747350 A CN201810747350 A CN 201810747350A CN 108894908 A CN108894908 A CN 108894908A
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- Prior art keywords
- floating ball
- floating
- ring beam
- floating body
- generation platform
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F03—MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
- F03B—MACHINES OR ENGINES FOR LIQUIDS
- F03B13/00—Adaptations of machines or engines for special use; Combinations of machines or engines with driving or driven apparatus; Power stations or aggregates
- F03B13/12—Adaptations of machines or engines for special use; Combinations of machines or engines with driving or driven apparatus; Power stations or aggregates characterised by using wave or tide energy
- F03B13/14—Adaptations of machines or engines for special use; Combinations of machines or engines with driving or driven apparatus; Power stations or aggregates characterised by using wave or tide energy using wave energy
- F03B13/16—Adaptations of machines or engines for special use; Combinations of machines or engines with driving or driven apparatus; Power stations or aggregates characterised by using wave or tide energy using wave energy using the relative movement between a wave-operated member, i.e. a "wom" and another member, i.e. a reaction member or "rem"
- F03B13/18—Adaptations of machines or engines for special use; Combinations of machines or engines with driving or driven apparatus; Power stations or aggregates characterised by using wave or tide energy using wave energy using the relative movement between a wave-operated member, i.e. a "wom" and another member, i.e. a reaction member or "rem" where the other member, i.e. rem is fixed, at least at one point, with respect to the sea bed or shore
- F03B13/1885—Adaptations of machines or engines for special use; Combinations of machines or engines with driving or driven apparatus; Power stations or aggregates characterised by using wave or tide energy using wave energy using the relative movement between a wave-operated member, i.e. a "wom" and another member, i.e. a reaction member or "rem" where the other member, i.e. rem is fixed, at least at one point, with respect to the sea bed or shore and the wom is tied to the rem
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/30—Energy from the sea, e.g. using wave energy or salinity gradient
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- Engineering & Computer Science (AREA)
- Chemical & Material Sciences (AREA)
- Combustion & Propulsion (AREA)
- Mechanical Engineering (AREA)
- General Engineering & Computer Science (AREA)
- Other Liquid Machine Or Engine Such As Wave Power Use (AREA)
Abstract
The present invention relates to a kind of movable wave energy generation platforms waterborne, to solve the problems, such as that the prior art does not adapt to severe weather conditions, it is that floating body of at least two spacing parallel arrangings with multiple groups anchor hawser arranged side by side is connected by horizontal frame linking, floating body configures multiple lifting support columns or frame for being used to reach downwards seabed or other waters bottoms arranged side by side, the floating ball that power generation is driven for generating vertical back and forth kinetic energy that floating body periphery passes through the vertical slide fit support configuration week cloth of floating ball of all cloth by covering lifting supporting mechanism arranged side by side more；Using support is stretched under anchoring and lifting support column or frame to anchorage waters bottom, stationary power generation platform carries out wave-energy power generation, rises and goes up and down by autogamy navigating power system under support column or frame and anchor state or drive generation platform with even towboat, is shifted.The floating ball cuts shape or tip cone directed downwardly for the ball of full circle spherical shape or upper flat-top.With easy construction, installation, the advantages of adapting to and hide typhoon and other high wind billow severe weather conditions very well.
Description
Technical field
The present invention relates to a kind of wave energy apparatus, more particularly to a kind of movable wave energy generation platform waterborne.
Background technique
Existing wave energy apparatus haves the defects that not adapt to typhoon and other high wind billow mal-conditions.
Summary of the invention
Present invention aims to overcome that the drawbacks described above of the prior art, one kind is provided and adapts to and hide typhoon and other strong
The movable wave energy generation platform waterborne of wind billow severe weather conditions.
To achieve the above object, present invention movable wave energy generation platform waterborne is at least two spacing parallel arrangings with multiple groups
The floating body of anchor hawser arranged side by side is connected by horizontal frame linking, and floating body configures multiple arranged side by side be used for by covering lifting supporting mechanism arranged side by side more
The lifting support column or frame at seabed or other waters bottoms are reached downwards, and floating body periphery is matched by the vertical slide fit bracket of floating ball of all cloth
Set the floating ball of all cloth to generate electricity for generating vertical reciprocal kinetic energy driving；Support is stretched extremely using anchoring and going up and down under support column or frame
Anchorage waters bottom, stationary power generation platform carry out wave-energy power generation, rise under lifting support column or frame and anchor state by autogamy
Navigating power system drives generation platform with even towboat, is shifted.Floating ball is for generating vertical reciprocal kinetic energy driving hair
Electricity is to drive electric ball power generation after the vertical reciprocating machine that floating ball generates can be converted into single direction rotation mechanical energy.Other waters Ru Jiang,
River, lake etc..Wave-energy power generation platform entire in this way is built in dry dock, can be built certainly than work waters much easier.
Autogamy navigating power system drives generation platform to work waters with even towboat, using under anchoring and lifting support column or frame
Support is stretched to anchorage waters bottom, just be can be carried out wave-energy power generation after stationary power generation platform, certainly, is easy to be mounted with.Encounter platform
Wind and other high wind billow severe weather conditions by tuning or can be displaced to clear waters or the harbor, adapt to certainly
With hide typhoon and other high wind billow severe weather conditions.Therefore, have and be easy to build, install, and adapt to and hide platform
The advantages of wind and other high wind billow severe weather conditions.
As optimization, two spacing parallel arrangings pass through horizontal frame linking with the ship shape floating body that the length of multiple groups anchor hawser arranged side by side is greater than wide several times
It is connected, ship shape floating body is configured by mostly set lifting supporting mechanism arranged side by side and multiple arranged side by side is used to downward reach seabed or other water
The lifting support column or frame at domain bottom, ship shape floating body periphery pass through the vertical slide fit support configuration week cloth of floating ball of all cloth for generating
The floating ball of vertical reciprocal kinetic energy driving power generation.
As optimization, ship shape floating body quadrangle respectively passes through lifting supporting mechanism and is configured to reach seabed or other waters downwards
The lifting support column or frame at bottom, ship shape floating body middle part is at least through two sets of liftings arranged side by side being spaced apart along ship shape floating body long axis
Supporting mechanism is configured to reach the lifting support column or frame in seabed or other waters bottoms downwards.
As optimization, in the middle part of the horizontal frame linking between two ship shape floating bodies arranged side by side and extend on the outside of two ship shape floating bodies
Horizontal frame linking epitaxy part be fixedly mounted with inner ring beam and outer-ring beam around each ship shape floating body, configured at least between inner ring beam and outer-ring beam
The vertical slide fit bracket of the floating ball of one of annular spread and the floating ball to generate electricity for generating vertical reciprocal kinetic energy driving.
As optimization, inner ring beam and outer-ring beam are directly or indirectly fixedly mounted in six sides of each floating ball or from all directions for branch respectively
The vertical rails that support floating ball vertically reciprocatingly slides under wave buoyancy, each floating ball at least configure upper layer and lower layer and six sides or all directions
The vertical sheave of the vertical slide fit of vertical rails.
As optimization, ship shape floating body outside, inside, front side, rear side and angulus anterolateralis between inner ring beam and outer-ring beam and after
The vertical slide fit bracket of floating ball of annular spread and the floating ball for generating vertical reciprocal kinetic energy driving power generation are opened in exterior angle configuration together；
Or the vertical slide fit bracket of floating ball of the distribution of closed-loop shaped together and vertical reciprocal for generating is configured between inner ring beam and outer-ring beam
The floating ball of kinetic energy driving power generation.
As optimization, ship shape floating body outside, inside, front side and rear side inside and outside ring beam be fixed with three between adjacent floating ball
Angular perpendicular convex wall, triangle, which erects, to be fitted on the two sidewalls of convex wall and is used to support what floating ball vertically reciprocatingly slided under wave buoyancy
Vertical rails；Inner ring beam is fixedly mounted with oblique channel steel in the outside of angulus anterolateralis and angulus posteriolateralis respectively and erects convex wall, outer-ring beam in angulus anterolateralis and
The inside of angulus posteriolateralis is fixedly mounted with oblique convex wall respectively, inside and outside ring beam on the inside of the ship shape floating body on the outside of the floating ball at both ends, inside and outside ring beam is in ship
All be fixed on the inside of the floating ball of side inner end before and after shape floating body and tiltedly stretch wall, oblique channel steel erect on three side walls of convex wall and tiltedly in convex wall and
It tiltedly stretches all to be fitted on wall and is used to support the vertical rails that floating ball vertically reciprocatingly slides under wave buoyancy.
Between two adjacent floating balls and inside and outside the both sides at face floating ball center on ring beam and the end floating ball without adjacent floating ball
It is configured in the middle part of empty side and is used to support the vertical rails that floating ball vertically reciprocatingly slides under wave buoyancy.
As optimization, the floating ball cuts shape or tip cone directed downwardly for the ball of full circle spherical shape or upper flat-top.
As optimization, goes up and down support column or frame is the vertical slide fit lifting support column of pit mouth or frame of floating body, floating body is every
Support tower is fixedly mounted with around a pit mouth upwards, hinged level-one or more between support tower top center and lifting support column or frame
The hydraulic station of the electronic or IC engine driving configured on the telescopic hydraulic cylinder of a cascade, floating body or horizontal frame linking by operating-controlling mechanism and
Hydraulic tube connection drives the telescopic hydraulic cylinder.Gripping mechanism or locked instrument of the pit mouth configured with lifting support column or frame.
As optimization, autogamy navigating power system configuration is on horizontal frame linking or configures on one or more floating bodies wherein,
The autogamy navigating power system include have turning function fuels and energy or be driven by electricity propulsion slurry or fuels and energy or
The propulsion slurry and rudder being driven by electricity.Horizontal frame linking is multiple tracks across-linked beam arranged side by side.
It is easy to build, install after adopting the above technical scheme, present invention movable wave energy generation platform waterborne has, and
The advantages of adapting to and hide typhoon and other high wind billow severe weather conditions.
Detailed description of the invention
Fig. 1 and 2 is the main view and side structure schematic view of present invention movable wave energy generation platform waterborne respectively；Fig. 3
It is the overlooking structure diagram of present invention movable wave energy platform waterborne.Figure 4 and 5 are the present invention removable wave waterborne respectively
The main view and side structure schematic view of the floating body of wave energy for generating electricity platform and horizontal frame linking and lifting support column or frame part；Fig. 6 is this
Invent the plan structure signal of the floating body and horizontal frame linking and lifting support column or frame part of movable wave energy generation platform waterborne
Figure.
Specific embodiment
As shown, present invention movable wave energy generation platform waterborne is at least two spacing parallel arrangings with multiple groups anchor arranged side by side
The floating body 1 of cable is connected by horizontal frame linking 2, floating body 1 by mostly set lifting supporting mechanism arranged side by side configure it is multiple side by side be used for
Under reach the lifting support column 3 or frame at seabed or other waters bottoms, 1 periphery of floating body is matched by the vertical slide fit bracket of floating ball of week cloth
Set the floating ball 4 of all cloth to generate electricity for generating vertical reciprocal kinetic energy driving；Support is stretched using anchoring and going up and down under support column 3 or frame
To anchorage waters bottom, stationary power generation platform carries out wave-energy power generation, rises under lifting support column or frame and anchor state by certainly
Generation platform is driven with navigating power system or with even towboat, is shifted.Floating ball is for generating vertical reciprocal kinetic energy driving
Power generation is to drive electric ball power generation after the vertical reciprocating machine that floating ball generates can be converted into single direction rotation mechanical energy.Other waters are such as
River, river, lake etc..Wave-energy power generation platform entire in this way is built in dry dock, can be built certainly than work waters much easier
?.Autogamy navigating power system or with even towboat driving generation platform arrive work waters, using anchoring and go up and down support column or
Support is stretched under frame to anchorage waters bottom, just be can be carried out wave-energy power generation after stationary power generation platform, certainly, is easy to be mounted with.It meets
To typhoon and other high wind billow severe weather conditions, by tuning or it can be displaced to clear waters or the harbor, certain energy
Adapt to and hide typhoon and other high wind billow severe weather conditions.Therefore, have and be easy to build, install, and adapt to and hide
The advantages of keeping away typhoon and other high wind billow severe weather conditions.
Specifically two spacing parallel arrangings pass through horizontal frame linking 2 with the ship shape floating body 1 that the length of multiple groups anchor hawser arranged side by side is greater than wide several times
It is connected, ship shape floating body 1 is configured by mostly set lifting supporting mechanism arranged side by side and multiple arranged side by side is used for the downward seabed or other of reaching
The lifting support column 3 or frame at waters bottom, 1 periphery of ship shape floating body pass through being used for for the vertical slide fit support configuration week cloth of floating ball of all cloth
Generate the floating ball 4 of vertical reciprocal kinetic energy driving power generation.1 four jiaos of ship shape floating body respectively pass through lifting supporting mechanism and are configured to stretch downwards
To the lifting support column 3 or frame in seabed or other waters bottoms, 1 middle part of ship shape floating body is at least through along ship shape floating body long axis interval point
The lifting supporting mechanism arranged side by side of two sets of cloth is configured to reach the lifting support column 3 or frame in seabed or other waters bottoms downwards.
Specifically it is located at 2 middle part of horizontal frame linking between two ship shape floating bodies 1 arranged side by side and extends to two ship shape floating bodies, 1 outside
Horizontal frame linking epitaxy part be fixedly mounted with inner ring beam 51 and outer-ring beam 50 around each ship shape floating body 1, inner ring beam 51 and outer-ring beam 50 it
Between configure the vertical slide fit bracket of floating ball of at least one annular spread and the floating ball for generating vertical reciprocal kinetic energy driving power generation
4。
Inner ring beam 51 and outer-ring beam 50 be directly or indirectly fixedly mounted with respectively in six sides of each floating ball 4 or from all directions be used to support it is floating
The vertical rails 5 that ball 4 vertically reciprocatingly slides under wave buoyancy, each floating ball 4 at least configure upper layer and lower layer and six sides or all directions
The vertical sheave of the vertical slide fit of vertical rails 5.
1 outside of ship shape floating body, inside, front side, rear side and angulus anterolateralis and angulus posteriolateralis between inner ring beam 51 and outer-ring beam 50
The vertical slide fit bracket of floating ball of annular spread and the floating ball 4 for generating vertical reciprocal kinetic energy driving power generation are opened in configuration together.?
It can be the vertical slide fit bracket of floating ball that the distribution of closed-loop shaped together is configured between inner ring beam and outer-ring beam and vertical past for generating
Double action can drive the floating ball of power generation.1 outside of ship shape floating body, inside, front side and rear side 51 outer-ring beam 50 of inner ring beam in adjacent floating
It is fixed with triangle between ball 4 and erects convex wall 61, is fitted on the two sidewalls of the perpendicular convex wall 61 of triangle and is used to support floating ball 4 in wave
The vertical rails 5 vertically to reciprocatingly slide under buoyancy；Inner ring beam 51 is fixedly mounted with oblique channel steel in the outside of angulus anterolateralis and angulus posteriolateralis respectively
Perpendicular convex wall 62, outer-ring beam 50 are fixedly mounted with oblique convex wall 63 in the inside of angulus anterolateralis and angulus posteriolateralis respectively, and 51 outer-ring beam 50 of inner ring beam is in ship
The outside of floating ball 4 at 1 inside both ends of shape floating body, 51 outer-ring beam 50 of inner ring beam 1 front and back side inner end of ship shape floating body 4 inside of floating ball all
It is fixed with and tiltedly stretches wall 64, oblique channel steel erects on three side walls of convex wall 62 and tiltedly in convex wall 63 and tiltedly stretches all to be fitted on wall 64 and be used for
The vertical rails 5 that support floating ball 4 vertically reciprocatingly slides under wave buoyancy.Between two adjacent floating balls 4 and 4 center of face floating ball
51 outer-ring beam 50 of both sides inner ring beam on and the empty side of the end floating ball 4 without adjacent floating ball 4 in the middle part of exist configured with being used to support floating ball 4
The vertical rails 5 vertically to reciprocatingly slide under wave buoyancy.
The specifically described floating ball 4 is tip cone directed downwardly, and the ball for being also possible to full circle spherical shape or upper flat-top cuts shape.
Specific lifting support column 3 or frame are the vertical slide fit lifting support column 3 of pit mouth or frame of floating body 1, and floating body 1 is each
Support tower is fixedly mounted with around pit mouth upwards, hinged level-one or more between support tower top center and lifting support column 3 or frame
The hydraulic station of the electronic or IC engine driving configured on the telescopic hydraulic cylinder of a cascade, floating body 1 or horizontal frame linking 2 passes through operating-controlling mechanism
The telescopic hydraulic cylinder is driven with hydraulic tube connection.Gripping mechanism or locking dress of the pit mouth configured with lifting support column 3 or frame
It sets, to after rising and falling into place and the lifting support column 3 of intermediate any position or frame card or locked.
Specifically autogamy navigating power system configuration on horizontal frame linking 2 or configures on one or more floating bodies 1 wherein, institute
Stating autogamy navigating power system includes the propulsion slurry or fuels and energy or electricity for having the fuels and energy of turning function or being driven by electricity
The propulsion slurry and rudder of power drive.Horizontal frame linking 2 is multiple tracks across-linked beam arranged side by side.
It is easy to build, install after adopting the above technical scheme, present invention movable wave energy generation platform waterborne has, and
The advantages of adapting to and hide typhoon and other high wind billow severe weather conditions.
Claims (10)
1. a kind of movable wave energy generation platform waterborne, it is characterised in that at least two spacing parallel arrangings are with multiple groups anchor hawser arranged side by side
Floating body is connected by horizontal frame linking, and floating body is configured by mostly set lifting supporting mechanism arranged side by side and multiple arranged side by side is used to downward reach sea
The lifting support column or frame at bottom or other waters bottoms, floating body periphery pass through the use of the vertical slide fit support configuration week cloth of floating ball of all cloth
In the floating ball for generating vertical reciprocal kinetic energy driving power generation；Support is stretched to anchorage waters bottom under support column or frame using anchoring and going up and down
Bed, stationary power generation platform carry out wave-energy power generation, rise under lifting support column or frame and anchor state by autogamy navigating power system
System drives generation platform with even towboat, is shifted.
2. movable wave energy generation platform waterborne according to claim 1, it is characterised in that two spacing parallel arrangings match multiple groups
The ship shape floating body that the length of anchor hawser arranged side by side is greater than wide several times is connected by horizontal frame linking, and ship shape floating body passes through covers lifting support arranged side by side more
Mechanism configures multiple lifting support columns or frame for being used to reach downwards seabed or other waters bottoms arranged side by side, and ship shape floating body periphery is logical
Cross the floating ball that power generation is driven for generating vertical reciprocal kinetic energy of the vertical slide fit support configuration week cloth of floating ball of all cloth.
3. movable wave energy generation platform waterborne according to claim 2, it is characterised in that ship shape floating body quadrangle respectively passes through
Lifting supporting mechanism is configured to reach the lifting support column or frame in seabed or other waters bottoms downwards, in the middle part of ship shape floating body at least
It is configured to reach downwards seabed or other by two sets be spaced apart along ship shape floating body long axis lifting supporting mechanisms arranged side by side
The lifting support column or frame at waters bottom.
4. movable wave energy generation platform waterborne according to claim 1, it is characterised in that it is floating to be located at two ship shape arranged side by side
It is fixedly mounted with the horizontal frame linking epitaxy part extended on the outside of two ship shape floating bodies around each ship shape floating body in the middle part of horizontal frame linking between body
Inner ring beam and outer-ring beam, the vertical slide fit bracket of floating ball and use of at least annular spread together are configured between inner ring beam and outer-ring beam
In the floating ball for generating vertical reciprocal kinetic energy driving power generation.
5. movable wave energy generation platform waterborne according to claim 4, it is characterised in that inner ring beam and outer-ring beam are direct
It is fixedly mounted be used to support that floating ball vertically reciprocatingly slides under wave buoyancy perpendicular respectively in six sides of each floating ball or from all directions indirectly
To sliding rail, each floating ball at least configures the vertical sheave of upper layer and lower layer and six sides or the vertical slide fit of all directions vertical rails.
6. movable wave energy generation platform waterborne according to claim 4, it is characterised in that between inner ring beam and outer-ring beam
Ship shape floating body outside, inside, front side, the vertical slide fit of floating ball that annular spread is opened together with rear side and angulus anterolateralis and angulus posteriolateralis configuration
Bracket and the floating ball to generate electricity for generating vertical reciprocal kinetic energy driving；Or closed-loop shaped together is configured between inner ring beam and outer-ring beam
The vertical slide fit bracket of the floating ball of distribution and the floating ball to generate electricity for generating vertical reciprocal kinetic energy driving.
7. movable wave energy generation platform waterborne according to claim 6, it is characterised in that ship shape floating body outside, inside,
The inside and outside ring beam of front side and rear side is fixed with triangle between adjacent floating ball and erects convex wall, matches on the two sidewalls of the perpendicular convex wall of triangle
Equipped with the vertical rails for being used to support floating ball and vertically reciprocatingly sliding under wave buoyancy；Inner ring beam is in the outer of angulus anterolateralis and angulus posteriolateralis
Side is fixedly mounted with oblique channel steel respectively and erects convex wall, and outer-ring beam is fixedly mounted with oblique convex wall, inside and outside ring beam in the inside of angulus anterolateralis and angulus posteriolateralis respectively
On the inside of the ship shape floating body on the outside of the floating ball at both ends, inside and outside ring beam is all fixed on the inside of the floating ball of side inner end tiltedly before and after ship shape floating body
Stretch wall, oblique channel steel, which is erected on three side walls of convex wall and tiltedly in convex wall and tiltedly stretched, is all fitted with that be used to support floating ball floating in wave on wall
The vertical rails vertically to reciprocatingly slide under power；
End floating ball sky side between two adjacent floating balls and inside and outside the both sides at face floating ball center on ring beam and without adjacent floating ball
Middle part is configured with and is used to support the vertical rails that floating ball vertically reciprocatingly slides under wave buoyancy.
8. -7 any movable wave energy generation platform waterborne according to claim 1, it is characterised in that the floating ball is whole
The ball of spheroidal or upper flat-top cuts shape or tip cone directed downwardly.
9. -7 any movable wave energy generation platform waterborne according to claim 1, it is characterised in that lifting support column or
Frame is that the vertical slide fit lifting support column of pit mouth of floating body or frame, floating body are fixedly mounted with support tower around each pit mouth upwards,
The telescopic hydraulic cylinder of hinged level-one or multiple cascades between support tower top center and lifting support column or frame upper end, floating body or
The hydraulic station of the electronic or IC engine driving configured on horizontal frame linking drives the flexible liquid by operating-controlling mechanism and hydraulic tube connection
Cylinder pressure.
10. -7 any movable wave energy generation platform waterborne according to claim 1, it is characterised in that autogamy navigation is dynamic
Force system configuration is on horizontal frame linking or configures on one or more floating bodies wherein, and the autogamy navigating power system includes that tool turns
To the fuels and energy of function or the propulsion slurry or fuels and energy that are driven by electricity or the propulsion slurry and rudder that are driven by electricity.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810747350.2A CN108894908B (en) | 2018-07-10 | 2018-07-10 | Water movable wave energy power generation platform |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810747350.2A CN108894908B (en) | 2018-07-10 | 2018-07-10 | Water movable wave energy power generation platform |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN108894908A true CN108894908A (en) | 2018-11-27 |
| CN108894908B CN108894908B (en) | 2023-10-17 |
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ID=64349298
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201810747350.2A Active CN108894908B (en) | 2018-07-10 | 2018-07-10 | Water movable wave energy power generation platform |
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| EP0496146A1 (en) * | 1991-01-25 | 1992-07-29 | Eberle Energy Enterprises, Inc. | Tidal and wave-power collection apparatus for installation in large bodies of water |
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| Publication number | Publication date |
|---|---|
| CN108894908B (en) | 2023-10-17 |
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