CN110823508B - Experimental device for simulating pie-shaped ice drifting accumulation on wind-driven waves - Google Patents
Experimental device for simulating pie-shaped ice drifting accumulation on wind-driven waves Download PDFInfo
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- CN110823508B CN110823508B CN201911079692.2A CN201911079692A CN110823508B CN 110823508 B CN110823508 B CN 110823508B CN 201911079692 A CN201911079692 A CN 201911079692A CN 110823508 B CN110823508 B CN 110823508B
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- G01M—TESTING STATIC OR DYNAMIC BALANCE OF MACHINES OR STRUCTURES; TESTING OF STRUCTURES OR APPARATUS, NOT OTHERWISE PROVIDED FOR
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Abstract
The invention belongs to the field of pie-shaped ice drifting accumulation, and particularly relates to an experimental device for simulating pie-shaped ice drifting accumulation on wind-driven waves. The device comprises a test water pool with a glass side surface, a wave generator, an inclined plate for absorbing wave energy, a metal net, a wind tunnel and an observation camera. The invention utilizes the wave generator to generate persistent random waves based on a wave spectrum, so that wind blows to the cake-shaped ice floating on the water surface through the wind tunnel at different speeds, thereby causing the cake-shaped ice to generate drift accumulation under the simultaneous action of the wind and the waves, observing and recording the accumulation condition of the cake-shaped ice through the observation camera, and researching the drift accumulation condition of the cake-shaped ice under the simultaneous action of different wind speeds, waves and other factors. The speed of wind and the angle of blowing in can the self-defined selection, also can change the thickness of pie ice simultaneously, can the high-efficient accumulation condition to pie ice under the different factor effects of research.
Description
Technical Field
The invention belongs to the field of pie-shaped ice drifting accumulation, and particularly relates to an experimental device for simulating pie-shaped ice drifting accumulation on wind-driven waves.
Background
The first stage in sea ice formation is the formation of individual ice crystals at the surface of the ocean. Under the influence of sea waves, the crushed ice crystals coagulate and accumulate to form a cake-like ice resembling a small disk, the diameter of which can reach several meters and the thickness of which can reach 0.4 meter. In the Antarctic region, 50% of the sea ice area consists of cake-like ice floes with a diameter of 2.3-4 meters. Under the action of wind and waves, the cake-shaped ice can drift and accumulate to form large-sized floccules, and the change of the area and the thickness of the polar ice cover can be directly influenced. The accumulation of cake ice can increase the thickness of the ice cover, and the area of the ice cover on the sea surface is relatively reduced, so that the drifting accumulation process plays an important role in the calculation and determination of the area and the thickness of the ice cover of the polar region. Meanwhile, due to seasonal changes, the scale of wind and waves can be changed, so that the research on the change relationship between sea wind, waves and ice covers is very important. However, at present, research on the change relation between the thickness of the ice cover and wind and waves is still lack, so that related experimental equipment is not available, and an experimental device capable of effectively simulating the drifting and accumulation of pie-shaped ice on wind-driven waves does not exist.
Disclosure of Invention
The invention aims to provide an experimental device for simulating pie-shaped ice drifting and accumulating on wind-driven waves.
An experimental apparatus for simulating the drifting accumulation of pie-shaped ice on wind-driven waves, the apparatus comprising: the device comprises a test pool (1), a wave generator (2), an inclined plate (3), cake-shaped ice (4), a metal net (5), a wind tunnel movable air outlet (6), a wind tunnel air inlet (7) and an observation camera (8); the experiment is gone on in the low temperature laboratory, test pond (1) fixed place subaerial at the horizontally, wave generator (2) install in test pond (1) front end, swash plate (3) install in test pond (1) end, pie ice (4) the tiling on the surface of water, metal mesh (5) be fixed in pie ice (4) rear, wind-tunnel movable air outlet (6) and wind tunnel income wind gap (7) are located test pond (1) top, wind tunnel income wind gap (7) are located test pond (1) tail end top, movable air outlet (6) are located test pond (1) front end top, observe camera (8) and are located test pond (1) one side and are close to pie ice (4) department.
The test pool (1) has a glass side. The wave generator (2) generates permanent random waves based on a wave spectrum. The inclined plate (3) is arranged at the tail end of the test water pool (1) and has a slope.
The invention has the beneficial effects that:
the invention has convenient operation, can self-define and select the speed of wind and the blowing angle, can change the thickness of the cake-shaped ice, and can efficiently research the accumulation condition of the cake-shaped ice under the action of different factors.
Drawings
FIG. 1 is a side view of the experimental set-up.
FIG. 2 is a top view of the experimental set-up.
FIG. 3 is a front view of the experimental apparatus.
FIG. 4 is an enlarged view of the internal structure of the experimental apparatus.
Detailed Description
The invention is further described below with reference to the accompanying drawings.
The invention utilizes the wave generator to generate persistent random waves based on the wave spectrum, so that wind blows to the cake-shaped ice floating on the water surface through the wind tunnel at different speeds, the cake-shaped ice drifts and accumulates under the simultaneous action of the wind and the waves, and the accumulation condition of the cake-shaped ice is observed and recorded through the observation camera at one side of the water pool, thereby researching the drift accumulation condition of the cake-shaped ice under the simultaneous action of different wind speeds, waves and other factors. The experimental device is systematized and is simple to operate. The wave generator installed at the front end of the water pool generates lasting random waves based on a wave spectrum, the inclined plate at the tail end of the water pool can absorb residual wave energy, the metal net at the middle part of the water pool can limit the drift of the pie ice, the pie ice is enabled to be better generated and accumulated, wind tunnels above the water pool can emit wind at different speeds, and the movable air outlets of the wind tunnels can adjust the angle of the wind blowing to the pie ice, so that the research on the drift accumulation condition of the pie ice under the simultaneous action of different wind speeds, waves and other factors is realized.
The invention relates to an experimental device for simulating drifting and accumulation of pie-shaped ice on wind-driven waves, which is mainly used for researching the drifting and accumulation conditions of the pie-shaped ice under the simultaneous action of factors such as different wind speeds, waves and the like.
The figure is a model experimental device figure: 1. the device comprises a test water pool with a glass side face, 2 a wave generator, 3 an inclined plate for absorbing wave energy, 4 pie-shaped ice, 5 a metal net, 6 a wind tunnel movable air outlet, 7 a wind tunnel air inlet and 8 an observation camera.
In the figure, a test water tank 1 with a glass side face is fixedly placed on the horizontal ground, a wave generator 2 is installed at the front end of the water tank, an inclined plate 3 used for absorbing wave energy is installed at the tail end of the water tank, cake-shaped ice 4 is flatly paved on the water surface, a metal net 5 is fixed at the rear of an ice area, a wind tunnel is located above the water tank, a wind tunnel air inlet 7 is located above the tail end of the water tank, a movable air outlet 6 is located above the front end of the water tank, the cake-shaped ice can be blown by wind, and an observation camera 8 is located on one side of the water tank and is close to the cake-shaped ice.
The invention relates to an experimental device for simulating pie-shaped ice drifting accumulation on wind-driven waves, which comprises a test water pool with a glass side surface, a wave generator, an inclined plate for absorbing wave energy, a metal net, a wind tunnel and an observation camera. The wave generator generates lasting random waves based on a wave spectrum, wind blows to pie-shaped ice floating on the water surface through the wind tunnel at different speeds, an observation camera is used for observing and recording drifting accumulation conditions of the pie-shaped ice under the simultaneous action of the wind and the waves, the pie-shaped ice accumulation conditions floating on the waves at different wind speeds are researched, and the accumulation conditions of the pie-shaped ice under different conditions can be researched by changing the wind speed, the angle of the air outlet and other conditions.
The invention relates to an experimental device for simulating drifting accumulation of pie-shaped ice on wind-driven waves, which is mainly applied to the simulation of researching the drifting accumulation condition of the pie-shaped ice under the simultaneous action of different wind speeds, waves and other factors. The experiment is carried out in the low temperature laboratory, and wave generator installs at the pond front end, can send out the random wave based on the wave spectrum. The end of the pool is provided with an inclined sloping plate with a certain slope to absorb the residual wave energy. A certain amount of water is injected into a test water pool, the cake-shaped ice frozen in a low-temperature test chamber is spread on the water surface, and a metal net is fixed behind an ice area and used for limiting the drifting of the cake-shaped ice so as to facilitate the accumulation of the cake-shaped ice. The wind tunnel is positioned above the water pool, the wind tunnel air inlet is positioned above the tail end of the water pool, and the wind tunnel movable air outlet is positioned above the front end of the water pool, so that the angle of blowing the cake-shaped ice by wind can be adjusted. Wind sweeps over the water surface and drives the cake-shaped ice to drift and accumulate, and finally the wind blows away along the inclined plate at the tail end of the water tank. The observation camera is positioned at one side of the water pool close to the cake-shaped ice and is used for observing and recording the drifting and accumulating conditions of the cake-shaped ice under the simultaneous action of wind and waves.
During the test, firstly, a certain amount of water is injected into a test water pool, the cake-shaped ice frozen in a low-temperature test room is laid on the water surface on one side of the metal net, the wave generator is started to emit random waves based on a wave spectrum, and the wind tunnel is started to blow wind to the cake-shaped ice at a certain speed so that the cake-shaped ice starts to accumulate under the simultaneous action of the wind and the waves. The characteristics of the drifting and accumulation of the cake-shaped ice are observed and recorded by using the observation camera, and the drifting and accumulation conditions of the cake-shaped ice under the simultaneous action of wind and waves are researched by changing the conditions of the speed of wind in the wind tunnel, the angle of wind blowing to the cake-shaped ice and the like and carrying out multi-parameter tests, so that the influence of the change of factors such as the wind speed on the drifting and accumulation of the cake-shaped ice is explored.
During the experiment, the wave generator 2 is started to emit random waves based on the wave spectrum, the wind tunnel is started to blow wind from the wind tunnel air inlet 7 at a certain speed, the wind is blown out from the movable air outlet 6 and blows the pie-shaped ice 4, and the pie-shaped ice 4 floats and accumulates under the action of the metal mesh 5. The sloping plate 3 absorbs the residual wave energy, and the wind blows over the water surface and is finally blown out from the sloping plate 3 at the tail end of the water tank. At this time, the accumulation of the cake ice 4 by the wind simultaneously with the waves is observed and recorded by the observation camera 8. The speed of the wind blown out from the wind tunnel is changed, the accumulation condition of the cake-shaped ice 4 under the simultaneous action of the wind and the waves is recorded again through the observation camera 8, the accumulation characteristics of the cake-shaped ice are observed and analyzed, and the influence of different wind speeds on the drifting accumulation of the cake-shaped ice is explored. The invention can also research the characteristics of drifting and accumulating of the pie-shaped ice under different conditions by changing the angle of wind blowing to the pie-shaped ice, the thickness of the ice and other parameters.
An experimental device for simulating pie-shaped ice drifting accumulation on wind-driven waves comprises a test water pool with a glass side face, a wave generator, an inclined plate for absorbing wave energy, a metal net, a wind tunnel and an observation camera. The invention utilizes the wave generator to generate persistent random waves based on a wave spectrum, so that wind blows to the cake-shaped ice floating on the water surface through the wind tunnel at different speeds, thereby causing the cake-shaped ice to generate drift accumulation under the simultaneous action of the wind and the waves, observing and recording the accumulation condition of the cake-shaped ice through the observation camera, and researching the drift accumulation condition of the cake-shaped ice under the simultaneous action of different wind speeds, waves and other factors. The speed of wind and the angle of blowing in can the self-defined selection, also can change the thickness of pie ice simultaneously, can the high-efficient accumulation condition to pie ice under the different factor effects of research.
Claims (1)
1. An experimental apparatus for simulating the drifting and accumulation of pie-shaped ice on wind-driven waves, characterized in that the apparatus comprises: the device comprises a test pool (1), a wave generator (2), an inclined plate (3), cake-shaped ice (4), a metal net (5), a wind tunnel and an observation camera (8); the test pool (1) is fixedly placed on the horizontal ground, and the test pool (1) is provided with a glass side surface; the wave generator (2) is arranged at the front end of the test water pool (1) and can generate persistent random waves based on a wave spectrum; the inclined plate (3) is arranged at the tail end of the test water pool (1) and is used for absorbing residual wave energy; the cake-shaped ice (4) is laid on the water surface; the metal net (5) is fixed behind the cake-shaped ice (4); the wind tunnel is positioned above the water pool, the wind tunnel air inlet (7) is positioned above the tail end of the test water pool (1), and the wind tunnel movable air outlet (6) is positioned above the front end of the test water pool (1); the observation camera (8) is positioned at one side of the test water pool (1) close to the pie-shaped ice (4).
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