WIND-POWER PLANT
BACKGROUND OF THE INVENTION
1. Field of the Invention
The invention has to do with wind-power engineering and can be used
in producing and accumulating of heat and electric power of industrial and
consumer purposes, and also for gear of pumping and compressor stations,
circular saws and power-saw benches, mills, oil-mills and other power
establishments.
2. Discussion of the Prior Art
We know wind wheel of sail operation with the vertical shaft that
works in a block with an electrical generator. It has semi-cylindrical
blades connected with the vertical shaft by upper and lower horizontal
traverses. Between these traverses, there are vertical posts
supplied with regulation weight with a pawl and guide lath. More over, the
weight is installed with the capacity of traveling along the lath [1] .
We also know the wind-power plant that is more similar to this one by
purpose and the whole complex of indications. It contains wind wheel
connected with the pump kinematicaly. This pump has suction branch pipe and
pressure one, electrical generator with its hydro-conductor, heat
accumulator, heat exchanger, circular pump and connecting mains [2] .
The problem resolved by this invention is the lowering of power force
that counteracts to the rotation of the wind wheel during the blades' motion
towards the contrary wind and increasing the capacity for transformation the
energy of wind wheel with the compact construction of the plant.
This problem is resolved because, in contrast to well-known power-wind
plant that consists of wind wheel connected with the pump kinematicaly, has
suction branch pipe and pressure one, electrical generator with its
hydro-conductor, heat accumulator, heat exchanger, circular pump and
connecting mains, in our plant, the wind wheel has a form of a couple of
blades that form, in a plan, S-formed configuration with the center of
mirror symmetry by rotation axle, where the blades are fixed. On their
convex surface, wind-reducing structure is formed, and, on the remote one,
the heater is done as the heater YUSMAR that is inserted in hydraulical ly
locked circuit of pump, its pressure branch pipe, heat generator,
hydro-conductor of electrical generator, heat accumulator and incoming
branch pipe of the pump. Wind-reducing structure is a cell covering of
elastic material, travelling locally relatively to the blade's surface.
This surface forms binary combination like a combination in a golf
ball. The rotation axle of the wind wheel and inertial weights on the
blades are shielded against the wind blades that counteract the rotation.
SUMMARY OF THE INVENTION
The technical result achieved by this invention is to reduce the
influence of the contrary wind that counteracts blades rotation and
increase heat and electric power of the plant as it has compact, hard and
easy construction.
It is secured by convex and concave form of the blade with the wind
reducing structure by convex surface that is like a structure of a golf ball
[3] , shielding inert ial weights and rotation axle of the wind wheel
against the contrary wind, and, also, by installing the heat generator
YUSMAR in the hydraulically locked circuit for transformation the wind wheel
into heat and electrical energy.
Over it, the heat generator YUSMAR means aggregate b'ised on the
high-speed driving of the liquid in a closed volume and sharp braking of it
in
this volume that, according to the law of thermodynamics, brings the rise in
temperature and liquid pressure. The heat generator YUSMAR, that is one part
of above-mentioned wind-power plant, is known by its high properties of
transformation [4, 5] . The wind-reducing structure means cell covering as
fixed on the convex surface of the blade mechanically so formed by
corrugating or something like this and covering the cells of .he material
with the spring property.
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BRIEF DESCRIPTION OF THE DRAWINGS
Fig 1 is a wind-power plantCthe general view);
Fig 2 is the section of a couple of blades fixed on the rotation
axle;
Fig 3 is the diagram of power connections.
DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS
The wind-power plant is formed by wind wheel 1 that is connected with
it kinematicaly by mechanical gear 2, block of accumulation and energy
transformation 3 and direction block 4.
The wind wheel 1 consists of vertical rotation axle 5 fixed in a
bearing 6 and connected with the gear 2 kinematicaly. On the axle 5, a
couple of blades 7 is fixed. It stretches vertically and forms S-formed
configuration by its section(view in the draft). Over it, the convex surface
of one blade is conjugated with the convex surface of ano.her one by
pre-wings 8 that shield the axle 5 against the wind and other atmospheric
influences. On the tags of the blades 7 (relatively to the axle ) , there
are inert ial weights 9 shielded against the contrary wind by post-wings 10.
Along the whole convex surface of the blades 7, the wind-reducing structure
is formed, for example, like the mechanically fixed covering of
polyethylene 1,5-10 mm with the cells 12x12 mm, cell pitch 20-25 mm and
drawing out degree of 4-5. The upper tag of the axle 5 has a bearing of
cruciform carriage 12 with the hipped stops 13 and pegs 14 for tension ropes
15 that have anchors 16 and regulation means 17 for tension ropes 15. So,
the wind wheel 1 keeps by bearing 6 and carriage 12 vertically. The bearing
is fixed on the axle 5 by tension ropes 15.
The mechanical gear with its brake knots of the rotation axle 5 and
regulation of the speed of rotation can be done in several versions. For
example, tooth of friction gear(knot), planetary mechanism, but,
nevertheless, it must satisfy the functional purpose such as transmitting
the energy of the wind wheel 1 to the block 3 of accumulation and
transformation of this energy. This block includes the pump 18 connected
with the gear 2 kinematicaly and incoming branch pipe 19 for suction of the
working liquid from the heat accumulator 20 through the hydro-main 21 of the
closed circuit and pressure branch pipe 22. This feeds the working liquid
under the pressure to the space( incoming) of the heat generator YUSMAR 23
then to the turbineds not shown) of hydro-gear 24 of the electrical
generator 25. The heat accumulator 20, heat generator 23, turbine of
hydro-gear 24 that is, like a pump, a part of the block 3, form hydraulic
circuit along the hydro-main 21 with the pump 18 and its branch pipes 19 and
22. The working liquid circulates by this circuit. For replenishing the
working liquid, the tank 26 is connected with the hydromain 21.
Charge device 27, electrical accumulators 28 and current transformer
29 also come into block 3. With the electrical generator they form
consecutive electric circuit with the exit to the consumer of electrical
energy. The heat exchanger 30 is installed in the heat accumulator 20. It
has a form of coil with its main 31 and circular pump 32 for pumping over
the consumer medium( 1 iquid) through the heat exchanger 30 and then to the
consumer .
Regulation block unites the means of manual and programming ac ions
through the executive elements to the mechanical gear 2 and aggregators that
form the block 3. Constructively, the block 4 is a panel with the control
levers and buttons connected with the executive elements(is not shown), and,
for working in automatically conditions, there is mini-IBM or another
aggregate adapted to the concrete executive elements.
This plant is compact but, taking into account the rated power, swing
and vertical length of the blades 7 will be different for different powers.
The mass and occupied space of the bearing 6 and carriage 12 with the
hipped stops 13 will be different, too. y way, the plant is mobile and its
exploitation begins with the installing of the wind wheel 1. The verticality
of axle 5 is achieved by the influence over the regulator 17 of tension
ropes 15, that are hung up on the pegs 14 and fixed in the bottom by the
anchors 16. Then, all blocks are installed in a whole energy diagram.
Installed wind-power plant works as the following.
During the interaction of the wind wheel 1 and the wind, with the
con¬
formity to physical law, the pressure of the concave surface of the blades 7
is always more then the pressure of the convex one. That is why even with
the
speed of the wind less than 4,0 m per sec, there always is a rotation
moment
for such blades. It is enough to beginning the work without additional
external starting influence. Reducing the moment that counteracts the
rotation of the wind wheel 1 is not only because of a concave-convex surface
of the blades 6
but also because of pre-wings 8. It helps to transform the contrary
wind into fair one by "streaming down" from the convex surface of one blade
6 to the convex(working) surface of another one 6.
When the speed of the blades is less than the given one, the block 4
of control regulates the short-term work of the wind wheel 1 by its
executive
elements in an idling rate. On coming out in^ working rate, speed of
rotation
swi tches on the mechani cal gear 2 that transfers thi s rotat ion to the pump
18
of the block 3. Here the mechanical energy of the wind wheel 1 transforms
into the rotation of the working liquid by closed circuit formed by the main
21.
Through the pressure branch pipe 22, the working liquid is passed tho
the case of heat generator 23. Here its motion and heating is done as it is
described in information [4, 5] : working liquid comes into injector branch
pipe, then into accelerator of the liquid-cyclone motion where is the
increase of the speed of liquid and its kinetic energy. Then the liquid with
the higher speed is thrown out to the brake element and out hole with a
small diameter in the case of the heat generator. It reduces the speed of
the liquid abruptly and rises the temperature and the pressure also
abruptly. Through the out nozzle of the heat generator this higher energy,
liquid is thrown out to the hydroturbine kinematicaly connected with the
hydro-gear 24 of the electrical generator 25. Its energy comes to the
consumer, coming through the electric circuit before. This circuit is formed
by the charge device 27, electrical accumulators 28 and current transformer
29. Hot working liquid passing the hydro-turbine from the case of heat
generator 23 by the main 21 comes into heat accumulator 20 where heats the
water or another liquid in the heat exchanger 30. Then, the pump 18 sucks is
again and through the incoming branch pipe 19 it locks its cycle motion.
Heated in the heat exchanger 30 the liquid is pumped over by the circular
pump 32 to the customer.
Wind-power plant can work with any power-consuming mechanisms
individually and in the aggregate with another power systems, and also for
producing the heat or electrical energy, or as a mechanical branch pipe to
different aggregates: pumps for pumping over the liquid, power-saw benches,
mills. It is autonomous and does not need an external energy grant. It is
mobile, durable and can be used in different climate and atmospheric
conditions: if there is a threat of tornado, the wind wheel 1 can be
dismantled quickly.
While the working in automatic rate, when the speed of wind is higher
than it is given in program, the plant stops in the position of the biggest
streamlining - in a lateral projection of the blades 7 to the wind forming
the cylinder with the low sail operation.
According to this invention an experimental model of the wind-power
plant is created. Its total power is 15kW. The swing of the blades is 2250
their vertical length is 6000 mm. The work of this plant is stable if the
speed of wind is more than 4 m per sec. It occupies a small area is pure and
not exigent in exploitation.