[0001] The present invention refers to a device for breaking up the volume of liquid fuels
in order to achieve uniformity in the fuel molecules, so as to create a uniform molecular
composition.
[0002] In an internal-combustion engine (I.C. Engine) with a spraying supply system of gasoline-oil,
the spraying (atomization) of the fuel is accomplished through atomizers. The atomized
fuel forms a cloudy mass of air and gasoline droplets in the composition chamber.
[0003] Up to now it is attempted the dispersion or spraying rate of the fuel to be proportional
to the droplets number, which droplets are formed by a certain quantity of fuel broken
up at the injection in the combustion chamber of the engine. It is aimed the number
of these droplets, that is the dispersion degree of the fuel, to be as much as possible
great, so that the exterior surface presented between fuel and air to be adequate
for establishing a perfect combustion.
[0004] If we take a sprayed droplet and examine it concerning its molecular composition,
we will find that it consists of oxygen, carbon dioxide, hydrocarbon etc molecules,
always in numerically greater quantities than one molecule and not equally spaced
between them.
[0005] This dissimilarity concerning the molecular composition and the unequal distances
from the oxygen molecules in a sprayed droplet is the main reason why the internal
combustion engines present their momentum in accordance with the increase of their
revolutions (rpm) and that the maximum of their momentum is reached at a very high
number of revolution.
[0006] On the contrary, examining this theoretically, if we manage to put at the center
of a sprayed droplet the oxygen molecule and to bring in touch with its perimeter
the other molecules, and if we continuously spray to the internal combustion engine
such droplets, the exploitation of the fuel would be perfect due to the uniform molecular
composition, in relation to the engine efficiency.
[0007] All this is known to the I.C. Engines supply system constructors, who, in order to
solve this problem and to approach this theory:
a) Increase the pressure of the atomizers,
b) Increase the number of bores at the end of the atomizers,
c) Change the inclination angles of the bores,
d) Redesign and increase or decrease the intake tubes,
e) Seek to achieve strong turbulence of the fuel before its entrance in the combustion
chamber.
[0008] They want the fuel not to be injected as a cylindrical column, but that its droplets
be formed as a conically shaped cloud, which guarantees a better contact of the scattered
droplets with the air, in other words the constructors try to split the sprayed fuel
in more and smaller droplets.
[0009] With the new type of our device for breaking up the volume of liquid fuels, we achieve
the aim that the fuel entering the atomizers will consist of uniform molecules and
that the droplets sprayed will consist of uniform molecules in correct ratio, so that
the best possible combustion is achieved.
[0010] The above and other features and advantages of the present invention will be evident
from the following analytical description. The invention will be better understood
by referring to the accompanying drawings which depict an embodiment thereof.
[0011] Fig. 1 shows schematically the device.
[0012] Fig.2 shows schematically the support mounting of the device with its retaining screw
nut.
[0013] Fig. 3 shows schematically the fuel reservoir and the device mounting with the elastic
gasket which acts for their sealing.
[0014] Fig.4 shows the inlet or outlet nipple, with the elastic gasket which is screwed
in the thread of the mounting.
[0015] Fig.5 is a cross section of the outlet plug of water-squalors, together with the
elastic sealing gasket.
[0016] Fig.6 is another view of the water-squalors outlet plug, with the threaded outlet
duct not terminated at the lowest point, so as to achieve an effective clamping-sealing
with the fuel reservoir.
[0017] Fig. 7 is a top view of the water-squalors outlet plug.
[0018] Fig.8 is a top view of the device mounting, where three possible inlets and one outlet
thereof are depicted.
[0019] Fig.9 shows the cross-sections A-A and B-B of the device mounting.
[0020] Fig.10 shows the vertical layers of the uniformly joined together beads for forming
the cone of the breaking up device.
[0021] Referring now to the accompanying figures, we will describe an indicative preferable
implementation of the invention. The device is placed as near as possible, near to
the spraying system, and the fuel has to pass first through the cleaning filter so
as to be absolutely clean for achieving the aims of the invention.
[0022] The device Fig.1 is formed by the mounting (1) in which there are three closed inlets,
among which the operator chooses the appropriate one, which will offer the best operation
Fig.8, and one open outlet. The three inlets (8), (9), (10) and the outlet (11) of
Fig.8 are cross shaped.
[0023] The device mounting is metallic, but it can also be of plastic, and this is not restrictive.
In the mounting thread are screwed, through the elastic gaskets (2) Fig.4, the two
inlet (3) and outlet (4) nipples of the device Fig.1. The fuel reservoir (5) Fig.
3 of 250gr. nominal capacity is screwed to the mounting (1) of the device through
the elastic gasket (6), for fully sealing the said parts. In the lowest part (7) of
the fuel reservoir (5) the outlet plug Fig.5 of water-squalors (12) is screwed, the
thread of which contains a duct of removing the refuse, this duct not covering the
whole length of the thread, so as to achieve also, by the elastic gasket, the effective
clamping-sealing of the fuel reservoir.
[0024] Inside (13) the device mounting (1), the cone (14) is bolted for breaking up the
fuel. It is created by uniform beads (15) of 0,001 to 0,999µ. diameter welded together.
As material for making the beads a porous metal (bronze) is used, not excluding the
use of plastic, glass and of any other adequate material.
[0025] The beads are welded together in vertical layers, one to 200 or even more, creating
thus a closed surface in the shape of a truncated cone (14), cylinder, closed washer,
plate, or of any other adequate shape.
[0026] The creation of the layers is accomplished as follows.
[0027] After forming the first bead layer, in every gap produced in the center of four welded
together beads a new bead is being welded creating thus a new layer. The same procedure
is repeated for the gaps formed by the second layer creating thus the third layer
and so on. Continuing doing this, we can form as many layers we wish.
[0028] The device is being placed on the vehicles' body with the help of the support mounting
(16) Fig.2 and its retention is assured by the nut in the center of the mounting (1),
so that the engineer can start the rotation of the engine in the best way he prefers.
[0029] The device is loaded with fuel coming from the inlet of the metallic mounting, filling
up the reservoir (5), and the fuel's volume is forced to pass through the whole mesh
of the conically arranged metallic beads mentioned above.
[0030] By passing through the gaps of the first layer, the breaking up of the fuel's volume
is achieved. The molecules passing through the gaps of the first layer to continue
to the second one have three exit outlets, and the same happens in every layer.
[0031] The molecules passing by the gaps of the layers are being rotated in order to find
one of the three exit outlets and, in accordance with their diameter and weight, are
being delayed inside the device until they leave the last layer. In this way the molecules
are being controlled and at the exit from the device the molecular consistency of
the fuel is changed.
[0032] The main advantages obtained with the device during the operation of the engine are:
- Increase of the momentum.
- The maximum momentum is obtained at lower revolutions of the engine, and the width
of the maximum momentum is maintained constant for a greater number of revolutions.
- The horse-power of the engine is increased.
- The combustion is clean.
- Squalors are decreased.
- The engine's noise is less.
- The engine's temperature is constant, resulting in less wear and longer life of the
engine.
[0033] It must be noted that the description of the invention was made in the way of a non
limiting exemplary embodiment. Any change or modification concerning the shapes, dimensions,
and materials used for the construction and the assembly, if they do not form a new
inventing step are considered to be included within the scope and aims of the present
invention.
1. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition, characterized by that it is consisting of the mounting (1) with three closed intakes, and the engineer
can choose to open the one that suits him/her more, and with one open outlet, all
of which are cross shaped, where in the mounting thread the two intake (3) and outlet
(4) nipples of the device are screwed, and of the fuel reservoir (5), at the lowest
point (7) of which the water-squalors outlet plug (12) is being screwed, whose thread
has a duct for the exit of the refuse, by that in the interior (13) of the mounting
the cone (14) is screwed for obtaining the fuel breaking up, and by that with this
device we obtain the result that the fuel channeled to the atomizer will consist of
uniform molecules and that the droplets sprayed will have the correct ratio of molecules
for achieving the best possible combustion.
2. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition in accordance with the above claim 1, characterized by that this device is placed as near as possible to the spraying system, and by that
the fuel has first to pass through the purification system so that it is perfectly
clean for attaining the aims of the device.
3. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition in accordance with the above claim 1, characterized by that the device mounting can be of metal, plastic or of any other suitable material,
and by that in this mounting the fuel reservoir (5) of indicative capacity of 250gr.
is screwed through the elastic gasket (6), for its full sealing.
4. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition in accordance with the above claim 1, characterized by that the thread of the water-squalor (12) outlet plug has a duct not fully covering
the length of the thread, so as to obtain an effective clamping-sealing with the fuel
reservoir by means of the elastic gasket.
5. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition in accordance with the above claim 1, characterized by that the cone (14) which acts for the breaking up of the fuel is created by uniform
beads (15) of 0,001-0,999µ. diameter welded together, and by that as material a porous
metal is used, not excluding the use of plastic, glass or of any other adequate material.
6. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition in accordance with the above claim 1, characterized by that the beads for forming the cone are welded together in vertical layers, from
one to 200 or even more, producing a closed surface of conical, cylindrical, closed
washer, plate or of any other adequate shape, and by that after creating the first
bead layer in every gap formed in the center of four welded together beads a new bead
is being welded establishing thus a second bead layer, and the same procedure is repeated
at the gaps resulting from the beads of the second layer, resulting in a third layer,
and so on, creating thus as many layers we wish.
7. Device for breaking up the volume of liquid fuels in order to achieve a uniform molecular
composition in accordance with the above claim 1, characterized by that the device is loaded with fuel entering from the inlet of the metal mounting
and filling the reservoir (5), by that the fuel has to pass through the whole mesh
of the metal beads, by that the passage through the gaps of the first layer produces
the breaking up of the fuel volume, by that the molecules passing through the gaps
of the first layer on their way to the second layer have three exit outlets, and the
same happens with every other layer, and by that when the molecules pass through the
gaps they are being rotated in order to find one of the three exit outlets and depending
on their diameter and weight, they are delayed within the device until they can find
the last layer, and in this way the molecules are being controlled and at the exit
of the device the molecular composition will have changed.