WO2011093548A1

WO2011093548A1 - Heat generating device using rotatory force

Info

Publication number: WO2011093548A1
Application number: PCT/KR2010/000864
Authority: WO
Inventors: 양상홍
Original assignee: 두배라 주식회사
Priority date: 2010-01-29
Filing date: 2010-02-11
Publication date: 2011-08-04

Abstract

The present invention relates to a heat generating device using rotatory force, which includes: a housing opened at one side and having an inlet for introducing fluid and an outlet for discharging the same; a rotation shaft inserted into the center of the housing to be rotatable; a rotation body rotating together with the rotation shaft and heating the fluid introduced into the housing; and a cap sealing the opened one side of the housing so as to prevent the leakage of the fluid and make the rotation shaft rotatable. The heat generating device heats fluid which has fluidity with heat generated by the rotation of the rotation body and can be substituted for a boiler. The rotation body is formed with valleys and holes for maximizing the frictional heat of the fluid, so that the heating temperature of the fluid may be maximized as compared with the rotation amount of the rotation body. In addition, it is possible to minimize the number of rotation bodies by forming valleys and holes in the rotation body, so as to reduce the driving force required for the rotation thereof.

Description

Heat generator using rotational force

The present invention relates to a heat generating device using a rotational force, and more particularly, it is possible to replace the boiler with a frictional heat generated by rotating the fluid having fluidity as a rotating body, forming a valley and holes in the rotating body to the fluid By maximizing the frictional heat, the heating temperature of the fluid can be maximized compared to the rotational amount of the rotating body, and the number of the rotating bodies can be minimized by forming valleys and holes in the rotating body, thereby reducing the driving force required for rotation. It relates to a heat generating device using a rotational force.

In general, the heat generator is used for supplying heating and steam in homes, industrial facilities or agricultural facilities.

The heat generating device mainly used a conventional boiler, etc., the boiler has a variety of problems, such as not only complicated equipment, but also discharge various harmful substances during the operation of the boiler.

In order to improve this problem, a number of heat generating apparatuses using a fluid have been disclosed.

The heat generating apparatus using the fluid proposed in the prior art includes a plurality of rotary rings in which a rotation means coupled to a rotating shaft installed in the center of the working space inside the housing and a fixing means coupled to the outside of the housing form a predetermined gap in the circumferential direction; It is interlocked and installed by a fixing ring, and a plurality of through holes are formed in the rotating ring and the fixing ring of the rotating means and the fixing means so that the fluid supplied through the central fluid supply pipe is rotated in the circumferential direction by the centrifugal force of the rotating shaft. As it is discharged to the outer discharge pipe through the through hole of the fixing ring, heat is generated by compression and frictional force.

In the heat generating apparatus using the conventional fluid, the fluid introduced into the fluid supply pipe is supplied in the circumferential direction by the rotational centrifugal force of the rotating shaft. Phenomenon is generated, there is a problem that can not maximize the compression and friction process by the rotating ring and the fixed ring does not maximize the heat generating efficiency. In addition, the heat generating apparatus using the conventional fluid has a problem that the power consumption is increased by using a motor with a large driving force for the initial rotation of the shaft, as a plurality of rotary rings and fixed rings on the shaft. Therefore, there is a need for improvement.

The present invention has been made in order to solve the above problems, it is heated by using a frictional heat generated by rotating the fluid having a fluid stored in the interior sealed by the housing and the cap with a rotor to the heated fluid to the boiler It is an object of the present invention to provide a heat generating device using a rotational force that can be replaced to realize the eco-friendly.

In addition, the present invention is a heat generating device using a rotational force to maximize the heating temperature of the fluid relative to the amount of rotation of the rotating body by maximizing the frictional heat in the fluid by forming a valley and holes in the rotating body provided in the housing and the cap The purpose is to provide.

In addition, an object of the present invention is to provide a heat generating apparatus using a rotational force to reduce the driving force required during rotation, as the number of the rotational body can be minimized by forming the valleys and holes in the rotating body.

Heat generating apparatus using a rotational force according to the present invention: a housing having an inlet opening and a discharge opening for opening fluid to one side, a rotating shaft rotatably inserted in the center of the housing, the shaft is inserted into the rotating shaft inside the housing And a rotating body which rotates together with the rotating shaft and heats the fluid introduced into the housing, and seals an open side of the housing to prevent leakage of the fluid and rotatably inserts the rotating shaft. .

The rotating body preferably forms a recessed groove of a circular or polygonal trajectory on one side in order to increase the frictional force with the fluid during rotation.

The rotating body preferably forms a plurality of communication holes communicating from the bottom surface of the recessed groove to the other side.

The rotating bodies are provided in pairs so that the recessed grooves face each other or face in different directions, and are disposed to be spaced apart from each other.

Adjacent the rotating body is preferably to maintain a spaced gap by forming a gong between.

The cap is preferably provided with an auxiliary inlet for introducing a fluid.

The rotating shaft may form a lock nut that is separable from the support block fixed to the circumferential surface to fix the plurality of the rotating bodies.

The housing and the cap form a flange at an edge, and the facing flange is preferably detachably coupled by a fastening member.

Preferably, the housing and the cap are supported by the holder.

As described above, the heat generating apparatus using the rotational force according to the present invention, unlike the prior art, by heating the fluid having a fluid stored in the interior sealed by the housing and the cap as a rotating body using the heat of friction generated It is possible to replace the boiler with this heated fluid to realize eco-friendly.

In addition, the present invention can maximize the heating temperature of the fluid relative to the amount of rotation of the rotating body by maximizing the frictional heat in the fluid by forming the valleys and holes in the rotating body provided in the housing and the cap.

In addition, the present invention can minimize the number of the rotating body by forming the valleys and holes in the rotating body can reduce the driving force required during rotation.

1 is a perspective view of a heat generating device using a rotating force according to an embodiment of the present invention.

2 is an exploded perspective view of a heat generating apparatus using a rotating force according to an embodiment of the present invention.

3 is a cross-sectional view of a heat generating apparatus using a rotating force according to an embodiment of the present invention.

10 housing 12 inlet

14: outlet 20: axis of rotation

30a: rotating body 32: recessed groove

34: Communication Hall 36: Slaughter

40: cap 42: auxiliary inlet

44: contact jaw 52: flange

54: fastening member 60: holder

Hereinafter, with reference to the accompanying drawings will be described an embodiment of a heat generating apparatus using a rotational force according to the present invention. In this process, the thickness of the lines or the size of the components shown in the drawings may be exaggerated for clarity and convenience of description. In addition, terms to be described below are terms defined in consideration of functions in the present invention, which may vary according to the intention or convention of a user or an operator. Therefore, the definitions of these terms should be made based on the contents throughout the specification.

1 is a perspective view of a heat generating device using a rotational force according to an embodiment of the present invention, Figure 2 is an exploded perspective view of a heat generating device using a rotational force according to an embodiment of the present invention, Figure 3 is one of the present invention Sectional drawing of the heat generating device using the rotational force according to the embodiment.

1 to 3, a heat generating apparatus using a rotating force according to an embodiment of the present invention includes a housing 10, a rotating shaft 20, a rotating body 30a, and a cap 40.

The housing 10 is open to one side and has a space for accommodating fluid having fluidity with the rotor 30a therein.

In addition, the housing 10 serves to insert the rotation axis 20 rotatably along the central axis.

In particular, the housing 10 has an inlet 12 for introducing a fluid and an outlet 14 for discharging the fluid.

Of course, the housing 10 can be applied in various shapes.

Here, the housing 10 may be formed to be separated from the peripheral surface and the bottom surface, or may be formed integrally.

The housing 10 may be made of various materials, but preferably made of a material that can withstand high temperatures.

At this time, the fluid having fluidity is preferably made of water having a property of being easily heated by friction of the rotating body 30a.

In addition, the rotation shaft 20 is inserted into the shaft rotatably along the central axis of the housing 10.

In addition, the rotation shaft 20 is forcibly rotated by an external force. For convenience, a motor for transmitting a driving force is not shown.

Of course, the rotating shaft 20 is applicable to a variety of shapes, preferably made of a material having a low thermal strain.

On the other hand, the rotating body 30a is inserted into the rotating shaft 20 is provided inside the housing 10. Thus, the rotating body 30a rotates together with the rotating shaft 20 and serves to heat the friction fluid into the fluid introduced into the housing 10.

Therefore, the housing 10 preferably forms the inlet 12 for introducing the fluid and the outlet 14 for discharging the fluid at a position as far as possible.

This is to increase the heating time by the rotating body 30a by maximally increasing the time that the introduced fluid moves to the outlet 14.

In addition, the rotating body 30a may be fixed to the rotating shaft 20 by various methods.

As an example, the pin receiving groove 56 is formed in the circumferential surface of the rotating shaft 20 and the inner surface of the center hole 31 of the rotating body 30a, and the fixing pin 58 is formed in the pin receiving groove 56 facing each other. This is accepted at the same time.

Therefore, the rotating body 30a and the rotating shaft 20 are restrained from each other by the fixing pin 58.

And, the rotor 30a is preferably made of a material having a low thermal strain due to high temperature.

In addition, the cap 40 serves to seal the open side of the housing 10 to prevent leakage of the fluid.

And the cap 40 inserts the rotating shaft 20 so that rotation is possible.

Accordingly, the rotation shaft 20 inserts one side into the housing 10 and the other side into the cap 40.

In this case, the gap between the rotating shaft 20 and the housing 10 and the gap between the rotating shaft 20 and the cap 40 are preferably sealed by various sealing materials such as a mechanical seal.

In addition, the cap 40 preferably forms a contact jaw 44 in contact with the inner surface of the housing 10 in order to sufficiently seal the open side of the housing 10.

That is, the sealing jaw 44 is continuously contacted along the inner surface of the housing 10, and the cap 40 is continuously contacted along the edge of the housing 10, thereby improving the sealing force.

In particular, the cap 40 is preferably formed detachably in the housing 10.

Of course, the cap 40 is applicable to a variety of shapes, preferably made of a material having a low thermal strain due to high temperature.

On the other hand, the rotor 30a preferably forms a recessed groove 32 having a circular or polygonal trajectory on one side in order to increase the frictional force with the fluid during rotation.

That is, when the rotating body 30a rotates, the fluid introduced into the recessed groove 32 is heated while rubbing against the fluid flowing freely because it does not flow into the recessed groove 32. In addition, when the rotor 30a rotates, the fluid is compressed and heated.

At this time, the recessed groove 32 is continuously formed along various trajectories, but may be formed on both sides of the rotating body 30a, but is formed as deep as possible on one side of the rotating body 30a to maximize the flow of fluid. desirable.

Of course, the rotor 30a forms one or more numbers of the recessed grooves 32.

In particular, the number of the recessed grooves 32 is determined by the factors such as the number of revolutions of the rotating body 30a, the set heating temperature of the fluid, the time required to reach the set heating temperature and the like.

In addition, the rotating body 30a preferably rotates and forms a plurality of communication holes 34 communicating from the bottom surface of the recessed groove 32 to the other side in order to maximize frictional force with the fluid.

That is, the fluid introduced into the recessed groove 32 is discharged little by little through the communication hole 34 and spread radially.

At this time, since the fluid discharged through the communication hole 34 is a high speed, the fluid itself is heated to a high temperature in a short time while hitting hard with the fluid remaining on the outside of the rotating body (30a).

Of course, the number and diameter of the communication hole 34 is determined by factors such as the number of revolutions of the rotating body 30a, the set heating temperature of the fluid, the time required to reach the set heating temperature, and the like.

Meanwhile, one rotating body 30a may be provided, but a plurality of rotating bodies 30a may be provided to increase the friction area with the fluid.

That is, the rotors 30a are preferably provided in pairs so that the recessed grooves 32 face each other or face in different directions.

For convenience, a pair of rotors 30a are provided, and the recessed grooves 32 are disposed to face each other.

At this time, if the number of the rotating body 30a is too large, the driving power consumption is increased to rotate the rotating shaft 20.

Accordingly, the number of the rotating bodies 30a is determined by factors such as the time required to reach the set heating temperature of the fluid, the time required to reach the set heating temperature, the power consumption amount, and the like.

In addition, it is preferable that the rotating bodies 30a are arranged to be free from each other.

This is to increase the friction area with the fluid so that the fluid is easily introduced therebetween by spacing the gap between the recessed grooves 32 facing each other.

Of course, the interval between adjacent rotors 30a is determined by factors such as the time required to reach the set heating temperature of the fluid, the time required to reach the set heating temperature, and the like.

On the other hand, it is preferable that a plurality of rotating bodies 30a are mounted on the rotating shaft 20 so that the interval therebetween is maintained, and each rotating body 30a is mounted perpendicular to the central axis of the rotating shaft 20. desirable.

This is to prevent shaking of the housing 10 by the rotating body 30a when the rotating shaft 20 rotates.

Thus, each rotating body 30a mounted on the rotating shaft 20 is preferably mounted perpendicularly to the central axis of the rotating shaft 20 by balancing operations by separate equipment or by hand.

Therefore, it is preferable that adjacent rotors 30a form a grate 36 therebetween to maintain the spaced gap therebetween.

In particular, the grate 36 is formed to be as wide as possible within the range to be interviewed with the neighboring rotor 30a is preferably such that each rotor 30a is arranged perpendicular to the rotation axis (20).

Here, the 'possible range' means a range excluding a range in which the recessed groove 32 is to be formed in the rotor 30a by various factors.

At this time, the grate 36 may be provided separately from the rotating body 30a and formed between the adjacent rotating bodies 30a, or may be formed in each rotating body 30a to be in contact with each other.

For convenience, the grate (36) is shown integrally formed in each rotating body (30a) is formed in contact with a pair.

In particular, the cap 40 preferably forms an auxiliary inlet 42 for introducing fluid.

Accordingly, for example, the fluid is introduced into the housing 10 through the inlet 12 formed at one side of the housing 10 and the auxiliary inlet 42 formed at the other side of the cap 40, and the rotating body 30a. After being heated by the discharge through the discharge port 14 formed on the peripheral surface of the housing (10).

That is, the inlet 12 is formed in the housing 10 corresponding to the outside of the rotating body 30a located at one outermost side, and the auxiliary inlet 42 corresponds to the outside of the rotating body 30a located at the outermost side of the other side. It is preferably formed in the cap 40 to be.

In addition, the outlet 14 is preferably formed on the circumferential surface of the housing 10 corresponding to the central portion with respect to the entire length of the plurality of the rotating body 30a arranged.

At this time, when a pair of the rotating body 30a is provided, the inflow port 12 and the auxiliary inlet port 42 is the fluid flowing in to prevent the thermal deformation due to the heating of the rotating body 30a itself, each of the rotating body 30a ) Is formed in the housing 10 and the cap 40 to be in contact with the short time.

Of course, the inlet 12, the auxiliary inlet 42, and the outlet 14 may interrupt the flow of the fluid by a valve or the like.

In addition, the number and diameter of the inlet 12, the auxiliary inlet 42 and the outlet 14 can be variously applied.

In addition, the plurality of rotating bodies 30a may be inserted into the rotating shaft 20 and fixed to the rotating shaft 20 in a state of being spaced apart by the grate 36.

As an example, the rotating shaft 20 is preferably formed of a lock nut 24 that is removable from the support block 22 fixed to the circumferential surface to fix the plurality of rotating bodies 30a.

That is, the outermost rotor 30a on one side is supported by the support block 22, and each rotor 30a is spaced apart by the toothpick 36, and the outermost rotor 30a on the other side is rotated by a rotating shaft ( It is supported by a lock nut 24 detachably coupled to 20).

Of course, the plurality of rotating bodies 30a may be constrained to the rotating shaft 20 by various methods.

In addition, although not shown, the rotating body 30a is inserted into the rotating shaft 20 to minimize the power consumption, and may form recessed grooves 32 on both sides.

On the other hand, the housing 10 and the cap 40 is preferably firmly coupled, detachably coupled.

As an example, the housing 10 and the cap 40 form a flange 52 at the edge, and the opposite flange 52 is detachably coupled by the fastening member 54.

That is, a plurality of fastening members 54 are formed along the flanges 52 formed on the housing 10 and the cap 40, respectively, to maximize the sealing force of the housing 10 and the cap 40.

Here, the fastening member 54 is preferably a general mechanical fastening element such as bolts and nuts.

In addition, as the rotating shaft 20 and the rotating body 30a are rotated, the housing 10 can be shaken a lot.

For the sake of convenience, a state in which a plurality of the rotating bodies 30a are provided is shown, but the same is also the case in which one rotating body 30a is provided.

When the housing 10 is shaken, the rotating body 30a can be twisted.

Thus, the housing 10 is preferably firmly fixed.

As an example, the housing 10 and the cap 40 are preferably supported by the cradle 60, respectively.

That is, the holder 60 serves to firmly support a portion of each of the housing 10 and the cap 40 by inserting it.

At this time, the holder 60 is applicable to a variety of shapes, preferably made of a solid material.

Although the present invention has been described with reference to the embodiments shown in the drawings, this is merely exemplary, and those skilled in the art to which the art belongs can make various modifications and other equivalent embodiments therefrom. Will understand. Therefore, the true technical protection scope of the present invention will be defined by the claims below.

Claims

A housing which is open to one side and has an inlet and a discharge port for introducing a fluid;

A rotating shaft rotatably inserted in the center of the housing;

A rotating body inserted into the rotating shaft and provided inside the housing and rotating together with the rotating shaft to heat a fluid introduced into the housing; And

Sealing an open side of the housing to prevent leakage of fluid, and a heat generating device using a rotational force comprising a cap for rotatably inserting the rotating shaft.
The method of claim 1,

The rotating body is a heat generating device using a rotational force, characterized in that to form a recessed groove of a circular or polygonal trajectory on one side to increase the frictional force with the fluid during rotation.
The method of claim 2,

The rotating body is a heat generating device using a rotational force, characterized in that for forming a plurality of communication holes communicated to the other side from the bottom surface of the recessed groove.
The method of claim 2,

The rotors are provided in pairs so that the recessed grooves face each other or face in different directions, and each of the rotors is disposed to be spaced apart from each other.
The method of claim 4, wherein

Adjacent to the rotating body is a heat generating device using a rotational force, characterized in that to form a gong between the gaps to maintain the gap.
The method of claim 4, wherein

The cap is a heat generating device using a rotational force, characterized in that having a secondary inlet for introducing a fluid.
The method according to any one of claims 4 to 6,

The rotating shaft is a heat generating device using a rotating force, characterized in that for forming a lock nut detachable from the support block fixed to the circumferential surface to fix the plurality of the rotating body.
The method according to any one of claims 1 to 6,

The housing and the cap form a flange at an edge;

Facing the flange is a heat generating device using a rotational force, characterized in that detachably coupled by a fastening member.
The method according to any one of claims 1 to 6,

The housing and the cap is a heat generating device using a rotational force, characterized in that each of which is supported on the cradle.