TW201305506A - Liquid heating method and apparatus - Google Patents

Abstract

A liquid heating method and an apparatus are disclosed. A liquid stream flowing along a virtual center axis is first subjected to a process of diffusion and convergence by using the locus of logarithmic helix, wherein gravity generated the Earth on the liquid stream, the work done to the flow of the liquid stream by the Coriolis effect and the influence of terrestrial magnetism are fully utilized as a boost for the subsequent heating process, and then the liquid stream is divided and spread into a central liquid stream along the virtual central axis and at least one shunt liquid stream surrounding the periphery of the central liquid stream and high frequency oscillation is applied to at least one shunt liquid stream simultaneously, and finally the at least one shunt liquid stream flowing at a high speed is guided to converge into the central liquid stream flowing at a low speed for generating impact, mutual destruction and mutual cutting to generate a large amount of heat, thereby instantly heating the liquid stream.

Description

Liquid heating method and device

The invention relates to a liquid heating method and device, in particular to a flow of a liquid in a flowing stream, which is divided into at least one liquid bypass stream, and then oscillated, and finally the liquid bypassing the respective divided streams A liquid heating method and apparatus for accumulating impacts to instantaneously raise the temperature of the liquid stream.

Electric water heaters can be divided into instant electric hot water heaters and storage electric water heaters. Among them, the instant electric water heaters provide hot water by means of instantaneous high-power heating, so the amount of hot water supplied is very limited. The storage type electric water heater uses a lower power (4kw) electric heating pipe in advance, first heats the cold water to a set temperature, pre-stores and heats it in the insulated container, so that when used, a large amount of constant temperature hot water can be discharged at a time. Water heater.

The shortcomings of the instant instant hot water heaters are as follows:

1. The body is placed in the bathroom and is located in front of the shower, that is, the electric heating tube is immersed in water to directly heat the water. Care must be taken during use to prevent it from being shocked. Security is not high.

2. The amount of hot water is not large, the temperature is not high, it is only for shower, not for bathing (bath), and can not fully meet the needs of various baths.

3. Because the instantaneous power consumption is large, the wire diameter and switch must be extra thickened.

4. Because the instantaneous power consumption is large, it is very inconvenient to provide a single set of electric water heaters at the same time.

5. Because the electric heating pipe of the electric water heater directly heats the cold water at a high temperature of 280 ° C to 300 ° C, the electric heating pipe is prone to scale.

6. The outlet water temperature control is not easy.

As for the conventional storage type electric water heater, the disadvantages are as follows:

1. Because it takes a large volume of insulated water storage tank to store enough hot water in advance, it takes up a lot of space.

2. Regardless of how the heat storage water tank is out of heat, the problem of heat loss and loss, and the problem of unnecessary loss of electrical energy, is still difficult to avoid effectively.

3. The electric heating pipe is still immersed in water and directly heats the water. The danger of electric leakage is always present and the safety is very serious.

4. Although the power of the electric heating pipe is relatively low, since the electric heating pipe is still immersed in water to directly heat the water, the problem of scale is still difficult to avoid.

5. When the pressure in the insulated water storage tank is too high, the pressure will be automatically released, but the probability of the pressure relief valve is still large, and there are still doubts about safety.

The present invention is directed to providing a liquid heating method and apparatus to solve the problem that all electric water heaters are liable to cause electric shock.

The invention aims to provide a liquid heating method and device for solving the problems that the water temperature of the instant electric water heater is not high and the water output is insufficient.

The invention aims to provide a liquid heating method and device to solve the problem that the instant instant electric water heater can only provide the inconvenience of using a single group electric water heater at the same time.

The invention aims to provide a liquid heating method and device to solve the problem that the space occupied by the insulated water storage tank of the storage type electric water heater is very large.

The invention aims to provide a liquid heating method and device to solve the problem that the electric heating pipes of all electric water heaters are easy to generate scale.

The present invention is directed to providing a liquid heating method and apparatus for solving the problem of heat loss of a storage type electric water heater.

In order to solve the aforementioned problems, the present invention is directed to a liquid heating method which performs the following steps on a liquid stream which follows a virtual central axis:

First step:

Directing the liquid stream from a first axial position at a first axial center position of the virtual central axis and having a first cross-sectional area, diverging and diffusing to a second axial position at the virtual central axis and having a second cross a second cross-sectional area of the cross-sectional area, the second axial center position is lower than the first axial center position, and the second cross-sectional area is larger than the first cross-sectional area, so as to be in the first cross-section to the second Forming a diffusion section between the cross sections;

The second step:

Directing the liquid stream from the second cross section, splitting into at least one liquid bypass stream, wherein a liquid bypass stream flows along the virtual central axis to form a liquid stream, and the remaining liquid bypass stream Forming a split flow angle with respect to the second cross section, surrounding the flow around the liquid stream, and flowing around a bypass axis parallel to the virtual central axis to form a liquid bypass stream;

The third step:

Directing a flow stream and a liquid bypass flow in the liquid, flowing from the second cross section to a third axial position located at a third axial position of the virtual central axis and having a third cross sectional area; the third axial center The position is lower than the second axis position;

The fourth step:

Electromagnetic oscillation is applied to the surrounding liquid bypass stream from each of the liquid bypass streams flowing between the second cross section and the third cross section;

The fifth step:

Directing the liquid stream from the third cross section to a fourth cross-section at a fourth axial center position of the virtual central axis and having a fourth cross-sectional area, while guiding all liquid bypass streams, from the third cross The section flows to the fourth cross section, and converges toward the liquid stream at the fourth cross section, and impacts the liquid stream in the fourth cross section of the fourth axis position of the virtual central axis, Increasing the temperature of the flow stream in the liquid and the at least one liquid bypass stream;

The sixth step:

The flow stream in the pilot liquid merges with at least one liquid bypass stream.

According to the liquid heating method described above, the electromagnetic oscillation frequency applied to the liquid flow flowing through the second cross section to the third cross section and each liquid bypass flow is between 2.4 billion cycles to 240 between memory cycle [2.4GHz ~ 24GHz (G is the abbreviation for Giga, Giga is "one billion") (Hz is the abbreviation for Hertz, Hertz is the "cycle" of the unit, the number of vibrations per second periodic)].

According to the liquid heating method described above, the split angle is preferably 45 degrees.

According to the liquid heating method as described above, the angle between each of the liquid bypass streams flowing from the third cross section to the fourth cross section is preferably 45 degrees.

According to the liquid heating method described above, the liquid bypass flow is five lanes.

According to the liquid heating method described above, the trajectory flowing from the third cross section to the fourth cross section is a plurality of logarithmic spirals extending along the virtual central axis ( Notearithmic Spiral ) [Note: Logarithmic Spiral is also known as Equiangular Spiral , and Fermat's Spiral is a type of Logarithmic Spiral . The invention also includes a Fermat's Spiral trajectory.

According to the liquid heating method described above, the method further comprises the following steps:

Prior to the first step, the liquid stream is further directed from a fifth cross-section at a fifth axial position of the virtual central axis and having a fifth cross-sectional area, diffusing to a sixth axis located at the virtual central axis a sixth cross-section having a sixth cross-sectional area to form a diffusion section between the fifth cross-section and the sixth cross-section for storing a liquid stream, the sixth axial position being the same The five-axis center position is low, and the sixth cross-sectional area is larger than the fifth cross-sectional area;

After the above steps, the first flow cross-section of the liquid flow from the sixth cross-section to the first axial center position of the virtual central axis is formed to form a convergence section, and the first axial position is relatively The six-axis center position is low, and the first cross-sectional area is smaller than the sixth cross-sectional area.

According to the liquid heating method described above, the angle between the boundary of the diffusion section and the boundary of the convergence section and the virtual central axis is preferably 45 degrees.

According to the liquid heating method described above, the liquid stream travels in a logarithmic spiral trajectory.

A liquid heating method is a method of performing a process of splitting, oscillating, and concentrating an impact on a flowing liquid stream to increase the temperature of the liquid stream.

In order to specifically perform the aforementioned liquid heating method, the present invention is directed to providing a liquid heating apparatus comprising:

a cabin having: a virtual central axis; a liquid inlet located at one of the virtual central axes and connected to a liquid directing liquid line for introducing liquid from the liquid line; the liquid outlet being located in the virtual In another part of the central axis, the liquid outlet is from the cabin to extract the heated liquid;

The splitting structure is disposed inside the cabin and communicates with the liquid outlet of the cabin, and the diverting structure has a branching port located in the virtual central axis and a plurality of bypassing ports around the central branching port, so as to The liquid of the tank is divided into a flow through the middle splitter to form a liquid flow stream, and at least one liquid bypass flow around the liquid flow around the liquid flow and flowing through the bypass split flow respectively;

The plurality of oscillating devices have: at least one bypass flow channel, each bypass flow channel is respectively connected to at least one bypass flow port of the split flow structure; and the electromagnetic oscillation group, each electromagnetic oscillation set is arranged on the bypass line The outer edge of the flow passage so as to respectively apply electromagnetic oscillation to the liquid bypass flow flowing through the inside of the bypass flow passage;

The impact structure has a middle flow passage connected to the split flow port of the split flow structure to guide the liquid flow in the liquid flow; at least one concentrated flow passage is connected to at least one bypass flow passage and facing the edge of the middle flow passage Converging, the oscillating liquid bypass stream converges on the flowing stream in the liquid and impacts the deflection of the flowing stream in the liquid, thereby increasing the temperature of the liquid bypass stream and the liquid stream in the liquid.

According to the liquid heating device described above, the electromagnetic oscillation frequency of the electromagnetic oscillation group for each liquid bypass flow is between 2.4 billion cycles and 24 billion cycles [ 2.4 GHz to 24 GHz ( G is an abbreviation of Giga) . , Giga is "one billion") (Hz is the abbreviation for Hertz, Hertz is the "cycle" of the unit, the number of vibrations per second periodic)].

According to the liquid heating apparatus described above, the flow dividing structure is further provided with a guiding slope, and the angle of the split formed between the guiding slope and the bypass flow path is preferably 45 degrees.

According to the liquid heating device described above, the bypass flow path is five lanes.

According to the liquid heating device described above, the converging flow path is five lanes.

According to the liquid heating apparatus described above, the converging flow path is a plurality of logarithmic spiral trajectories extending along the virtual central axis.

The liquid heating apparatus according to the foregoing, further comprising: a liquid storage tank for storing the liquid, the cross-sectional area inside the liquid storage tank being larger than the cross-sectional area of the liquid pipeline.

The liquid heating apparatus according to the above, wherein the liquid storage tank has: a diffusion section connected to the liquid pipeline, and the diffusion section has a cross-sectional area larger than a cross-sectional area of the liquid pipeline; convergence The segment has one end connected to the diffusion section and the other end connected to the liquid inlet of the tank.

According to the liquid heating device described above, wherein the diffusion section and the converging section each have an angle of 45 degrees with respect to the virtual central axis, and the diffusion section and the converging section are symmetrical with respect to the joint surface.

1. A liquid heating method and apparatus according to the present invention, which uses a wire coil or a sheet coil to indirectly oscillate a passing water flow through an insulator such as ceramic, instead of directly heating the water by using an electric heating pipe immersed in water. . Since the linear coil or the chip coil itself is covered with insulation, and the excellent insulation property of the insulator such as ceramics is excellent, it is possible to solve the problem that all electric water heaters are liable to cause electric shock and electric shock. Excellent security.

However, whether it is a conventional instant electric water heater or a conventional storage type electric water heater, their electric heating pipes are directly immersed in water to heat the water, so the risk of electric shock and electric shock cannot be avoided. Security is awkward.

2. The liquid heating method and apparatus according to the present invention, which uses a wire coil or a sheet coil to oscillate instantaneously through a water flow through an insulator such as ceramic, and then converges the impact, so that the water flow is heated to an instant. Temperature is required. Not only can the water flow maintain the maximum flow that the water pipe can provide, but also the high temperature oscillation and impact can be used to make the water temperature reach the required temperature in an instant, thus completely solving the water temperature of the instant instant electric water heater. Not high and insufficient water.

However, the conventional instant electric water heater has the problem that the amount of water is not large and the temperature is not high.

3. The liquid heating method and device provided by the invention can solve the maximum flow rate that the water pipe can provide, and the water temperature can reach the required temperature in an instant, and can solve the instant instant electric water heater can only be used at the same time. It is inconvenient to use a single set of electric water heaters.

However, the conventional instant electric water heater has the problem of low water consumption and low temperature, so it is only inconvenient to use the single-group electric water heater during the same period.

4. The liquid heating method and device provided by the invention can not fully meet the actual needs because of the water output and the water temperature, and the device is small, so there is no insulated water storage tube of the conventional storage type electric water heater. A problem that takes up a lot of space.

However, the conventional storage type electric water heater uses a lower power (4kw) electric heating pipe to heat the cold water to a set temperature, and is pre-stored and insulated in the heat insulating container, so the space occupied by the heat insulating water storage tank is very large.

5. The liquid heating method and apparatus provided by the present invention does not require the electric heating tube to be immersed in water to heat the water, so that no scale problem occurs.

However, whether it is a conventional instant electric hot water heater, or a conventional storage type electric water heater, their electric heating pipes are immersed in water to directly heat the water, so it is impossible to avoid scale generation on the surface of the electric heating pipe.

6. The liquid heating method and device provided by the invention instantly reach the required temperature and the required amount of water, so that the temperature is raised instantaneously and the water is supplied immediately, and the warm water is not stored in advance, so there is no problem that the heat is lost.

The instant instant hot water heaters, no matter how the heat-insulating water tank looks like heat, the problem of heat loss and loss, and the problem of unnecessary loss of electrical energy, it is still difficult to effectively avoid.

A possible embodiment will be provided below to specifically describe the liquid heating method and liquid heating apparatus of the present invention.

Referring to Figures 1 to 6, the liquid heating method provided by the present invention performs the following steps before heating:

Prior to the first step, the liquid stream (70) is directed to diffuse from a fifth axial position (221) at a virtual central axis (22) and a fifth cross-sectional area (24) having a fifth cross-sectional area. Is a sixth cross-section (25) at a sixth axial position (222) of the virtual central axis (22) and having a sixth cross-sectional area so as to traverse from the fifth cross-section (24) to the sixth cross-section A diffusion section (62) is formed between the faces (25) for storing the liquid stream (70), the sixth axial position (222) being lower than the fifth axial position (221), and the sixth transverse The area is larger than the fifth cross-sectional area;

After the above steps, the guiding liquid flow beam (71) flows from the sixth cross section (25) to the first cross section of the first axial center position (223) of the virtual central axis (22) (26). And forming a convergence segment (63), wherein the first axial center position (223) is lower than the sixth axial center position (222), and the first transverse sectional area is smaller than the sixth transverse sectional area.

The angle (δ) between the boundary of the diffusion section (62) and the boundary of the convergence section (63) and the virtual central axis (22) is preferably 45 degrees.

When the liquid stream (70) flows through the diffusion section (62) and the convergent section (63), it is a logarithmic spiral ( Logarithmic Spiral ). [Note: Logarithmic Spiral is also called an equiangular spiral ( Equiangular Spiral). ), and Fermat's Spiral is a kind of Logarithmic Spiral . The invention also includes the Fermat's Spiral (travel) travel.

When the liquid stream (70) flows through the diffusion section (62), it is ejected at an angle (δ) at a maximum distance of 45 degrees along the axial direction of the virtual central axis (22), that is, the liquid stream (70) diffusing in a trajectory close to the parabola; and simultaneously making the liquid stream (70) in a radial direction of the virtual central axis (22) in a counterclockwise (or clockwise) direction {if the location is northern hemisphere, The Coriolis effect produced by the Earth's rotation [French meteorologist Gaspard-Gustave Coriolis , describing the motion of the rotating system in 1835] caused the liquid to produce a counterclockwise vortex; When used in the southern hemisphere, the Coriolis effect produced by the Earth's rotation causes the liquid to produce a clockwise vortex. } Diffusion along the logarithmic spiral [that is, the divergence angle of the plant growth (also known as the golden division angle of 137.5°)] trajectory (ie, vortex).

Similarly, as the liquid stream (70) flows through the diffusion section (62) and then flows through the converging section (63), the liquid stream (70) is along the axial direction of the virtual central axis (22). At an angle of 45 degrees, that is, the liquid stream (70) converges in a path close to the parabola; and at the same time, the liquid stream (70) is oriented in the radial direction of the virtual central axis (22) in a counterclockwise direction ( Or clockwise) converges along a logarithmic spiral trajectory.

Therefore, the diffusion section (62) and the converging section (63) together constitute a liquid storage process, so that the liquid pressure of the liquid stream (70) is increased downward, and the gravity and geomagnetism generated by the earth to the liquid stream (70) is generated. Work on the effects of water and contribute to the heating process of the following steps.

Referring to Figures 1, 2 and 3, the liquid heating method of the present invention is directed to a liquid stream (70) that follows a virtual central axis (22) and performs the following steps:

First step:

Directing the liquid stream (70) from a first axial position (223) at a first central axis position (223) of the virtual central axis (22) and having a first cross-sectional area (26), diverging and diffusing to a virtual central axis (22) a second axial center position (224) having a second cross-sectional area (27), the second axial center position (224) being lower than the first axial center position (223) And the second cross-sectional area is larger than the first cross-sectional area to form a diffusion section (64) between the first cross-section (26) and the second cross-section (27);

The second step:

The liquid stream (70) is directed from the second cross section (27) to be split into at least one liquid bypass stream, wherein a liquid bypass stream flows along the virtual central axis (22) to form a liquid flow. a beam (71), the remaining liquid bypass stream is formed to form a shunt angle (θ) with respect to the second cross section (27), surrounding the stream (71) around the liquid, and surrounding the parallel a bypass axis (23) around the virtual central axis (22) flows to form a liquid bypass stream (72);

The third step:

Directing the liquid traveling stream (71) and the liquid bypass stream (72) from the second cross section (27) to a third axial position (225) at the virtual central axis (22) and having a third cross a third cross section (28) of the sectional area; the third axial position (225) is lower than the second axial position (224);

The fourth step:

From each of the liquid bypass streams (72) flowing between the second cross section (27) to the third cross section (28), respectively facing the surrounding liquid bypass stream (72) Apply electromagnetic oscillations;

The fifth step:

The liquid flow stream (71) that directs the slower flow rate flows from the third cross section (28) to the fourth axial center position (226) at the virtual central axis (22) and has a fourth cross-sectional area. The cross section (29) simultaneously directs all of the faster flow side liquid flow (72) from the third cross section (28) to the fourth cross section (29) and in the fourth cross section ( 29) converge toward the liquid midstream (71) and at the fourth cross section (29) of the fourth axial position (226) of the virtual central axis (22), impinging on the liquid stream (71) After the liquid flow stream (71) and the at least one liquid bypass stream (72) collide at the intersection point, the liquid flow stream (71) flowing at a low speed and at least one liquid bypass stream under the high speed flow (72) A large amount of heat is generated because of mutual destruction and cutting (about 7 million times the speed of sound), so that the temperature rises instantaneously.

The sixth step:

The flow directing stream (71) and the at least one liquid bypass stream (72) are again combined into a single bundle of liquid streams (70).

The electromagnetic oscillation frequency applied to the liquid middle stream (71) flowing through the second cross section (27) to the third cross section (28) and each liquid bypass stream (72) is between 2.4 billion. cycle to cycle between 24 billion [2.4GHz ~ 24GHz (G is the abbreviation for Giga, Giga is "one billion") (Hz is the abbreviation for Hertz, Hertz is the "cycle" of the unit, the number of vibrations per second periodic) ].

Referring to Figures 4 and 5, the above-mentioned split angle (θ) is preferably 45 degrees.

Referring to the first figure, the angle (δ) of each liquid bypass stream (72) flowing from the third cross section (28) to the fourth cross section (29) is preferably 45 degrees.

The liquid bypass stream (72) is preferably five lanes.

Referring to the sixth figure, the trajectory from the third cross section (28) to the fourth cross section (29) is a plurality of logarithmic spirals extending along the virtual central axis (22). Line trajectory.

In summary, the liquid heating method provided by the present invention performs a step of splitting, oscillating, and concentrating the impact on the flowing liquid stream (70) to increase the temperature of the liquid stream (70).

Referring to Figures 7 to 16, in order to specifically perform the foregoing liquid heating method, the present invention is directed to providing a liquid heating device (20) comprising: a cabin (21), a split structure (31), a plurality The oscillating device (41), the impact structure (51), and the like are mainly configured.

Please refer to the seventh, eighth, and tenth drawings, wherein the cabin (21) has a virtual central axis (22); the liquid inlet (21a) is located at one of the virtual central axes (22). And connected to the liquid pipeline guiding the liquid to introduce liquid from the liquid pipeline; the liquid outlet (21b) is located at another part of the virtual central axis (22), and the liquid outlet (21b) is from the cabin (21 ) to extract the liquid that has been heated.

Please refer to the seventh, tenth, eleventh and twelfth figures. As for the diversion structure (31), it is installed inside the cabin (21) and communicates with the liquid outlet (21b) of the cabin (21). The structure (31) has a row splitting port (32) located in the virtual central axis (22) and a plurality of bypass split ports (33) surrounding the middle row splitting port (32) for the cabin (21) The liquid is split into a flow through the intermediate splitter (32) to form a liquid intermediate stream (71), adjacent to at least one of the liquid surrounding the liquid stream (71) and flowing through the bypass split (33) The stream is streamed (72).

Please refer to the first, seventh, eighth, ninth and tenth drawings, and the plurality of oscillating devices (41) have at least one bypass flow channel (43), and each bypass flow channel (43) is respectively Connected to at least one bypass split port (33) of the split flow structure (31), the bypass flow passage (43) surrounding the flow path (42) formed by the sleeve (48); electromagnetic oscillation Group (44), each electromagnetic oscillation group (44) is sleeved on the outer edge of the insulating sleeve (45) provided with the bypass flow passage (43), and then the sleeve (46) and the lower sleeve (47) Covering the outer edges of the electromagnetic oscillating group (44) so as to respectively apply a high frequency electromagnetic oscillation to the liquid bypass stream (72) flowing through the inside of the bypass flow path (43). As for the intermediate flow path (42) formed by the sleeve (48), it is not necessary to provide an electromagnetic oscillation group (44). The insulating sleeve (45), the sleeve (48), the upper sleeve (46) and the lower sleeve (47) are locked together using a split structure (31) and an end plate (49).

Please refer to the seventh, eighth, ninth, tenth, fifteenth and sixteenth figures. As for the impact structure (51), there is a middle flow passage (52) which is connected to the split flow port in the split structure to guide the liquid. a middle stream (71); at least one converging channel (53) is connected to at least one bypass channel (43) and converges toward the edge of the intermediate channel (42) to cause the oscillating liquid bypass stream (72) Converging the flow stream (71) in the liquid and impacting the deflection of the flow stream (71) in the liquid, thereby increasing the temperature of the liquid bypass stream (72) and the liquid flow stream (71).

Please refer to the seventh, eighth, ninth, tenth, thirteenth and fourteenth diagrams, in which the electromagnetic oscillation group (44) applies an electromagnetic oscillation frequency of 2.4 billion cycles to each liquid bypass stream (72). to between 24 billion cycles [2.4GHz ~ 24GHz (G is the abbreviation for Giga, Giga is "one billion") (Hz is the abbreviation for Hertz, Hertz is the "cycle" of the unit, the number of vibrations per second periodic)] .

Referring to the eleventh figure, the shunting structure (31) is further provided with a guiding slope (34), and a shunt angle formed between the guiding chamfer (34) and the bypass channel (43) ( θ) is preferably 45 degrees.

Please refer to the seventh, eighth, ninth and tenth figures. The optimal number of the above-mentioned bypass flow passages (43) is five. At the same time, the optimal number of converging runners (53) is also five.

See seventh, ten, 15, 16 shown in FIG, converging flow passage (53) lines along a virtual central axis (22) of the logarithmic spiral (Logarithmic Spiral) [Note stretch of four weeks to a plurality of article: Logarithmic Spiral is also known as Equiangular Spiral , and Fermat's Spiral is a type of Logarithmic Spiral . The invention also includes a Fermat's Spiral trajectory.

Referring to the seventh to tenth drawings, the liquid heating apparatus of the present invention further comprises: a liquid storage tank (61) for storing the liquid, and the cross-sectional area inside the liquid storage tank (61) is transverse to the liquid pipeline. The area of the break is large. Wherein the liquid storage tank (61) has a diffusion section (62) connected to the liquid pipeline, and the diffusion section (62) has a transverse cross-sectional area larger than the cross-sectional area of the liquid pipeline. Area; convergent section (63), wherein one end is connected to the diffusion section (62), and the other end is connected to the liquid inlet (21a) of the cabin (21).

Referring to the seventh to tenth views, the diffusion section (62) and the converging section (63) are cone-shaped inner cavities formed by an angle (δ) of 45 degrees with respect to the virtual central axis (22), and the diffusion section is formed. (62) The converge section (63) is symmetrical with respect to the joint surface.

Referring to the first, second, third, and tenth diagrams, when the liquid flows through the diffusion section, the logarithmic spiral trajectory is diffused, and the liquid flows through the convergent section (63) to converge on the logarithmic spiral trajectory.

(20). . . Liquid heating device

(twenty one). . . Cabin

(21a). . . Liquid inlet

(21b). . . Liquid outlet

(twenty two). . . Virtual central axis

(221). . . Fifth axis position

(222). . . Sixth axis position

(223). . . First axis position

(224). . . Second axis position

(225). . . Third axis position

(226). . . Fourth axis position

(twenty three). . . Bypass axis

(twenty four). . . Fifth cross section

(25). . . Sixth cross section

(26). . . First cross section

(27). . . Second cross section

(28). . . Third cross section

(29). . . Fourth cross section

(31). . . Split structure

(32). . . Bank split

(33). . . Side bypass

(34). . . Guided slope

(41). . . Oscillating device

(42). . . Bank runner

(43). . . Bypass runner

(44). . . Electromagnetic oscillation group

(45). . . Insulating sleeve

(46). . . Upper casing

(47). . . Casing

(48). . . casing

(49). . . End plate

(51). . . Impact structure

(52). . . Bank runner

(53). . . Converging runner

(61). . . Storage tank

(62). . . Diffusion section

(63). . . Convergence segment

(64). . . Diffusion section

(70). . . Liquid stream

(71). . . Liquid flow

(72). . . Liquid bypass flow

(θ). . . Split angle

(δ). . . Angle

First Figure: Schematic diagram of the steps of the liquid heating method of the present invention.

Figure 2: Section 2-2 from the first figure.

Figure 3: Section 3-3 from the first figure.

Figure 4: Section 4-4 from the first figure.

Figure 5: Section 5-5 from the fourth figure.

Figure 6: is an enlarged view of the 6-6 section from the first figure.

Figure 7 is a perspective exploded view of the liquid heating device of the present invention.

Figure 8 is a perspective view of the liquid heating device of the present invention.

Figure IX: Front view of the liquid heating apparatus of the present invention.

Figure 10: Section 10-10 from the eighth figure.

Figure 11 is a perspective view showing the split structure of the liquid heating apparatus of the present invention.

Twelfth picture: is a sectional view of 12-12 from the tenth figure.

Figure 13 is a perspective view of an electromagnetic oscillation group of the liquid heating device of the present invention.

Figure 14: Sectional view from 14-14 of the tenth figure.

Figure 15: Sectional view from 15-15 of the tenth figure.

Figure 16 is a perspective view of the impact structure of the liquid heating apparatus of the present invention.

(21a). . . Liquid inlet

(21b). . . Liquid outlet

(twenty two). . . Virtual central axis

(221). . . Fifth axis position

(222). . . Sixth axis position

(223). . . First axis position

(224). . . Second axis position

(225). . . Third axis position

(226). . . Fourth axis position

(twenty three). . . Bypass axis

(twenty four). . . Fifth cross section

(25). . . Sixth axis position

(26). . . First cross section

(27). . . Second cross section

(28). . . Third cross section

(29). . . Fourth cross section

(62). . . Diffusion section

(63). . . Convergence segment

(64). . . Diffusion section

(70). . . Liquid stream

(71). . . Liquid flow

(72). . . Liquid bypass flow

(δ). . . Angle

Claims (20)

A liquid heating method for a liquid stream flowing in accordance with a virtual central axis, the first step of: directing the liquid stream from a first axial position at a virtual central axis and having a first cross-sectional area a first cross-section, the split flow is diffused to a second cross-sectional area at a second axial center position of the virtual central axis and having a second cross-sectional area, the second axial center position being lower than the first axial center position, And the second cross-sectional area is larger than the first cross-sectional area to form a diffusion section between the first cross-section and the second cross-section; the second step: guiding the liquid stream from the second cross-section, diverting Forming at least one liquid bypass stream, wherein a liquid bypass stream flows along a virtual central axis to form a liquid stream, and the remaining liquid bypass stream is formed between the second cross section a split angle that surrounds the flow around the liquid and flows around a bypass axis parallel to the virtual central axis to form a liquid bypass stream; a third step: directing the liquid stream and the liquid bypass stream Flowing from the second cross section to a third cross-sectional area at a third axial center position of the virtual central axis and having a third cross-sectional area; the third axial center position is lower than the second axial center position; Step: applying electromagnetic oscillation to the surrounding liquid bypass stream from each of the liquid bypass streams flowing between the second cross section and the third cross section; fifth step: guiding The liquid stream flows from the third cross section to a fourth cross-section at a fourth axial position of the virtual central axis and having a fourth cross-sectional area, while guiding all liquid bypass streams from the third cross-section The surface flows to the fourth cross section, and converges toward the liquid flow beam at the fourth cross section, and at the fourth cross section of the fourth axial center position of the virtual central axis, impinges on the liquid stream, so that The temperature of the liquid stream and the at least one liquid bypass stream rise; and the sixth step: directing the liquid stream in the liquid to merge with at least one liquid bypass stream. The liquid heating method according to claim 1, wherein the electromagnetic oscillation frequency applied to the liquid flow flowing through the second cross section to the third cross section and each liquid bypass flow is between cycle between 2.4 billion to 24 billion cycles [2.4GHz ~ 24GHz (G is the abbreviation for Giga, Giga is "one billion") (Hz is the abbreviation for Hertz, Hertz is the "cycle" of the unit, periodic vibrations per second frequency)]. The liquid heating method according to claim 1, wherein the split angle is 45 degrees. The liquid heating method of claim 1, wherein each of the liquid bypass streams has an angle of 45 degrees from the third cross section to the fourth cross section. The liquid heating method according to claim 1, wherein the liquid bypass flow is five lanes. The liquid heating method of claim 1, wherein the trajectory from the third cross section to the fourth cross section is a plurality of logarithmic spirals extending along the virtual central axis ( Logarithmic) Spiral ) trajectory. The liquid heating method of claim 1, further comprising the step of: further guiding the liquid stream from a fifth axis position at a virtual central axis and having a fifth cross-section before the first step a fifth cross-section of the area, the diffusion being a sixth cross-section at a sixth axial position of the virtual central axis and having a sixth cross-sectional area to be between the fifth cross-section and the sixth cross-section Forming a diffusion section for storing the liquid stream, the sixth axis position is lower than the fifth axis position, and the sixth cross-sectional area is larger than the fifth cross-sectional area; the connection is continued after the above steps The liquid flow beam flows from the sixth cross section to the first cross section of the first axial center position of the virtual central axis to form a convergent section, wherein the first axial center position is lower than the sixth axial center position, and The first cross-sectional area is smaller than the sixth cross-sectional area. The liquid heating method according to claim 7, wherein the boundary between the boundary of the diffusion section and the boundary of the convergence section and the virtual central axis are both 45 degrees. The liquid heating method of claim 8, wherein the liquid stream travels in a logarithmic spiral trajectory. A liquid heating method is a method of performing a process of splitting, oscillating, and concentrating an impact on a flowing liquid stream to increase the temperature of the liquid stream. A liquid heating device comprising: a cabin having: a virtual central axis; a liquid inlet located at one of the virtual central axes and connected to a liquid conduit for guiding liquid to introduce liquid from the liquid conduit The liquid outlet is located at another portion of the virtual central axis, and the liquid outlet is a liquid that has been heated from the cabin; the split structure is disposed inside the tank and communicates with the liquid outlet of the tank, and the diverting structure The system has a flow splitting port located in the virtual central axis and a plurality of bypass split ports around the middle row splitting port, so as to divide the liquid of the cabin into a flow through the middle row splitting port to form a liquid middle stream, and at least a liquid bypass flow around the flow stream in the liquid and flowing through the bypass distribution port; the plurality of oscillation devices have: at least one bypass flow channel, each of the bypass flow channels being respectively connected to the flow distribution structure At least one bypass split port; an electromagnetic oscillation group, each electromagnetic oscillation set is arranged on the outer edge of the bypass flow path for respective convection The liquid bypass flow inside the bypass flow channel applies electromagnetic oscillation; the impact structure has: a middle flow passage connected to the flow distribution port of the flow distribution structure to guide the liquid flow in the liquid flow; at least one converging flow channel Connected to at least one bypass flow channel and converge toward the edge of the intermediate flow channel, so that the oscillating liquid bypass flow converges on the liquid flow beam and impinges on the deflecting edge of the liquid flow stream to the body side stream and The temperature of the flowing stream in the liquid rises. The application of the liquid heating apparatus patentable scope of item 11, wherein the electromagnetic oscillation frequency electromagnetic oscillations set every line of a liquid stream side of the administered between 2.4 billion to 24 billion cycles cycles [2.4GHz ~ 24GHz ( G is the abbreviation for Giga, Giga is "one billion") (Hz is the abbreviation for Hertz, Hertz is the "cycle" of the unit, the number of vibrations per second periodic)]. The liquid heating device of claim 11, wherein the flow dividing structure is further provided with a guiding slope, and the angle of the split formed between the guiding slope and the bypass flow channel is 45 degrees. The liquid heating device of claim 11, wherein the bypass flow path is five lanes. The liquid heating device of claim 13, wherein the converging flow channel is five lanes. The liquid heating device of claim 14, wherein the converging flow channel is a plurality of Logarithmic Spiral trajectories extending circumferentially around the virtual central axis. The liquid heating device of claim 15, wherein the converging flow channel is a plurality of logarithmic spiral trajectories extending circumferentially along a virtual central axis. The liquid heating device of claim 11, further comprising: a liquid storage tank for storing the liquid, the cross-sectional area inside the liquid storage chamber being larger than the cross-sectional area of the liquid pipeline. The liquid heating device of claim 18, wherein the liquid storage tank has a diffusion section connected to the liquid pipeline, and the diffusion section has a larger cross-sectional area than the liquid pipeline. Cross-sectional area; convergent section, one end of which is connected to the diffusion section, and the other end is connected to the liquid inlet of the cabin. The liquid heating device of claim 19, wherein the diffusion section and the converging section are inner cone cavities formed at an angle of 45 degrees from the virtual central axis, and the diffusion section and the converging section are symmetric with respect to the joint surface. .