Non-harmful radiation device for adjusting frequency

Abstract

The invention is relative to a non-harmful radiation device for adjusting frequency, the device comprising a power supply, a first pulse radiator, a second pulse radiator and a light wave generator and a graphene member. The first pulse radiator and the second pulse radiator are connected to the power supply for generating a first pulse signal and a second pulse signal. The light wave generator is connected to the first pulse radiator for receiving an electric energy and the first pulse signal, so that a first electromagnetic natural wave is generated by the light wave generator according to the electric energy. The graphene member is connected to the second pulse radiator for receiving the electric energy and the second pulse signal, so that a second natural electromagnetic wave is generated by the graphene member according to the electric energy. Therefore, a first artificial electromagnetic wave is generated by the light wave generator according to the frequency of the first pulse signal, and a second artificial electromagnetic wave is generated by the graphene member according to the frequency of the second pulse signal.

Description

[Technical Field]

[0001] The present invention relates to a frequency-tunable non-harmful radiation device, and more particularly to a non-harmful radiation device that can generate artificial electromagnetic waves by changing the energy intensity. [Previous Technology]

[0002] The basis of all matter is the atom. Atoms can generate vibration frequency, electric current and magnetic field by rotating at high speed (about 1000 times / second). The vibration frequency is also called Hertz (Hz). The range of human hearing is about 16~24000 Hertz (Hz), and the natural frequency of human organs is about 3~17 Hertz (Hz). The natural frequency refers to the characteristic frequency produced by an object without external force or damping, and the natural frequency depends on the physical characteristics of the object itself, such as structure, size and shape.

[0003] However, from a physics perspective, every object is in a state of resonance with its unique frequency and exchanges information and energy with other objects around it at the resonant frequency. At the resonant frequency, even a very small periodic driving force can produce huge vibrations.

[0004] Furthermore, the generation of resonance can enable objects on the Earth's surface to absorb and store the energy of solar radiation, thereby allowing the food chain on Earth to flourish. Moreover, every organ, bone, tissue, and part of the human body has its own resonant frequency, and each resonant frequency in the human body will be synthesized together to form the harmony of the human body. When the skin or hair of the human body becomes abnormal and generates abnormal frequencies, external frequencies can come into contact with the skin or hair of the human body to generate resonance and adjust the abnormal frequencies, so that the abnormal frequencies are the same as the resonant frequencies, thereby allowing the damaged or diseased skin or hair of the human body to recover.

[0005] In addition, scientists have also studied and measured the resonant frequencies of various parts of the human body, pointing out that when a part is abnormal or when the human body is in a sub-healthy state, and existing diagnostic methods cannot confirm it as a pathological condition, but the actual lesion has already occurred, if appropriate means are used to inject stimulation (energy) corresponding to its resonant frequency into the part, the part will absorb external energy to achieve recovery and treatment. [Summary of the Invention]

[0006] The main objective of this invention is to improve the structural form of non-harmful radiation devices, so that non-harmful radiation devices have frequency modulation pulse generators to generate pulse signals, and then the light wave generator can generate energy intensity changes according to the pulse signals of the frequency modulation pulse generator, so that the light wave generator can generate artificial electromagnetic waves through the frequency of energy intensity changes.

[0007] To achieve the aforementioned objective, in a first preferred embodiment, the present invention provides a frequency-tunable non-harmful radiation device, which includes: a power supply, a first frequency-tuned pulse generator, a second frequency-tuned pulse generator, a light wave generator, and a graphene component.

[0008] Wherein, the first frequency modulation pulse generator is electrically connected to the power supply, so that the first frequency modulation pulse generator can generate a first pulse signal, and the second frequency modulation pulse generator is electrically connected to the power supply, so that the second frequency modulation pulse generator can generate a second pulse signal.

[0009] However, the light wave generator is electrically connected to the first frequency modulation pulse generator to obtain electrical energy and the first pulse signal. The light wave generator generates a first natural electromagnetic wave based on the electrical energy. The light wave generator generates an energy intensity change based on the first pulse signal, so that the light wave generator generates a first artificial electromagnetic wave through the frequency of the energy intensity change.

[0010] Furthermore, the graphene device is electrically connected to the second frequency modulation pulse generator, and the graphene device obtains the second pulse signal from the second frequency modulation pulse generator. The graphene device generates a second natural electromagnetic wave based on the electrical energy, and the graphene device generates an energy intensity change based on the second pulse signal, so that the graphene device generates a second artificial electromagnetic wave through the frequency of the energy intensity change.

[0011] Furthermore, the first pulse signal includes a first peak and a first trough arranged continuously and alternately. When the light wave generator receives the first peak of the first pulse signal, it will form an on state for radiation, and when the first light wave generator receives the first trough of the first pulse signal, it will form a off state for no radiation, so that the light wave generator generates the first artificial electromagnetic wave by changing the frequency of the on and off states.

[0012] In addition, the frequency-tunable non-harmful radiation device is mounted on a carrier having a skin-friendly surface to contact a user, allowing the user to simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the first artificial electromagnetic wave, and the second artificial electromagnetic wave.

[0013] In the second preferred embodiment, the first frequency-modulated pulse generator can change the first pulse signal into a third pulse signal, and the light wave generator is electrically connected to the first frequency-modulated pulse generator to obtain the third pulse signal. The light wave generator generates an energy intensity change based on the third pulse signal, so that the light wave generator generates a third artificial electromagnetic wave through the frequency of the energy intensity change.

[0014] In a third preferred embodiment, the frequency-tunable non-harmful radiation device includes the power supply, the first frequency-modulated pulse generator, the second frequency-modulated pulse generator, a first light wave generator, and a second light wave generator. The first frequency-modulated pulse generator is electrically connected to the power supply to generate the first pulse signal, the second frequency-modulated pulse generator is electrically connected to the power supply to generate the second pulse signal, and the first light wave generator is electrically connected to the first frequency-modulated pulse generator to obtain the electrical energy and the first pulse signal. The first light wave generator then generates a second light wave signal based on the electrical energy. The first natural electromagnetic wave, and the first light wave generator generates an energy intensity change according to the first pulse signal, so that the first light wave generator generates the first artificial electromagnetic wave through the frequency of the energy intensity change. The second light wave generator is electrically connected to the second frequency-modulated pulse generator to obtain the electrical energy and the second pulse signal. The second light wave generator generates a second natural electromagnetic wave according to the electrical energy, and the second light wave generator generates an energy intensity change according to the second pulse signal, so that the second light wave generator generates a second artificial electromagnetic wave through the frequency of the energy intensity change.

[0015] In a third preferred embodiment, the frequency-tunable non-harmful radiation device is installed on the carrier, which has the skin-friendly surface to contact the user, allowing the user to simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the first artificial electromagnetic wave, and the second artificial electromagnetic wave.

[0016] In a fourth preferred embodiment, the frequency-tunable non-harmful radiation device includes the power supply, the frequency-modulated pulse generator, the light wave generator, and the graphene element. The frequency-modulated pulse generator is electrically connected to the power supply and can generate a pulse signal. The light wave generator is electrically connected to the frequency-modulated pulse generator to obtain the electrical energy and the pulse signal. The light wave generator generates the first natural electromagnetic wave based on the electrical energy. The light wave generator generates an energy intensity change based on the pulse signal, so that the light wave generator generates the artificial electromagnetic wave and a heat energy through the frequency of the energy intensity change. The graphene element receives the heat energy of the light wave generator to generate the second natural electromagnetic wave.

[0017] In a fourth preferred embodiment, the frequency-tunable non-harmful radiation device is installed on the carrier, which has a reactive surface to receive the first natural electromagnetic wave, the second natural electromagnetic wave, the heat energy and the artificial electromagnetic wave, so that the user can simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the heat energy and the artificial electromagnetic wave by being irradiated by the reactive surface.

[0018] In a fifth preferred embodiment, the frequency-tunable non-harmful radiation device includes the power supply, the frequency-modulated pulse generator, the first light wave generator, the second light wave generator, and the graphene element. The frequency-modulated pulse generator is electrically connected to the power supply and generates the pulse signal. The first light wave generator is electrically connected to the frequency-modulated pulse generator to obtain the electrical energy and the pulse signal. After obtaining the electrical energy, the first light wave generator radiates the first natural electromagnetic wave. The second light wave generator is electrically connected to the frequency-modulated pulse generator to obtain the electrical energy and the pulse signal. After obtaining the electrical energy, the second light wave generator radiates the second natural electromagnetic wave. The graphene element is electrically connected to the frequency-modulated pulse generator to obtain the electrical energy and the pulse signal. After obtaining the electrical energy, the graphene element radiates a third natural electromagnetic wave.

[0019] In the fifth preferred embodiment, the first light wave generator, the second light wave generator, and the graphene device will generate energy intensity changes according to the pulse signal, so that the first light wave generator, the second light wave generator, and the graphene device will jointly generate the artificial electromagnetic wave through the frequency of the energy intensity change.

[0020] The present invention is characterized in that the frequency-tunable non-harmful radiation device has a power supply electrically connected to a first frequency-modulated pulse generator and a second frequency-modulated pulse generator, such that the first frequency-modulated pulse generator can generate a first pulse signal, and the second frequency-modulated pulse generator can generate a second pulse signal. A light wave generator is electrically connected to the first frequency-modulated pulse generator to obtain electrical energy and the first pulse signal. The light wave generator generates a first natural electromagnetic wave based on the electrical energy, and generates an energy intensity change based on the first pulse signal, so that the light wave generator generates a first artificial electromagnetic wave through the frequency of the energy intensity change. A graphene element is electrically connected to the second frequency-modulated pulse generator and can obtain electrical energy and the second pulse signal. The graphene element generates a second natural electromagnetic wave based on the electrical energy. Furthermore, the graphene device generates energy intensity changes based on the second pulse signal, allowing the graphene device to generate a second artificial electromagnetic wave through the frequency of the energy intensity changes. The first pulse signal includes a continuous and alternating first peak and a first trough. When the light wave generator receives the first peak of the first pulse signal, it will form an on state for radiation, and when the first light wave generator receives the first trough of the first pulse signal, it will form a non-radiation off state, allowing the light wave generator to generate the first artificial electromagnetic wave through the frequency of the on / off changes. In addition, a frequency-adjustable non-harmful radiation device is installed on the carrier, and the carrier has a skin-friendly surface that contacts the user, allowing the user to simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the first artificial electromagnetic wave, and the second artificial electromagnetic wave.

Implementation Method

[0021] To facilitate a deeper and more detailed understanding of the structure, use, and features of the present invention, preferred embodiments are described below in conjunction with the accompanying drawings:

[0022] Please refer to Figures 1 and 2. In the first preferred embodiment, the frequency-tunable non-harmful radiation device 1 of the present invention is mainly composed of a power supply 10, a first frequency-tuned pulse generator 20, a second frequency-tuned pulse generator 30, a light wave generator 40, and a graphene component 50.

[0023] Please refer to Figures 1, 2, and 3. The power supply 10 is electrically connected to the first frequency modulation pulse generator 20 and the second frequency modulation pulse generator 30, respectively. The power supply 10 can generate electrical energy 11, which can be supplied not only to the first frequency modulation pulse generator 20 to generate a first pulse signal 21, but also to the second frequency modulation pulse generator 30 to generate a second pulse signal 31. The light wave generator 40 is electrically connected to... The first frequency-modulated pulse generator 20 enables the light wave generator 40 to acquire the electrical energy 11 and the first pulse signal 21, thereby allowing the light wave generator 40 to generate a first natural electromagnetic wave 41 based on the electrical energy 11. The graphene device 50 is electrically connected to the second frequency-modulated pulse generator 30, enabling the graphene device 50 to acquire the electrical energy 11 and the second pulse signal 31, thereby allowing the graphene device 50 to generate a second natural electromagnetic wave 5 based on the electrical energy 11. 1. Furthermore, there are no restrictions on the form of the first natural electromagnetic wave 41 and the second natural electromagnetic wave 51. The first natural electromagnetic wave 41 or the second natural electromagnetic wave 51 can be a far-infrared ray. However, there are no restrictions on the structural form of the power supply 10. The power supply 10 can be a disposable battery, a rechargeable battery, a charging dock, etc. The disposable battery is for single use and can be discarded after use. The rechargeable battery can be recharged for use. The charging dock has a charging plug, so that the charging dock must be continuously plugged into a socket for use. In this embodiment, the graphene component 50 has the characteristic of being light-transmitting. Furthermore, there are no restrictions on the structural form of the graphene component 50. The graphene component 50 only needs to have graphene, and the graphene can be a graphene powder, a graphene coating, or a graphene layer. The graphene can be semi-transparent.

[0024] Please refer to Figures 1, 2, 3 and 4. In the first preferred embodiment, the first pulse signal 21 includes a first peak 22 and a first trough 23 opposite to the first peak 22 arranged continuously and alternately. The first peak 22 is set at the highest point of the first pulse signal 21, and the first trough 23 is set at the lowest point of the first pulse signal 21. There is no limitation on the number of the first peak 22 and the first trough 23, and the plurality of first peaks 22 and the plurality of first troughs 23 can be arranged alternately with each other.

[0025] Please continue to refer to Figures 1, 2, 3, and 4. In the first preferred embodiment, the light wave generator 40 is electrically connected to the first frequency-modulated pulse generator 20, so that the light wave generator 40 can be indirectly electrically connected to the power supply 10 through the first frequency-modulated pulse generator 20. This allows the light wave generator 40 to obtain the electrical energy 11 from the power supply 10 and the first pulse signal 21 from the first frequency-modulated pulse generator 20. When the light wave generator 40 receives the first peak 22 of the first pulse signal 21, the light wave generator 40 will form an on state S1 for radiation. At time 23, the light wave generator 40 will form a non-radiating off state S2, and the on state S1 follows the off state S2, so that the light wave generator 40 can be continuously turned on or off, thereby allowing the light wave generator 40 to generate energy intensity changes by being turned on and off according to the first pulse signal 21. In this way, the light wave generator 40 can generate a first artificial electromagnetic wave 60 through the frequency of the energy intensity change. In addition, there is no limitation on the form of the first artificial electromagnetic wave 60. The first artificial electromagnetic wave 60 can be a frequency of about 1 Hz to 100 GHz, and the first artificial electromagnetic wave 60 can be composed of a single or multiple single frequencies.

[0026] Please continue to refer to Figures 1, 2, 3 and 4. The second pulse signal 31 includes a second peak 32 arranged continuously and alternately and a second trough 33 opposite to the second peak 32. The second peak 32 is set at the highest point of the second pulse signal 31, and the second trough 33 is set at the lowest point of the second pulse signal 31. There is no limitation on the number of the second peak 32 and the second trough 33, and the plurality of second peaks 32 and the plurality of second troughs 33 can be arranged alternately.

[0027] Please continue to refer to Figures 1, 2, 3, and 4. In the first preferred embodiment, the graphene device 50 is electrically connected to the second frequency-modulated pulse generator 30, so that the graphene device 50 can simultaneously obtain the electrical energy 11 from the power supply 10 and the second pulse signal 31 from the second frequency-modulated pulse generator 30. When the graphene device 50 receives the second peak 32 of the second pulse signal 31, the graphene device 50 forms an on state S1 that radiates; and when the graphene device 50 receives the second trough 33 of the second pulse signal 31, the graphene device 50 forms a non-radiating state. The graphene device 50 is continuously turned on or off in the off state S2, and the graphene device 50 is turned on and off according to the second pulse signal 31 to generate energy intensity changes. In this way, the graphene device 50 can generate a second artificial electromagnetic wave 61 through the frequency of the energy intensity change. In addition, there is no limitation on the form of the second artificial electromagnetic wave 61. The second artificial electromagnetic wave 61 can be a frequency of about 1 Hz to 100 GHz, and the second artificial electromagnetic wave 61 can be composed of one or more single frequencies.

[0028] Please continue to refer to Figures 1, 2, 3, and 4. In the first preferred embodiment, the frequency-tunable non-harmful radiation device 1 is mounted on a carrier 70, such that the carrier 70 is disposed on one side of the frequency-tunable non-harmful radiation device 1, and the carrier 70 has a skin-friendly surface 71, so that a user's contact part can contact the skin-friendly surface 71 of the carrier 70. Therefore, when the user wears the non-harmful radiation device 1, not only will the contact part simultaneously receive the first natural electromagnetic wave 41, the second natural electromagnetic wave 51, the first artificial electromagnetic wave 60, and the second artificial electromagnetic wave 61, but the contact part will also comfortably contact the carrier 70 to reduce foreign body sensation, thereby relaxing the user's mood and promoting physical and mental health. However, in this embodiment… In this embodiment, the user will receive the first artificial electromagnetic wave 60 and the second artificial electromagnetic wave 61 only after contacting the graphene component 50. Furthermore, there are no restrictions on the structural form of the carrier 70. The carrier 70 can be an eye mask, a pad, a piece of clothing, a pair of pants, a coat, a quilt, a bed, a sofa, etc. Moreover, the carrier 70 can also have a reactive surface and not have the skin-friendly surface 71. The reactive surface can receive the first natural electromagnetic wave 41, the second natural electromagnetic wave 51, the first artificial electromagnetic wave 60, and the second artificial electromagnetic wave 61, so that the user can simultaneously receive the first natural electromagnetic wave 41, the second natural electromagnetic wave 51, the first artificial electromagnetic wave 60, and the second artificial electromagnetic wave 61 by being irradiated by the reactive surface.

[0029] Please refer to Figures 5 and 6. In the second preferred embodiment, the frequency-tunable non-harmful radiation device 1 includes the power supply 10, the first frequency-tuned pulse generator 20, the second frequency-tuned pulse generator 30, the light wave generator 40, and the graphene component 50. The difference between the second preferred embodiment and the first preferred embodiment is that the first frequency-tuned pulse generator 20 can change the first pulse signal 21 into a third pulse signal 24. The structural configurations of the power supply 10, the second frequency-tuned pulse generator 30, the light wave generator 40, and the graphene component 50 are the same as in the first preferred embodiment. In this embodiment, the power supply 10, the second frequency-modulated pulse generator 30, the light wave generator 40, and the graphene device 50 will not be described again. As shown in the figure, the light wave generator 40 is electrically connected to the first frequency-modulated pulse generator 20 to obtain the third pulse signal 24. The light wave generator 40 is turned on or off according to the third pulse signal 24 to generate energy intensity changes, so that the light wave generator 40 generates a third artificial electromagnetic wave 62 through the frequency of the energy intensity changes. The third pulse signal 24 has an on state S3 and an off state S4.

[0030] Please continue to refer to Figures 5 and 6. In the second preferred embodiment, when the on state S3 is continuously occurring, the third pulse signal 24 generates a pulse width 241. The pulse width 241 can be changed according to the amount of electrical energy 11 received by the light wave generator 40, so that the pulse width 241 can be formed into a first pulse width 242 or a second pulse width 243 greater than the first pulse width 242. When the light wave generator 40 receives the electrical energy 11 from the power supply 10, the third pulse signal 24 generates a pulse intensity 244. The pulse intensity 244 is formed between the on state S3 and the off state S4, and the pulse intensity 244 can be changed according to the amount of electrical energy 11 received by the light wave generator 40, so that the pulse intensity... 244 can be transformed into a first pulse intensity 245 or a second pulse intensity 246 greater than the first pulse intensity 245. Furthermore, the third pulse signal 24, the first pulse width 242, the first pulse intensity 245, the second pulse width 243, and the second pulse intensity 246 in Figure 6 are only drawn for ease of explanation and are not actual examples. In other words, the third pulse signal 24 can be a sine wave, a square wave, a triangular wave, or any waveform, and the values ​​of the first pulse width 242 and the second pulse width 243 are not limited, as long as the first pulse width 242 is less than the second pulse width 243. Similarly, the values ​​of the first pulse intensity 245 and the second pulse intensity 246 are not limited, as long as the first pulse intensity 245 is less than the second pulse intensity 246.

[0031] Please refer to Figure 7. In the third preferred embodiment, the frequency-tunable non-harmful radiation device 1 includes the power supply 10, the first frequency-tuned pulse generator 20, the second frequency-tuned pulse generator 30, a first light wave generator 42, and a second light wave generator 43. The difference between the third preferred embodiment and the first preferred embodiment is that the non-harmful radiation device 1 generally includes the first light wave generator 42 and the second light wave generator 43, but does not include the graphene component 50 and the light wave generator 40. As for the power supply 10, the first frequency-tuned pulse generator 20, the second frequency-tuned pulse generator 30, and the second light wave generator 43, the latter is different. The structural configurations of the power supply 10, the first frequency-modulated pulse generator 20, the second frequency-modulated pulse generator 30, and the carrier 70 are the same as in the first preferred embodiment. Therefore, in this embodiment, the power supply 10, the first frequency-modulated pulse generator 20, the second frequency-modulated pulse generator 30, and the carrier 70 will not be described again. As shown in the figure, the first light wave generator 42 is electrically connected to the first frequency-modulated pulse generator 20, so that the first light wave generator 42 can be indirectly electrically connected to the power supply 10 through the first frequency-modulated pulse generator 20, thereby allowing the first light wave generator 42 to obtain the electrical energy 11 from the power supply 10 and the first pulse signal 2 from the first frequency-modulated pulse generator 20. 1. The first light wave generator 42 then generates a first natural electromagnetic wave 44 based on the electrical energy 11. Furthermore, the form of the first natural electromagnetic wave 44 is not limited; it can be visible light. When the first light wave generator 42 receives the first peak 22 of the first pulse signal 21, it enters an on-state S1 that radiates light. When the first light wave generator 42 receives the first trough 23 of the first pulse signal 21, it enters a non-radiating off-state S2. The on-state S1 is connected to… Following the off state S2, the first light wave generator 42 can be continuously turned on or off, thereby allowing the first light wave generator 42 to generate energy intensity changes by being turned on and off according to the first pulse signal 21. In this way, the first light wave generator 42 can generate a first artificial electromagnetic wave 63 through the frequency of the energy intensity change. Furthermore, there is no limitation on the form of the first artificial electromagnetic wave 63. The first artificial electromagnetic wave 63 can have a frequency of about 1 Hz to 100 GHz, and the first artificial electromagnetic wave 63 can be composed of a single or multiple single frequencies.

[0032] Please continue referring to Figure 7. In the third preferred embodiment, the second light wave generator 43 is electrically connected to the second frequency-modulated pulse generator 30, so that the second light wave generator 43 can be indirectly electrically connected to the power supply 10 through the second frequency-modulated pulse generator 30. This allows the second light wave generator 43 to obtain the electrical energy 11 from the power supply 10 and the second pulse signal 31 from the second frequency-modulated pulse generator 30, thereby allowing the second light wave generator 43 to generate a second natural electromagnetic wave 45 based on the electrical energy 11. Furthermore, there is no limitation on the form of the second natural electromagnetic wave 45. The second natural electromagnetic wave 45 can be visible light. When the second light wave generator 43 receives the second peak 32 of the second pulse signal 31, the second light wave generator 43 will activate to radiate. In state S1, when the second light wave generator 43 receives the second trough 33 of the second pulse signal 31, the second light wave generator 43 will form a non-radiating off state S2, and the on state S1 follows the off state S2, so that the second light wave generator 43 can be continuously turned on and off, thereby allowing the second light wave generator 43 to generate energy intensity changes according to the second pulse signal 31. In this way, the second light wave generator 43 can generate a second artificial electromagnetic wave 64 through the frequency of energy intensity changes. Furthermore, there is no limitation on the form of the second artificial electromagnetic wave 64. The second artificial electromagnetic wave 64 can be a frequency of about 1 Hz to 100 GHz, and the second artificial electromagnetic wave 64 can be composed of a single or multiple single frequencies.

[0033] Please refer to Figure 8. In the fourth preferred embodiment, the frequency-tunable non-harmful radiation device 1 includes the power supply 10, a frequency-modulated pulse generator 25, the light wave generator 40, and the graphene component 50. The difference between the fourth preferred embodiment and the first preferred embodiment is that the non-harmful radiation device 1 generally includes the frequency-modulated pulse generator 25 and does not include the first frequency-modulated pulse generator 20 and the second frequency-modulated pulse generator 30. Furthermore, the structural forms of the light wave generator 40 and the graphene component 50 in this preferred embodiment are different from those in the first embodiment. In a preferred embodiment, the light wave generator 40 and the graphene device 50 are connected. In a fourth preferred embodiment, the frequency-modulated pulse generator 25 is electrically connected to the power supply 10, and the frequency-modulated pulse generator 25 can generate a pulse signal 26. However, the light wave generator 40 is electrically connected to the frequency-modulated pulse generator 25, so that the light wave generator 40 can not only obtain the pulse signal 26, but also indirectly and electrically connect to the power supply 10 to obtain the electrical energy 11. The light wave generator 40 can generate a first natural electromagnetic wave 46 based on the electrical energy 11. The light wave generator 40 can generate energy intensity changes according to the pulse signal 26, so that the light wave generator 40 generates an artificial electromagnetic wave 65 and a heat energy 66 through the frequency of the energy intensity change. The graphene device 50 can receive the heat energy 66 from the light wave generator 40 to generate a second natural electromagnetic wave 52. The heat energy 66 is indirectly received by the graphene device 50 through radiation. Furthermore, there are no restrictions on the form of the artificial electromagnetic wave 65; the artificial electromagnetic wave 65 can have a frequency from approximately 1 Hz to 100 GHz. In this preferred embodiment, the frequency-tunable non-harmful radiation device 1 is mounted on the carrier 70, which has the reactive surface and does not have the skin-friendly surface 71. The reactive surface can receive the first natural electromagnetic wave 46, the second natural electromagnetic wave 52, the heat energy 66, and the artificial electromagnetic wave 65, so that the user can simultaneously receive the first natural electromagnetic wave 46, the second natural electromagnetic wave 52, the heat energy 66, and the artificial electromagnetic wave 65 by being irradiated by the reactive surface. The artificial electromagnetic wave 65 can be composed of one or more single frequencies.

[0034] Please refer to Figures 9 and 10. In the fifth preferred embodiment, the frequency-tunable non-harmful radiation device 1 includes the power supply 10, the frequency-tuned pulse generator 25, the first light wave generator 42, the second light wave generator 43, and the graphene component 50. The difference between the fifth preferred embodiment and the first preferred embodiment is that the non-harmful radiation device 1 may have the frequency-tuned pulse generator 25, the first light wave generator 42, and the second light wave generator 43, or may not have the first frequency-tuned pulse generator 20, the second frequency-tuned pulse generator 30, and the light wave generator 40. In this preferred embodiment, the power supply 10, the graphene component 50, and the carrier 70... The structural configurations are identical to those of the power supply 10, graphene element 50, and carrier 70 in the first preferred embodiment, therefore the power supply 10, graphene element 50, and carrier 70 will not be described further. In this embodiment, the power supply 10 is electrically connected to the frequency-modulated pulse generator 25, and the frequency-modulated pulse generator 25 generates the pulse signal 26. This allows the first light wave generator 42 to be electrically connected to the frequency-modulated pulse generator 25 to obtain the electrical energy 11 from the power supply 10 and the pulse signal 26 from the frequency-modulated pulse generator 25. Subsequently, the first light wave generator 42 radiates a first natural electromagnetic wave 44 after obtaining the electrical energy 11. The second light wave generator 43 is electrically connected to... The frequency-modulated pulse generator 25 obtains the electrical energy 11 from the power supply 10 and the pulse signal 26 from the frequency-modulated pulse generator 25, so that the second light wave generator 43 radiates a second natural electromagnetic wave 45 after obtaining the electrical energy 11. The graphene device 50 is electrically connected to the frequency-modulated pulse generator 25 to obtain the electrical energy 11 from the power supply 10 and the pulse signal 26 from the frequency-modulated pulse generator 25, so that the graphene device 50 radiates a third natural electromagnetic wave 53 after obtaining the electrical energy 11. Therefore, the first light wave generator 42, the second light wave generator 43, and the graphene device 50 will generate energy intensity changes according to the pulse signal 26, thus... The first light wave generator 42, the second light wave generator 43, and the graphene component 50 together generate an artificial electromagnetic wave 67 by varying the frequency of energy intensity. In this way, a single frequency-modulated pulse generator 25 can not only provide the first light wave generator 42, the second light wave generator 43, and the graphene component 50 with electrical energy 11 to radiate the first natural electromagnetic wave 44, the second natural electromagnetic wave 45, and the third natural electromagnetic wave 53, but also provide the first light wave generator 42, the second light wave generator 43, and the graphene component 50 with pulse signal 26 to generate the artificial electromagnetic wave 67 by varying the frequency of energy intensity. [Simplified Explanation of the Diagram]

[0035] Figure 1 is a schematic diagram of the frequency-tunable non-harmful radiation device and carrier of the present invention in a first preferred embodiment; Figure 2 is a block diagram of the frequency-tunable non-harmful radiation device of the present invention in a first preferred embodiment; Figure 3 is a block diagram of the light wave generator receiving a first pulse signal to generate a first artificial electromagnetic wave in a first preferred embodiment; Figure 4 is a block diagram of the graphene device receiving a second pulse signal to generate a third pulse signal in a second preferred embodiment; Figure 5 is a block diagram of the frequency-tunable non-harmful radiation device in a second preferred embodiment; Figure 6 is a schematic diagram of the third pulse signal in a second preferred embodiment; Figure 7 is a block diagram of the frequency-tunable non-harmful radiation device in a third preferred embodiment; Figure 8 is a block diagram of the frequency-tunable non-harmful radiation device in a fourth preferred embodiment; and Figures 9 and 10 are block diagrams of the frequency-tunable non-harmful radiation device in a fifth preferred embodiment.

Claims

1. A frequency-tunable non-harmful radiation device, comprising: a power supply; a first frequency-modulated pulse generator electrically connected to the power supply and capable of generating a first pulse signal; a second frequency-modulated pulse generator electrically connected to the power supply and capable of generating a second pulse signal; a light wave generator electrically connected to the first frequency-modulated pulse generator to obtain electrical energy and the first pulse signal, the light wave generator generating a first natural electromagnetic wave based on the electrical energy, and the light wave generator generating an energy intensity change based on the first pulse signal, such that the light wave generator generates a first artificial electromagnetic wave through the frequency of the energy intensity change; and a graphene element electrically connected to the second frequency-modulated pulse generator and capable of obtaining the electrical energy and the second pulse signal, the graphene element generating a second natural electromagnetic wave based on the electrical energy, and the graphene element generating an energy intensity change based on the second pulse signal, such that the graphene element generates a second artificial electromagnetic wave through the frequency of the energy intensity change.

2. The frequency-tunable non-harmful radiation device as described in claim 1, wherein, The first pulse signal includes a first peak and a first trough arranged continuously and alternately. When the light wave generator receives the first peak of the first pulse signal, it will form an on state for radiation, and when the light wave generator receives the first trough of the first pulse signal, it will form a off state for no radiation, so that the light wave generator generates the first artificial electromagnetic wave by changing the frequency of the on and off states.

3. The frequency-tunable non-harmful radiation device as described in claim 1, wherein, The frequency-tunable, non-harmful radiation device is mounted on a carrier having a skin-friendly surface that contacts a user, allowing the user to simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the first artificial electromagnetic wave, and the second artificial electromagnetic wave.

4. The frequency-tunable non-harmful radiation device as described in claim 1, wherein, The first frequency-modulated pulse generator can convert the first pulse signal into a third pulse signal, and the light wave generator is electrically connected to the first frequency-modulated pulse generator to obtain the third pulse signal. The light wave generator generates an energy intensity change based on the third pulse signal, so that the light wave generator generates a third artificial electromagnetic wave through the frequency of the energy intensity change.

5. A frequency-tunable non-harmful radiation device, comprising: a power supply; a first frequency-modulated pulse generator electrically connected to the power supply and capable of generating a first pulse signal; and a second frequency-modulated pulse generator electrically connected to the power supply and capable of generating a second pulse signal. A first light wave generator, electrically connected to the first frequency-modulated pulse generator to obtain electrical energy and the first pulse signal, the first light wave generator generates a first natural electromagnetic wave based on the electrical energy, and the first light wave generator generates an energy intensity change based on the first pulse signal, so that the first light wave generator generates a first artificial electromagnetic wave through the frequency of the energy intensity change; and a second light wave generator, electrically connected to the second frequency-modulated pulse generator to obtain electrical energy and the second pulse signal, the second light wave generator generates a second natural electromagnetic wave based on the electrical energy, and the second light wave generator generates an energy intensity change based on the second pulse signal, so that the second light wave generator generates a second artificial electromagnetic wave through the frequency of the energy intensity change.

6. The frequency-tunable non-harmful radiation device as described in claim 5, wherein, The frequency-tunable, non-harmful radiation device is mounted on a carrier having a skin-friendly surface that contacts a user, allowing the user to simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the first artificial electromagnetic wave, and the second artificial electromagnetic wave.

7. A frequency-tunable non-harmful radiation device, comprising: a power supply; a frequency-modulated pulse generator electrically connected to the power supply and capable of generating a pulse signal; a light wave generator electrically connected to the frequency-modulated pulse generator to obtain electrical energy and the pulse signal, the light wave generator generating a first natural electromagnetic wave based on the electrical energy, the light wave generator generating an energy intensity change based on the pulse signal, such that the light wave generator generates an artificial electromagnetic wave and a heat energy through the frequency of the energy intensity change; and a graphene device receiving the heat energy of the light wave generator to generate a second natural electromagnetic wave.

8. The frequency-tunable non-harmful radiation device as described in claim 7, wherein, The frequency-tunable, non-harmful radiation device is mounted on a carrier having a reactive surface to receive the first natural electromagnetic wave, the second natural electromagnetic wave, the heat energy, and the artificial electromagnetic wave, so that the user can simultaneously receive the first natural electromagnetic wave, the second natural electromagnetic wave, the heat energy, and the artificial electromagnetic wave by being irradiated by the reactive surface.

9. A frequency-tunable, non-harmful radiation device, comprising: a power supply; a frequency-modulated pulse generator electrically connected to the power supply and capable of generating a pulse signal; a first light wave generator electrically connected to the frequency-modulated pulse generator to obtain electrical energy and the pulse signal, the first light wave generator radiating a first natural electromagnetic wave after obtaining the electrical energy; a second light wave generator electrically connected to the frequency-modulated pulse generator to obtain the electrical energy and the pulse signal, the second light wave generator radiating a second natural electromagnetic wave after obtaining the electrical energy; and a graphene element electrically connected to the frequency-modulated pulse generator to obtain the electrical energy and the pulse signal, the graphene element radiating a third natural electromagnetic wave after obtaining the electrical energy; wherein... The first light wave generator, the second light wave generator, and the graphene device will generate energy intensity changes according to the pulse signal, so that the first light wave generator, the second light wave generator, and the graphene device will jointly generate an artificial electromagnetic wave through the frequency of the energy intensity change.

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