TW571009B - Fiber tissue, shoes, fabrics, and clothes with electromagnetism for therapeutic effects - Google Patents

Abstract

A material is added to a fiber tissue, shoes, fabrics, and clothes so that when an energy stimulates the material, radiation with specified electromagnetic spectrum will be discharged. The electromagnetic spectrum includes the first radiation with a wavelength selected from a group consisting of 0.2 mum to 50 mum and about 0.4 mum to 25 mum; and the second radiation with a wavelength selected from a group consisting of about 7500 mum to 100,000 mum and about 5400 mum to 500,000 mum. The radiation is similar to the radiation emitted from a human body in a similar range. A reflective layer exists next to a fabric with the material so that the body heat can be preserved for a therapeutic effect. The energy used for stimulating the material can be body heat, electric heat, magnetic energy, or other energy form.

Description

571009 V. Description of the invention (1) Field of the invention The present invention relates to the field of physical therapy, and particularly effective fibrous tissue, fabric, shoes, and clothing. μ has a background of physical invention *, Figure 1A measures electromagnetic radiation emitted by the human body. Figure 1a shows that the measured radiation wavelength is in the range of 1 β m to 6 # m. Figure 2 shows the electromagnetic radiation pattern radiated by the human body in a wider electromagnetic spectrum, as indicated by the dotted line. As shown in Figure 2, the human body emits a first radiation, the wavelength range of which is about 0 · 2 // m to 50 / zm, and the wave radiation range of the second radiation is about 7500 / zni to 1 0 0 0 00, from Figure 2 also shows that the wavelength range of about 50m to 100000 // m is essentially no radiation, and about 25 // m to 5400 " m is essentially no radiation. Figure 2 further shows that the wavelength range of the first radiation is about 0.4 vm to 25 // m, and the wavelength range of the second radiation is about 5400 500 0 0 ㈣. "

Figure 3 shows the electromagnetic radiation emitted by the heat lamp, and its wavelength range is about 0.5 // m to 3.5 / zm. The heat lamp is manufactured by Phillips Electronics, such as their model number HP3690. By comparing Fig. 1A and Fig. 2, in the same wavelength range, the radiation pattern of the heat lamp is significantly different from that of the human body. ^ Figure 4 shows the electromagnetic spectrum produced by a traditional electromagnetic radiation device, ranging from ^ 72 // πm to 2 / zm, and 0.72 // m to 50 / zm, which is significantly different from the human body

Page 4 571009 V. Description of the invention (2) The emitted electromagnetic spectrum. Figure 5 shows that the letters A and C are the electromagnetic radiation emitted by the heat lamp in Figure 3 and the chest cavity of the human body, and their wavelengths are 8mm. In each case, the instrument used to measure electromagnetic radiation with a wavelength of 8 mm was separated from the heat lamp and the chest cavity of the human body by approximately 1.5 meters. The ambient temperature at the time of the measurement of the heat lamp was about 11 5 ° c, and the temperature of the emitter of the heat lamp was 1 723 ° C, where the maximum wavelength of the transmitter was 1 · 7 // m. Measure the ambient temperature of the human body at about 2 9 C at that time. From the letters A and C in Figure 5, it is shown that the light emitted by the human body at a wavelength of 8 mm is significantly higher than the light emitted by the heat lamp. It is the goal of physical therapy science and industry to improve the health and comfort of warm shoes and clothing. At present, the M point of shoes on the market can promote the health of the feet, and the soft I, 偁 1 and ^ 1 in the shoes do not teach the use of skills to protect the foot's odor. Qi He was able to stimulate # # & ^ + 1 body heat to make clothes, and after Tian was excited by the moon, the cloth radiated magnetic radiation, as shown in Figure 1A, Figure 2 and Figure 5 ( Summary of electricity invention similar to that produced by the human body The present invention provides a group of fibers with curative effect. As determined by spectroscopy, when stimulated by a variety of Λ, weaving, clothes, and shoe heat or electric energy, ^ 2 The chemical substances can be irradiated with a variety of chemical substances, such as by using spectroscopy, and emit inherent radiation. When stimulated by borrowed energy, human shells can be radiated by inherent radiation such as heat or electricity, such as Figure A

Page 5 571009

V. Description of the invention (3) Figure and Figure 5C. This type of chemical can help the warrior 5 1 μ weaving at the time of manufacture. The body heat caused by using or not using an external energy supply (such as J) is used as energy to excite the chemical and also emits an inherent radiation. In the best case, the wavelength range of the intrinsic radiation system is about 0.2 " m to 5G " m, and the wavelength range of the second radiation = ± 7500 // 1 „to 10 000 0 / ^. Better case Yes, the intrinsic radiation system = > The wavelength range of the radiation is about 0.4 // Π1 to 25em 'and the long-range consumption of the second radiation is about 5400 / zm to 500,000 // m.

= The chemical substance is preferably a metal oxide, in addition to being able to emit the aforementioned radiation = range, ′ At the same time, the heat is reflected back into the body, and the clothes are warmed as a result. The can be used to make clothes (such as shirts, lined clothes, or shoes). Lining = lining. Although the process is not fully understood, it can be ascertained that the light emission of the human body with the aforementioned wavelengths can achieve a therapeutic effect, and the body heat preservation achieved by returning the reflected thermal energy to the body can make the body sleep three = warm. When an external power supply (such as a battery supply) is used in a resistor-distribution device, additional thermal components are also saved. In the example of a shoe, chemicals are added to Λ + 2 on the inner lining of the shoe, such as the sole and the part above the sole. The lining can be reversed to the foot. Examples of other clothing, such as lined clothes, towels, trousers, sweaters, belts, shorts, gloves, soft hats, etc., clothing, chemicals can be added to the woven fabric to make up, The clothing is applied to the surface of the fibrous structure constituting the woven fabric.

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V. Description of the invention (4) To make people familiar with the art understand this hair, we will use the following specific examples, and cooperate with the attached drawings: Explain in detail. Closer than thermal radiation

Figure 1B shows the measured electromagnetic radiation by stimulating a material with energy. Figure 1B shows the wavelength range of about j # m to 丨 6, the radiation emitted by the lamp (Figure 3), in this spectral range ^ Xingchang radiation emitted by the human body (Figure 1A). 5 shows the electromagnetic radiation with a wavelength of 8mm, the electromagnetic radiation emitted by the letter A virtual heat lamp, the letter Bu π stomach, one, and Yu Keshuang represents the electromagnetic radiation emitted by the material used to excite Ben Maoming. The letter C represents the electromagnetic radiation emitted by the human chest. In Figure 5, it is observed by comparison that the heat lamp emits a small amount of electromagnetic radiation. However, the electromagnetic radiation emitted by the material used in the present invention and the electromagnetic radiation emitted by the human thorax have similar amounts. The comparison also shows that the electromagnetic radiation has a wavelength of 8 min. The dotted line indicates the electromagnetic radiation radiated from the human body, and the solid line indicates the electromagnetic light emitted from the material used in the present invention. It can be seen from Figures 1 to 5 that the material can be driven. When the material is stimulated by energy, an electromagnetic spectrum will be produced, which has a wavelength range similar to the radiation emitted by the human body. It can also be seen that not all energy-stimulated materials will produce similar materials.

Page 7 571009

Lightning in the wavelength range radiated by the human body * ^ Ligu < tail magnetic spectrum, such as the material used for heat lamps, Figure 2 and r χ Λ & 乂 Electrical stimulation mouth 1 and Figure 5A describe its radiation The spectrum is generated, or the electromagnetic generated by the spectral towel 7Q shown in Figure 4 is generated. ~ 72 // ιη to 2 " π, which is wT; φ 0.72 / zm to 50 // m, both are clear. Electromagnetic radiation. ... significantly different from what the human body emits

Figure 6 depicts a block diagram of the process of using Energy 1 to stimulate-Material 4. It will sequentially emit an inherent radiation, A Zhongfu Zhao # j f ′ energy converter. The reference symbol 2 in Figure 6 can be:; :: ;; = table-cloth. Energy source 1 can be in many forms, for example: =), electricity, magnetic energy, solar energy, chemical energy, or biological energy. The clothing and cloth have weaving fabric 2, and weaving fabric 2 with the material 4 added to it, can = body heat is a better energy source, because they can easily get two. It can be powered by alternating current (AC) power, or by a battery. Magnetic energy _ iron device supply. 』Jingyi Ultra Energy 1 is converted into thermal or magnetic energy by the energy converter 3 to provide the moon dagger cover to the material 4. Material 4 can be composed of a monomer, or a mixture of one or more chemical elements in the periodic table. The stimulation of the energy 'by the energy level of the element or compound is radiated in the form of electromagnetic radiation. The material 4 is preferably composed of a substance, wherein the substance is irradiated with a first radiation and a second radiation after being stimulated by the energy source 1. The wavelength range of the first radiation is about 0.2 / zm to 50 // m The wavelength range of the second radiation is about 7500 # «1 to 100,000 // 111. Another substance worthy of hope ’,,

571009

Two radiations, the wavelengths of the first, the second radiation, the first radiation and the second radiation are stimulated by the energy source 1, and the wavelength range of the first radiation and the first radiation is about 0.4. // Π1 to 25 / / Π1 ranges from about 5400 // m to 50000. ^ Radiation is referred to as "simulating biological electromagnetic spectrum," since Erran =: It was completely •, but the inventor believes that when the electromagnetic radiation in a certain range matches the absorption energy band of the human body A large part of the molecule,? Is absorbed, causing the energy of the child atoms or electrons to change, making the oscillation Cation obvious in the absence of it and providing a therapeutic effect.

The selection of an energy stimulus is based on the following principles: The material that generates the simulated biological electromagnetic spectrum a = After the energy is obtained, the electromagnetic spectrum of the radiation emitted by the material should be distributed as widely as possible in the micron band

(miCrOmeter band) and millimeter band Uillimeter band). The radiation effect is only distributed in the micron (infrared) spectrum ▼ or in the Aimi band, and the biological effect is not good enough. In order for the biological effects produced to help the growth and development of living organisms, the radiation signal should be present in the range of micrometers to millimeters. Therefore, the broad electromagnetic wave from micrometers to millimeters (/ m-mm) Unique features of the invention. The selection and ratio of chemical elements is indispensable for achieving the broad spectrum, and

571009 V. Description of the invention (Ό When stimulated by energy, it must be able to produce the simulated biological electromagnetic spectrum. Based on the technology in spectroscopy, a wide range of chemicals that can generate the electromagnetic spectrum will be identified. B, the element should Technically, it is as similar as possible to the composition of the biological substance in the living organism. The frequency distribution of the internal biological spectrum of the living organism is then considered, for example, as shown in Figure 1A, Figure 2, and Figure 5c. The selected material can be Various energy sources are stimulated to produce a simulated biological electromagnetic spectrum. The different energy sources are described below. Plastic or woven fabrics with fixed resistance values that use electricity as the energy source contain produced electrical wires designed to have glue or rubber that is used in electric blankets. Weaving can produce a solid belief that the fluid in the body can be used for a period of time to make electric blankets, health chair cushions, mattresses, and household beds below 45 ° C for health. Electric wires can generate simulated power lines. Constant strength The cycle is a simulation that is beneficial to the belt, the public, and the transportation. The bioelectric heating power is added when the electricity is charged, and it is modified. This company or car products. Plastic or magnetic spectrum and the cross-sectional force of the biological electromagnetic good nervous system materials can be sub- or boat or the heating warm cloth, the substance. The region, class, this plastic spectrum, compatible. When used to be used The degree of the aircraft is controlled

Page 10 Description of the invention (8) Containing ί f 2 can be added to plastic or woven cloth, the plastic or woven bag; 2 substances of pseudo-biological electromagnetic spectrum, the magnetic material can be enhanced electromagnetic spectrum. Used in the electromagnetic spectrum and seeing 42 J, it can improve the circulation and health of fluids in the body. It can be used to make mattresses or chair cushions, hats, or knee straps, or durable magnetic materials from Baoyuan to make various magnet generators. -Health Care Equipment for Spectrum. 3, using solar energy as the heating source electromagnetic = f glue or woven cloth 'contains the production of simulated organisms caused by plastic i into a bell I, can be used to make large tents or rooms, with> 2 I cloth can be solar energy Heating, and become the generator of the four object electromagnetic spectrum. Tai Fen such as π ',; 4, for "Heihe nuclear biomimetic, breeding, or low temperature cases can be used for initial care 4, using body heat or surrounding heat as an energy source plastic or woven fabric, including the Second, it can be used to make daily necessities such as shoes and hat leather; of: to:,: caused by the heat or environment generated by the human body; : And has the chemical composition 571009 of the generator of the simulated biological electromagnetic spectrum included in the present invention 5. The invention description (9) has been described by way of example. In practical applications, the oxide can be replaced by a fluoride, carbide or nitrite. The mixing ratio of this ingredient can also be readjusted, but it should contain at least one or some of the elements in Table A or their compounds. When any of the following elements or their compounds are used as the main component, the amount should not be less than 10%: chromium (Cr), magnesium (Mg), stone (Se), germanium (Ge), zinc (Zn), copper (Cu), manganese (Μη), aluminum (A1), thorium (Sr), thorium (Ce), period (纪), calcium (Ca), zirconium (Zr), titanium (Ti), carbon monoxide (Co), indium (Mo), Shi Xi (Si), iron (Fe), hunger (V). The generator of the simulated biological electromagnetic wave spectrum of the present invention may also include a gray body or a near black body radiation source composed of a plurality of ceramics, metals, or a combination of ceramics and metals.

The principle of determining the proportion of the above chemical composition or the radiation source of the gray body or approximate black body mentioned above is that their electromagnetic spectrum should be as similar as possible to the electromagnetic spectrum of the living organism, that is, the simulated biological electromagnetic spectrum should match Based on the actual biological electromagnetic spectrum, and the more consistent the better. The range of the electromagnetic spectrum simulated by complex organisms such as humans or animals with a fixed proportion of components should be as large as possible, preferably including ultraviolet, visible light, infrared including millimeter waves, so that sufficient Molecular conversions, atomic conversions, and electronic conversions are simultaneously introduced. , Shen: The young people found that the proportion of all elements, the key is whether to simulate the spectrum signal generated by the biological electromagnetic wave 4 generator, and the electronic or stimulated

571009 V. Description of the invention (10) ----: The spectral signal generated by the energy caused by the son can be used to achieve the biological effect of profit adjustment. 2. The chemical elements of the present invention include most elements of the second, third, fourth, and fifth periods in the Mendeleev periodic table, and metal oxide elements (such as rare earth elements, Jing ). Most of these elements are metallic elements, and are used in oxides, fluorides, nitrides, sulfides, deletions, or carbides, most preferably oxides. In order to generate a simulated biological electromagnetic spectrum, which is most similar to the inherent biological electromagnetic spectrum shown in Figure 2, the material 4 in Figure 6 is best to choose one of the following elements or its compound: carbon monoxide (Co), copper (Cu), Molybdenum (Mo), lithium (Li), beryllium (Be), copper (B), magnesium (Mg), aluminum (A1), silicon (Si), potassium (K), calcium (Ca), titanium (Ti), Vanadium (V), chromium (Cr), manganese (Mn), iron (Fe), nickel (Ni), zinc (Zn), germanium (Ge), gill (Sr), hammer (Zr), niobium (Nb), Tantalum (Ta), hafnium (Hf), selenium (Se), krypton gas (Tη), tungsten (W), gold (Au), yttrium (Y). When any of the following elements or their compounds are used as the main component of the simulated biological electromagnetic spectrum generation part, the amount should not be less than 50%: chromium (Cr), magnesium (Mg), code (Se), germanium (Ge ), (Zn), copper (Cu), manganese (Μη), aluminum (Α1), gill (Sr), thorium (Ce), yttrium (Υ), calcium (Ca), hammer (Zr), titanium (Ti ), Carbon monoxide (Co), I mesh (Mo), Shi Xi (Si), iron (Fe), starvation (V). Table A shows the chemical elements used in the method and device according to the present invention 'to simulate the emission of a first light emission and a second light emission', wherein the wavelength range of the first radiation is about 0.2 // m Up to 50 // m, the second spoke

571009

V. Explanation of the invention (11) The wavelength range of the radiation is from about 7500 /// Π1 to 1000 vm, or another first Kota shot and another second light shot, wherein the wavelength range of the first round shot of δ11 is about 0 to 25 // m, the wavelength range of the second radiation is from about woo to 500000 # ιη 〇 The chemical elements can be mixed and then directly added untreated plastic engineering materials, paints, dyes, matte paints, or other coatings Paint on the surface of plastic products. They can also be mixed into textiles (cloth, human = leather) to form a radiating surface film. Plastic or textiles that can radiate a simulated biological electromagnetic spectrum can be used for human or animal health. / Crop breeding, seedling conservation, microbial fermentation.

Table A Chemical elements used in the present invention 571009 V. Description of the invention (12) ... Monomer Oxides Carbides Nitrides Fluorides Borides Cobalt (Co) Copper (Cu) Molybdenum (Mo) Lithium (Li) Beryllium (Be) BeO B ^ C Be3N2丨 Boron (B) B2O3 b4c BN Magnesium (Mg) MgO MgF2 Aluminum (Al) AI2O3 Silicon (Si) Si02 NbC NbN Potassium (K) KO (I Calcium (Ca) CaO Titanium (Ti) Tl〇2 TiC TiN VN T1B2 Vanadium (V) V2O5 VC vb2 Chromium (Cr) Manganese (Mn) Mn〇2 Cr3〇2 CrN M11F2 CrB (Cr3 B4) Iron (Fe) Fe2〇3 * Nickel (Ni) NiO Zinc (Zn) ZnO ZnF2 Germanium (Ge) GeO Strontium (Sr) SrO Zirconium (Zr) Zr02 ZrC ZrN ZrB2 Niobium (Nb) NbC NbN NbB2 Tantalum (Ta) TaC TaN TaB2 1 Hafhium (Hf) Selenium (Se) Hf02 HfC HfN HfB Thorium TnC TnC ΤηΒό) Tungsten (W) Cerium (Ce) Gold (Au) Ce〇2 WcW2C WB · Yttrium (Y) Y2O3 im Page 15 571009 V. Description of the invention (13) In the embodiment of the present invention, one or more elements And its compounds can be Select and adjust according to the special living organisms from Table A, or the necessity of simulating or partially simulating the biological electromagnetic spectrum. "'Another alternative radioactive layer mixing ratio may not be selected.' Now will be described: Example 1 The radiation layer of the simulated biological electromagnetic spectrum generator contains 16 elements mainly in the form of oxides. The mixing ratio is: chr 〇mium ο X ide 9 5%, se 1 eniumoxide ^ 1%, chromiu in ^ 0 · 8 %, Ger in anium oxide ^ 0.8 ° / 〇 ^ zinc oxide ^ 0.5% ^ ferric oxide ^ 0.5%, magnesium oxide -〇 · 1%, molybdenum oxide g〇 · 1 ° / 〇 ^ strontium oxide ^ 0.1% > vanadium oxide ^ 0.1% ^ aluminum oxide-0 · "/ 〇, siiicorl 0Xide-0.1%, lanthanium ^ Ol%, magnesium fluoride ^ Ol% o Example 2 The radiation layer of a simulated biological electromagnetic spectrum generator contains the following: chromium oxide 95% chromium ^ 0.8% ferric oxide ^ 0.5% zinc oxide ^ 0.4%

Page 16 571009 V. Description of the invention (14) copper oxide ^ 0 · 1% cobalt oxide 0.1% manganese oxide ^ 0 · 1% molybdenum oxide 0.1% selenium oxide 0 · 7% strontium oxide 0.1% vanadium oxide 0 · 1% aluminum oxide 0.1% magnesium oxide 0 .1% silicon oxide 0. 1% germanium oxide 0 .6 ° / 〇1 anthan i um 0.1% boric oxide ^ 0.1% magnesium fluoride 0. 1% The example simulates the emission layer of a biological electromagnetic spectrum generator Should contain the following ingredients: chromium oxide 93% chrom i um ^ 0.8% copper oxide ^ 0.1% manganese oxide ^ 0.1% selenium oxide ^ 1% vanadium oxide ^ 0.1% magnesium oxide ^ 0.1% germanium fluoride— 0.1% magnesium fluoride— 0.1 % ferric oxide ^ 0. 5% zinc oxide ^ 0. 5% cobalt oxide ^ 0.1% molybdenum oxide ^ 0.1% strontium oxide ^ 0.1% aluminum oxide ^ 0.1% silicon oxide ^ 0. 1% 1 anthan i um ^ 0. 1 %

Page 17 571009 V. Description of the invention (15) Elements such as bells, potassium and titanium can also be added, but their content should not exceed 0.2%. Example 4 The radiation layer of the simulated biological electromagnetic spectrum generator contains columns: chromium oxide 94 % chromium ^ 0.8% copper oxide ^ 0.2% manganese oxide ^ 0.3% selenium oxide 0.9% vanadium oxide ^ 0.1% magnesium oxide ^ 0.1% germanium oxide ^ 0.8% CaC03 ^ 0. l ° / 〇ferric oxide 0 · 5% zinc oxide 0. 7% cobalt oxide 0. 2% molybdenum oxide 0. 1% strontium oxide 0. l ° / 〇aluminum oxide 0. l ° / 〇silicon oxide 0. l ° / 〇lanthanium 0. l ° / 〇 Example 5 The enemy emission layer of the muaarf that simulates the generator of biological electromagnetic spectrum contains the following: f err ic oxide ^ 0.5% chromium oxide 94% —

I, page 18, 571009 V. Description of the invention (16) chromium ^ 0.8% zinc oxide 0.8% copper oxide ^ 0.2% cobalt oxide 0.2% manganese oxide -0.3% molybdenum oxide 0.1% selenium oxide ^ 0.9% strontium oxide 0. l ° / 〇vanadium oxide ^ 0.1% aluminum oxide 0. 1% magnesium oxide ^ 0.1% silicon oxide 0. 1% germanium oxide $ 〇 · 8% 1 anthan i um 0. 1% KI ^ 0.1 % B〇2 0. 1 ° / 〇CaC03 ^ 0.1 ° / 〇- ~~ _ Example 6 MgF2 0.1% The radiation layer of the simulated biological electromagnetic spectrum generator includes the following: ~ —— a chromium oxide 94% ferric oxide 0.5 ° / 〇chromium ^ 0.8% zinc oxide 0. 5% copper oxide ^ 0.l ° / 〇cobalt oxide 0.1% manganese oxide ^ 0.1% molybdenum oxide 0.1. ° / 〇selenium oxide ^ 0.9% strontium oxide 0. 1 ° / 〇vanadium oxide ^ 0.1 ° / 〇aluminum oxide 0.1% magnesium fluoride ^ 0.1% silicon oxide 0.1 ° / 〇germanium oxide ^ 0.8 ° / 〇lanthanium oxide 0.1% and a trace metal element Such as li, potassium, and sodium, their total amount should not exceed

Page 19 571009 V. Description of the invention (17). The radiation layer of the 5 ° / 〇 example simulated biological electromagnetic spectrum generator contains the following chromium oxide 95% chromium ^ 0.8% copper oxide ^ 0.1% manganese oxide ^ 0. 1% selenium oxide ^ 0.9% vanadium oxide ^ 0.1% magnesium oxide ^ 0.2% germanium oxide ^ 0.8% ferric oxide 0.5% zinc oxide 0.5 ° / 〇cobalt oxide 0.1 ° / 〇 molybdenum oxide 0.1% strontium oxide 0.1% aluminum oxide 0.1% silicon oxide 0.1% 1 anthan i um 0. 1 ° / 〇 Example 8 The radiation layer of a simulated biological electromagnetic spectrum generator contains the following ions!] chromium oxide 92% chromium ^ 0.8% copper oxide ^ 0.1% ferric oxide ^ 0. 5% zinc oxide ^ 0.7% coba11 oxide ^ 0.1%

Page 20 571009 V. Description of the invention (18) manganese oxide ^ 0.2% selenium oxide ^ 1% vanadium oxide ^ 0.1% magnesium oxide ^ 0.1% KI ^ 0.1% molybdenum oxide ^ 1% strontium oxide ^ 0.1% silicon oxide ^ 0.1% lanthanium ^ 0.1% Add an element such as titanium or boron with an appropriate amount (not more than 0.2%) Example 9 The radiation layer of a simulated bio-electromagnetic wave generator contains the following: germanium oxide 5 ° / 〇thorium oxide 4 ° / 〇zirconium oxide ^ 15% i tan ium carbide 3 ° / 〇selenium oxide ^ 5% silicon oxide ^ 50% cerium oxide ^ 5% boron nitride oxide ^ 10% tungsten carbide ^ 3% Also, add platinum 0.01% Example 1 〇 Simulate biological electromagnetic waves Emission layer of the spectrum generator & containing -p 含,]

Page 21 571009 V. Description of the invention (19) aluminum oxide ^ 85/5 ferric oxide ^ 3% cobalt oxide ^ 2% titanium oxide ^ 3 ° / 〇silicon oxide ^ 3% hafnium oxide — 2% Also, add platinum 0.01 % Example 11

The radiation layer of the simulated bio-EM spectrum generator includes the following: yttrium oxide ^ 5 ° / 〇 FeCaMnFeOx ^ 90 ° / 〇 silicon oxide ^ 5% Example 1 2 The radiation layer of the simulated bio-EM spectrum generator includes the following:

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571009 The emission layer of the simulated biological electromagnetic spectrum generator includes the following: titanium oxide ^ 90% silicon oxide ^ 1% zinc oxide ^ 1% beryllium oxide ^ 0.5% zirconium oxide ^ 5% ferric oxide ^ 1.5% copper oxide ^ 1% Example 14 The radiation layer of the simulated bio-electromagnetic spectrum generator includes the following: silicon carbide monomer (high purity) 90% zinc oxide 1% chromium 2% ferric oxide 1% Example 1 5 The radiation layer of the simulated bio-electromagnetic spectrum generator includes the following: s i1 icon oxide ^ 8 0% ferric oxide ^ 2%

Page 23 571009 V. Description of the invention (21) vanadium oxide ^ 2% titanium oxide ^ 2% tungsten carbide ^ 1% calcium oxide ^ 5% zinc oxide ^ 2% boron nitride ^ 2% magnesium oxide ^ 2% cerium oxide ^ 2 % Example 1 6 The radiation layer of the simulated biological electromagnetic spectrum generator includes the following: aluminum oxide ^ 85 ° / 〇cerium oxide l ° / 〇ferric oxide ^ 5% cobalt oxide 3% chromium oxide ^ 5 ° / 〇silicon oxide l ° / 〇cerium oxide ^ 2% Example 17 The range of the spectrum is limited to 0.5-3 0 // m. The generator of the simulated biological electromagnetic spectrum contains 100% of magnesium fluoride (MgF2). Example 1 8 The selected material that emits the simulated biological electromagnetic spectrum can also be used

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Material of comprehensive spectrum of chromaticity radiation and I large. In Example 18, they are: Manufactured to contain fluorinated beauty (50%), and other ingredients can be high magnesium fluoride (MgF2) ^ titanium oxide (Ti〇2)-50 / 〇nickel oxide (NiO ) ^ 5% manganese oxide (Mn02) ^ 6% 50% in oxide (Sn02) ^ \% (BN) ^ 20 ° / 〇 And 'here the simulated biological electromagnetic spectrum system uses energy to generate, such as electricity that can be intermittently operated' When the intermittently operating energy source works, the simulated biological electromagnetic spectrum can be generated intermittently, for example, for two seconds every 10 seconds, so as to produce a changing frequency spectrum. Example 1 9 The radiation layer of a simulated biological electromagnetic spectrum generator contains the following: chromium oxide $ 90% chromium ^ 1% copper oxide ^ 0.2% manganese oxide ^ 〇.5% selenium oxide ^ 1.5% ferric oxide ^ 1% zinc oxide > 1% cobalt oxide > 0.2% molybdenum oxide > 0.1% strontium oxide > 0.1%

Page 25 571009 V. Description of the invention (23) vanadium oxide ^ 0.1% vanadium oxide ^ 0.1% magnesium oxide ^ 0.8% germanium oxide ^ 1% KI ^ 0.1% aluminum oxide ^ 0.1% aluminum oxide ^ 0.2 % silicon oxide ^ 0.3% 1 anthanium ^ 0.1% Example 2 0 The radiation layer of the simulated biological electromagnetic spectrum generator contains the following: beryllium oxide 1% zinc oxide 3% niobium oxide 1% strontium oxide l ° / 〇selenium oxide 2 ° / 〇ferric oxide 2% 21 The spray layer includes the following: chromium oxide ^ 80% copper oxide ^ 2% cobalt oxide ^ 2% calcium oxide ^ 3% silicon oxide ^ 2% molybdenum oxide ^ 1% zinc oxide ^ 5% silicon ^ 5% ferric oxide ^ 3% germanium oxide ^ 10%

Page 26 571009 V. Description of the invention (24) thorium oxide ^ 2% chromium oxide ^ 75%

FIG. 7A-1, FIG. 7A-2, FIG. 7B-1, FIG. 7B-2, FIG. 7C-1, FIG. 7C-2, and FIG. 7D show specific embodiments of an object. The transmitted energy stimulates the material therein, so that the material emits an inherent radiation. Here the object is called the generator of simulated biological electromagnetic spectrum. The object 4 in FIG. 7A-1 includes a substrate 4b and a radiation layer 4a disposed on the substrate 4b. The radiation layer 4a is composed of a boride, a nitride, a carbide, a sulfide, or a fluoride. The electrodes 5 are on both sides of the object. The ratio of these elements to their compounds is determined by the type of organisms that are readjusted and growing. Basically, it can have low or crystal glass, it can also generate temperature to apply the material, the radiation layer, it is embedded in the shell of Ke Yi ... one ...-eight do not tire, in this embodiment: Ϊ: force ΐ. base! 4b can be made of non-metallic materials, such as: r :: resistance, two mechanical strength, high radiation ceramic, glass or other types of carbon rods or resistors with high thermal resistance and high heat ; ::: = Electrical and can be mixed in the same ratio as the product, and then diluted :: prime and their compound or bright lacquer lacquer 'and are applied to the gorge and made into paint. For energy conversion, the device 3 can be connected to a charged J-plane to form the matrix shown in the figure or be placed on the end of σ ′, 丝, silk, or the like.

571009 V. Description of the invention (25) Conversion into thermal energy. The heat generated by the heating wire is used to excite the chemical elements in the radiation layer. The heating temperature should not be lower than the body temperature of the living organism, and electricity can be supplied by a battery. The heating wire 3 in FIG. 7A-1 can be replaced with the conductive thin film layer 3 in FIG. 7A-2 to make the object harder. As a result, the speed and efficiency of converting electrical energy into thermal energy are increased. The conductive film layer 3 is made of metal. Oxidation technology, that is, the decomposition of chloride at high temperature to form a conductive film of metal oxide, is formed on the surface of the substrate 4b. In FIG. 7A-2, the radiation layer 4a is coated on the surface of the conductive film 3.

Fig. 7B-1 shows another embodiment of the simulated biological electromagnetic spectrum generator according to the present invention. In this example, the substrate 4b is combined with the energy converter 3 by a method of infiltrating a conductive substance into a non-metal material so that it has conductivity and meets the required resistance. The radiation layer 4a is then coated on the substrate 4b 'to form a simulated biological electromagnetic spectrum generator. The substrate 4b can also be made of metal. In this example, the electric current injected into the substrate 4b is converted into thermal energy, and the substrate 4b also functions as an energy converter. Then, one or more chemical elements and their compounds are mixed in a proper proportion of a bright lacquer paste layer to be coated on a metal substrate 'and are simulated at a temperature of South China to produce a simulated biological electromagnetic spectrum generator of a metal substrate. In Figure 7B-2, the chemical elements and their compounds that make up the radiation layer 4a can be added to the matrix 4b and then sintered into a simulated organism at high temperatures.

Page 28 571009 V. Description of the invention (26) The generator of the electromagnetic spectrum (Figure 7B-2), Figure 7B-2 is more complete than Figure 7B-1 0 Figure 7C-1 is still in accordance with the present invention Another specific embodiment of a simulated bio-electromagnetic spectrum generator. In this example, one or more chemical elements and their compounds are mixed in the mud in an appropriate ratio, and then sintered throughout the object, so that the matrix contains components that produce the simulated biological electromagnetic spectrum via selenium (se). . When an energy converter (such as a heating wire) is embedded in the matrix, a complete analog bio-electromagnetic spectrum generator is formed.

In Fig. 7C-2, the conductive film 3 may be covered on the surface of the substrate 4b ', wherein the substrate 4b contains a chemical element of the radiation layer 4a. The conductive thin film 3 replaces the heating wire 3 and makes the simulated biological electromagnetic spectrum generator more integrated.

Fig. 7D is still another specific embodiment of the simulated biological electromagnetic spectrum generator according to the present invention. In this example, temperature-resistant glass is used as the material of the matrix, and one or more chemical elements and their compounds are mixed in an appropriate ratio 'to embed untreated glass during sintering. A special glass object contains components that generate the simulated biological electromagnetic spectrum, and is formed by sintering. A semiconductor thin film layer is then formed on the surface of the glass to become an energy converter by metal emulsification, thereby forming a colorless and transparent analog biological electromagnetic spectrum generator. In this example, the material of the substrate may also be a mud block containing one or more chemical elements and their compounds, so that the matrix contains selenium (se) that generates the simulated & electromagnetic spectrum. ingredient. A complete solid ceramic simulation of biological electromagnetic spectrum production

571009

On the surface forming the substrate, the substrate is not heated by a radiation layer made of a permanent magnetic material. Figure 7A-1, Figure 7A-2, and Figure 7B-1 are designed to be derived from the human body. The material selected by the object in the wavelength range of the first radiant energy is radiated for use by human materials to discharge, Figure 7B electrical energy or thermal blanket material, the emitted wave is about 7500 light body heat to emit the component. . In this case, the non-guaranteed layer made of a magnetic material is shown in Fig. 7C-2 and Fig. 7D as a radiation layer 4a on a special substrate 4b. Source, can stimulate the above-mentioned composition and a second light shot, which is up to 50 // m, the second radiation 'although this amount of radiation is not as suitable as the radiation principle described in Figure 6' Bunei spectrum. Qiu Yan is covered on a magnetic substrate by a ferromagnetic material disc :: The shape of the object's electromagnetic spectrum is ~ 2, Figure VII c-1, and the magnetic energy stimulus is configured to be the same energy so as to emit a first long range of about 0. 2 // m V m to 1 000 000 "m The volume is as large, but the situation of heating the fabric simulates biological electromagnetic waves

FIG. 8A, FIG. 8B, FIG. 9A, FIG. 9B, FIG. 10a, FIG. 10B, FIG. 11A, FIG. 11B, FIG. 11c, and FIG. The decoration produced by the woven structure, when stimulated by energy, generates the simulated biological electromagnetic spectrum. Equal reference numbers describe equal structures. Any of the described woven structures may be composed of a fibrous structure having a f-quality surface 'and having a shot-generating material thereon. When the radiation-generating material is stimulated by energy ’, it emits a natural spectrum.

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V. Description of the invention (28) There is a first radiation and a second radiation 'wherein the wavelength range of the first radiation is selected by a group' The group system is from about 0.2 / ^ 111 to 50 // 111 and about 0.4 # 1 ^ to 25 // m, the wavelength range of the second radiation is selected by another group, the group system is from about 7500 // m to 100000 // m and about 5400 to, 5 0 0 0 0 0 / / m households. In FIG. 8A, the weaving cloth used for manufacturing a shoe is described. The inner surface of the sole 1 and the upper part 2 of the general size has a spectrum generating lining 3 thereon. The structure of the spectrum generating lining 3 includes: coating the spectrum generating layer 5 on the back of the fibrous tissue 4 with adhesive or stitching, equipping the reflective layer 6 on the surface of the spectral Z layer 5 and connecting the reflective layer 6 to the sole. And the inner surface of the upper part of the sole, as shown in FIG. 8A. Secondly, a chemical element substance that can generate the simulated biological magnetic spectrum is added to the viscose, and the viscose is coated on the sole or the inner surface of the part 2 above the sole. — ’In Figure 9A and Figure 9β, the spectrum-generating lining 3 of the outer jacket and coat for increasing heat preservation requirements is used as the outer jacket 7 and the reflective layer 6 is used as an inner surface. Adding a spectrum generates the lining as the inner lining with. This structure is: the inner lining of the outer surface of the outer cloth attached; in Fig. 10A and Fig. 10B, it is directly used for manufacturing underwear and other similar products. The spectrum-generating lining 3 provided with the reflective layer 6 may be underwear, gloves, blankets, towels, and the like

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In Fig. 11A, the chemical fiber structure 8 on the frequency or chemical fiber structure 8 can be made into shoes and clothes. The raw material of the spectrum generating lining 3 can be manufactured by coating the spectrum generating layer 5 on cotton cloth, and the cotton cloth can be used as the inner lining of shoes and clothes, or it can be directly layered in Fig. The particles of the mixed chemical element material 9 at the fiber frequency% of the two-point molybdenum product should be smaller than the diameter of the fiber structure. , Or direct shoes, clothing and similar products. In f ft-C, in order to increase the radiation efficiency (efficiency), the f 'reflection layer is adhered to the surface of the spectrum generation line, or the -reflection layer is equipped with M-H # λα + surface. It is composed of cloth fiber tissue with chemical elements, as shown in FIG. 11D, the reflective layer has no air holes. The reflective layer can include aluminum, tin, copper: a material that has a good reflective nature. ^ The material of the spectrum generating layer can be based on the organic modulation method of the coating, or the open method, or the use of chemical substances, including 0. Figure 12 shows a shoe with, shoe cushion 26, shoe opening 28, several The infrared paint recommended by the known spectrum generation layer file modulates the radiated and carbonized upper 20, sole 22, and heel handle 24 with a radiation-generating material.

571009 V. Description of the invention (30) Structure 30, air outlet 32, and movable substrate lining 34. When the constituent material of the structure 30 is stimulated by energy, the material emits an electromagnetic radiation, which is similar to the light emitted by the human body, that is, the first light and the second light. The wavelength range is about 0 · 2 // m to 5 0 // m, and the wavelength range of the second radiation is from about 7500 // m to 100,000 / zm. The two radiation wavelengths can also be replaced by the range of about 0 · 4 // m to 2 5 // m and the range of about 5 4 0 0 // m to 500000 // m, respectively. Figure 9B, Figure 10B, Figure 11A, and Figure 12 show the power supply for power transmission with a material on the fabric of the clothing product. When stimulated by the power from the power supply, the Simulated biological electromagnetic spectrum: Figure 11C and Figure 11D show simulated biological g magnetic spectrum produced by magnetic energy supply. The body heat of the wearer with or without electrical energy and magnetic energy supply will generate the proposed biological electromagnetic spectrum. Although the present invention has been followed from the previous example, the method is the same as above. Anyone who is familiar with this skill will not leave: Hair: Bu Wai θ, when various changes and retouching can be done, so this: Wei Dang shall be determined by the scope of the attached patent application. Guarantee

Page 33 571009 Brief description of the diagram Brief description of the diagram Figure 1A shows the intensity-wavelength diagram of electromagnetic radiation emitted by the human body within a limited range. Fig. 1B Intensity-wavelength diagram of electromagnetic radiation emitted by a material stimulated by energy in a limited range.

Figure 2 shows the electromagnetic radiation emitted by the human body as indicated by the dotted line and the electromagnetic radiation emitted by the material used in the present invention as a material stimulated by energy as indicated by the continuous line. Figure 3 shows the intensity-wavelength diagram of electromagnetic radiation emitted by a heat lamp in a limited range. Figure 4 shows the intensity-wavelength diagram of electromagnetic radiation generated by a conventional electromagnetic radiation device and stimulated by energy.

Figure 5 shows the intensity-time diagram of electromagnetic light emission with a wavelength of 8mm. Figure 6 is a block diagram describing the process of using energy to stimulate a material, which will sequentially emit a natural radiation.

Page 34 571009 The drawings briefly explain the embodiments of Fig. 7A-1, Fig. 7A-2, Fig. 7b-1, Fig. 7b-2, Fig. 7C-2, and Fig. 7D to show multiple objects , Choose C 1 energy to stimulate the material inside the object, the material will emit — = radiation is transmitted. FIG. 8A and FIG. 8B illustrate an embodiment of a woven fabric. The woven fabric has a hot material, and when the material is stimulated by energy, i; can guarantee to emit a natural radiation. ^ Material will stimulate Figure 9A and Figure 9B to describe a jacket and the jacket respectively. The woven fabric has a material that can retain body heat, and when the material is clothed, the material will emit an inherent radiation. Figure 10A and Figure 10B depicting the clothing substrate and its right turn, respectively, in quilt b, where the woven fabric has a material capable of preserving body heat, and when the material is stimulated by energy / the material will radiate An inherent radiation. 'Rear'

Figures 11A to 11D are embodiments of a woven fabric having a material capable of retaining body heat, and when the material is stimulated by energy, it emits an inherent radiation. Figure 12 depicts a shoe with a lining. The woven lining has a material capable of retaining body heat, and when the material is stimulated by energy, it emits an inherent radiation.

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571009 Brief description of the drawing No. of the drawing No. of the drawing No. of the drawing No. of the drawing No. 6 Description of the drawing: 1 Energy 2 Weaving 3 Energy converter 4 Material

The figure number description in Figure 7: 3 conductive film layer 4a radiation layer 4b substrate 5 electrode Figure 8 figure number description: 1 sole 2 above sole 3 spectrum generation overview

4 Fibrous structure 5 Spectrum generation layer 6 Reflective layer Figure 9 number description: 3 Spectrum generation overview

Page 36 571009 Brief description of the diagram 6 Reflective layer 7 Outer figure of the figure No. 10 Description: 3 Spectrum generation profile Figure 11 No. of the figure No. description: 5 Spectrum generation layer 8 Chemical fiber tissue 9 Mixed chemical element substance map 10 Description of the drawing number of the second: 20 upper 22 sole sole 24 heel handle 26 shoe cushion 2 8 shoe opening 30 structure 32 air outlet 3 4 activity outline

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Claims (1)

571009 ---- Case No. 90133341 ___One month of the month _Amendment ______ 6. Scope of patent application 5. The woven fabric described in item 1 of the scope of patent application, wherein the radiation amount of the first radiation is when the material 90% to 100% of the electromagnetic radiation emitted by the energy stimulation is greater than 0 but less than 10% of the electromagnetic light emission when the material is stimulated by the energy. 6. A woven fabric comprising: a plurality of fibrous structures; a material having the plurality of fibrous structures, wherein the material is composed of ingredients, and 10% to 20% of the ingredients are selected from chromium (Cr), Mg, Mg, Se, Ge, Zn, Cu, Mn, WSR, Ce, Ji, Ca, Ca ), Titanium (Tl),-carbon oxide (C〇), molybdenum (Mo), Shi Xi (Si), iron (F e), and starvation (V) are composed of the sea + n ^ u π + controlled The elements in the surface group, when stimulated by energy, emit a natural spectrum. Xi m Shihong ^ ^ ^ μ ^, μ The natural spectrum contains the first radiation and the second radiation, where the first 転 ", the first The wavelength of the two radiations is about 0.4, and the range of the skin length is about 0.4, and it is about 540 0 _ to 5 0 0 0 0 0 _. Among them, the material is related to the weaving fabric described in item ^ 丄 ^ ^ ^ ^ ^. Weaving according to the scope of application for patent 571009 ^^ 90133341 Amendment _ 6. The source of the patent application is an electric power supply source 9, such as the patent application scope of 6%, and the radiation amount is the woven fabric of the material silk, where the first radiation radiates 90 % To 100%. 1. The electromagnetic radiation irradiated by the counter-stimulus amount 10, such as the radiation amount of the patent application range No. 6 is the woven fabric of the material 1, where 90% of the light emission amount; the second The electromagnetic radiation radiated by the light stimulus is said to be greater than 0 but less than 10% of the electromagnetic radiation radiated when the material is stimulated by the moon. 11. A shoe comprising: a sole; a soft shoe; a shoe channel; A lining material is located between the sole and the shoe channel, and a material is combined. The material is composed of a component, and 10% to 20% of the component is selected from chromium (Cr) and magnesium (Mg). ), Selenium (Se), germanium (Ge), (Zn), copper (Cu), manganese (Μη), Ming (A1), record (Sr), thorium (Ce), yttrium (Y), calcium (Ca) , Zirconium (Zr), titanium (Ti), carbon monoxide (Co), Page 40 571009 _Case No. 90133341 _Yueyue Yue Guang Ding Liu, scope of patent application / element of one of molybdenum (Mo), silicon (Si), iron (Fe), vanadium (V), where the material should be When the energy is stimulated, an inherent electromagnetic spectrum will be emitted. The electromagnetic spectrum includes: No. 1 Koda Shot, which contains two wavelengths, the first wavelength range is from 0 · 2 / zm to 50 // in, the second The wavelength range is between 0.4 and 2 5 // m; a first light shot, which contains two wavelengths, the first wavelength range is 7500 // in to looooo 'the second wavelength range is 5 4 0 0 // m to 5 0 0 〇〇〇〇 # 〇 12. The shoe according to item u of the patent application scope, wherein the material is connected to an energy supply source. 1 3. The shoe according to item 丨 2 of the patent application scope, wherein the energy supply source is an electric power supply source. 1 4. The shoe according to item 1 丨 in the scope of patent application, wherein the first radiation The amount of radiation is 90% to 100% of the amount of electromagnetic light emitted when the material is stimulated by energy. 15. The shoe according to item 11 of the scope of patent application, wherein the radiation amount of the first radiation is electromagnetic radiation emitted when the material is stimulated by energy Page 41 571009 i No. 90133341 VI. Scope of applying for a patent is dealt with 1 000 / ° 'The first radiation system is greater than 0 but less than 10% of the electromagnetic radiation emitted when the material is stimulated here. 16 :: Please refer to the item in the patent scope " The material is covered on the lining.鞋子 The shoe according to item U of the patent scope, wherein the material f is at least one of the sole and the shoe cushion. 18. ^ Please refer to item u of the patent scope. A layer of reflector heat. 19, "" The composition is described in item 18 of the patent scope. /, T m π 20, a fibrous tissue comprising a matrix surface; stimulus; = two above the [: 刺 范> gt. There are two wavelengths, the first wavelength is m 'and the second wavelength is between 0.4 and 0.2 // Π1 to 50. Page 571 571009 Page 43