How to understand the health effects of building materials

Abstract

Nowadays, an increasing number of people are concerned about the health effects of building materials used in construction. [Solution] This method is not affected by the weather, and does not require the subject to experience entering the construction site or the room after construction has been completed. Instead, test materials coated with building material paint are touched to the palms and finger pads of both hands of a subject, either directly or through a container, at a location such as the client's home, business, or a designated showroom. The health effects of building materials used in construction can be assessed using the human saliva ORP physiological health index, and the method can be used to easily and quickly select whether they are good for the body.

Description

[Technical field]

[0001] The present invention relates to a method for understanding the health effects of building materials. [Background technology]

[0002] As disclosed in Patent Document 1, a building material is disclosed that includes a composite material including a metal porous body having a three-dimensional mesh-like structure skeleton and a first inorganic material integrated with the metal porous body, which is intended to provide a building material with electric field shielding performance. Patent Document 2 provides the use of a composite material in a building material or decorative body, comprising at least one polymer (P) and at least one compound (C) selected from the group consisting of inorganic oxides, aluminosilicates and activated carbon. It is disclosed that the use of the composite material in this manner can improve the air quality indoors and in confined spaces, and reduce or eliminate harmful effects on humans and animals. [Prior art documents] [Patent documents]

[0003] [Patent Document 1] Patent Publication No. 2024-164486 [Patent Document 2] Special table 2018-531090 Summary of the Invention [Problem to be solved by the invention]

[0004] In light of the current situation where an increasing number of people are concerned about the health effects of building materials used in building construction, the effects of paints and wall materials used in building construction and a wide variety of other building materials are confirmed by entering the target room after construction and experiencing it physically or by approaching the exterior wall and experiencing it physically. The present invention is to make it possible to confirm the health effects using some of the same building materials used in building construction, without having to go to the construction site or enter the room after construction is completed.

[0005] In the construction of a house, not only do we pay attention to materials that reduce the health impact of building materials, but also to the fact that the indoor wiring running inside the floors and walls generates electromagnetic waves similar to those of home appliances. It is well known that in a house, electric currents are generated inside the human body due to electromagnetic induction, which can stimulate the nerves and muscles, and that there are concerns about health effects due to individual differences. Furthermore, there is concern that the electromagnetic wave effects will increase due to the installation of electrical appliances inside the house after construction. The purpose of this project is to make it possible to easily check the health effects of these living spaces so that people can live healthily in the constructed house by using a building material paint blended with extracts of persimmon leaves, mugwort, and Japanese knotweed, which are derived from plants, and spraying the building material paint on the surface of the construction material or applying it flat with a roller. [Means for solving the problem]

[0006] The present invention focuses on a method for understanding the health effects of architectural paints on the human body using a human saliva ORP measuring device, in order to easily confirm the health effects so that people can live healthily in homes that have been painted with architectural paints made from a blend of plant-derived extracts of persimmon leaves, mugwort, and Japanese knotweed, which are sprayed or applied flat with a roller onto the surfaces of the building materials to be painted.

[0007] In order to grasp whether the use of building paints brings about a positive effect on health, the subject, who is the construction worker who uses the building paints and the construction client, touches a part of the building material, whether it is made of natural materials or artificially made, by wrapping it with the palms and finger pads of both hands, or touching it with the palms and finger pads of both hands. However, in the case of solutions such as paints, it is preferable to use glass bottles or polyethylene (PE) that can be placed on or wrapped around the palms and finger pads of both hands. This is because, in the case of solutions such as paints, the material of the container that stores the paint does not reduce the utility of the paint itself. It was considered that the health effects of using the building paints are instantly transmitted to the brain through transcutaneous breathing of the palms and finger pads of both hands, and the stimulation from the brain instantly resonates with the entire body.

[0008] The present invention considers that it is well known that humans rely on vision for 90% of the information from the outside world. Like humans, animals also use the five senses of vision, hearing, touch, taste, and smell. Here, we will discuss the behavior of dogs, which are animals. Before visually confirming that their caring owner has returned home, dogs use their hearing to detect the footsteps and voice frequencies of the owner approaching several kilometers away, and their olfactory sense to detect the owner's return by receiving electromagnetic waves transmitted through the air, and wait for the owner at the front door.

[0009] As a method for understanding the health effects of the building material paint on the human body, a human saliva ORP measuring device was used to instantly take in information into the body through transcutaneous respiration of the palms and finger pads of both hands, which are human body parts, directly or through a container, to confirm the biological reaction in the body. When the building material is touched to the palms and finger pads of both hands, it is desirable to carry out the verification using a sample of the same building material as the building material used in the construction at room temperature of 18°C ​​to 35°C. This is because, if the building material object touched to the palms and finger pads of both hands differs from the normal body temperature of a human being by 20°C or more from the room temperature of 36.5°C, the reduction effect of the building material object must not be reduced in the method for confirming the effects on human health by applying stress load to the body with the feeling of cold to the touch of the palms. In addition, this is to prevent stress load to the body with the feeling of hotness when the room temperature exceeds the normal body temperature of a human being. In Table 2 of the practical verification described below, two types of containers for storing paint, a glass bottle and a polyethylene (PE) container, were used and compared by touching them to the palm of the hand and the pads of the fingers. Effect of the Invention

[0010] Of the five senses for humans, touch is the sensation that arises when we "touch" something. We experience the coldness of water, the pain of being pricked by a needle, and the roundness of a ball in our daily lives. Touch is the most primitive of the five senses (sight, hearing, smell, taste, and touch) and is said to be essential for the survival of living things. By utilizing this tactile function, regardless of whether the building material paint is made of natural materials or artificially made, the reason we focused on the method of understanding the health effects of the building material by touching the building material to the palms and finger pads of both hands, which are parts of the human body, is that the palms and finger pads of both hands have a transcutaneous respiratory function that transmits the information to the brain via the skin and mucous membranes, and the stimuli from the brain are instantly absorbed by the blood system and lymphatic system and transmitted to the entire body, and the health effects of the building material can be objectively selected by quantifying whether it is a frequency, vibration, or electromagnetic wave that is comfortable for the body using powerful data sensing called the human saliva ORP physiological health index, and we thought that by easily checking the health effects of the building material on the clients who make the construction, the people who live there, and the construction workers who handle the building materials at the construction site, we could create homes where people can live healthily. [Brief description of the drawings]

[0011] [Figure 1] A diagram of touching the paint of building materials by wrapping it around the palms and pads of the fingers of both hands. [Diagram 2] A diagram showing how to touch building materials to the palms and pads of the fingers of both hands. [Diagram 3] Plan view from directly above. Place your palm on the wallpaper. [Figure 4] A diagram of a subject collecting saliva by holding a special cotton swab in their mouth. [Diagram 5] Diagram of the human saliva ORP measurement device. [Figure 6] Human saliva ORP health status diagram. [Figure 7] Correlation between human saliva ORP and autonomic nerve activity. [Figure 8] A flow chart of how to identify and understand health effects. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0012] Fig. 1 explains a method to confirm the health effects of using the same building material paint as used in the building construction without experiencing the building construction site or entering the room after the construction is completed. First, a small amount of paint 2, which is a sample of the same building material paint as used in the building construction, is placed in a glass bottle 1 and touched by the right hand 4 and left hand 3, which are parts of the human body, using the palm 5 of the right hand and the palm 6 of the left hand, and the pads of the fingers 7 of both hands, in a wrapping manner. The ORP value of human saliva is measured before a small amount of paint 2 is placed in the glass bottle and the palms and pads of the fingers of both hands are touched. Then, the ORP value, which is the oxidation-reduction potential, of the saliva of the subject is collected after the paint 2 placed in the glass bottle is touched to the palms and pads of the fingers of both hands, and the change is measured. The ORP value after the subject's body part touches the paint 2 is compared with the ORP value before touch to confirm whether the ORP value is lower in the negative direction than the ORP value before touch. This is based on the idea that the health effects of the building material when touching a part of the building material being the target can be understood by measuring it with a human saliva ORP measuring device, and a method is provided in which the health effects of building materials used in construction are understood to be good for the body by touching the palms and pads of the fingers of both hands.

[0013] FIG. 2 explains a method for confirming the health effects of using the same building material paint as used in the construction work without experiencing the construction site or entering the room after the construction is completed. First, a board 8 is a sample of the same building material as used in the construction work, which is coated with the paint 2 described in FIG. 1. The board 8 is touched by the right hand 4 and the left hand 3, which are parts of the human body, using the palm 5 of the right hand and the palm 6 of the left hand, and further using the pads 7 of the fingers of both hands. FIG. 2 shows a state in which the palms of both hands are to touch the board 8, and further, the fingertips 7 of both hands are extended so that the entire palms and pads of the fingers of both hands touch the board 8. The board 8 is wrapped in the palms of both hands and touched (not shown). The ORP value of human saliva before touching the building material board 8 is measured in advance, and the ORP value, which is the oxidation-reduction potential, of the saliva of the subject is measured after touching the palms and finger pads of both hands to determine the change, and the ORP value after the subject's body part touches is compared with the ORP value before touching to confirm whether the ORP value is lower in the negative direction than the ORP value before touching. This method focuses on the fact that the health effects of the building material when touching a part of the building material as the target can be grasped by measuring it with a human saliva ORP measuring device, and grasps whether the health effects of the building material used in the building construction are good for the body by touching the palms and finger pads of both hands. Note that the method of touching the building material as the target with the palms and finger pads of both hands shown in Figure 2 is not limited to wood, and a part of the same building material used in the building construction coated with the building material paint is touched.

[0014] FIG. 3 explains a method for confirming the health effects of using the same building materials as those used in the construction work without experiencing the construction site or entering the room after the construction is completed. First, the same building materials as those used in the construction work are coated with the paint 2 described in FIG. 1, and the plan view of the coated board is shown. In this way, the wallpaper 8-a is touched by the left hand 3 and the right hand 4, which are human body parts, using the palm 5 of the right hand and the palm 6 of the left hand, and further using the finger pads 7 of both hands. The wallpaper 8-a is wrapped in the palms of both hands and touched (not shown). FIG. 3 shows the state in which the palms of both hands are touched to the wallpaper 8-a, and further, the fingertips 7 of both hands are extended so that the entire palms and finger pads of both hands touch the wallpaper 8-a of the sample coated with the paint 2.

[0015] FIG. 4 describes a method for collecting saliva from a subject. To collect saliva from a subject 9 to confirm the health effects of building materials used in construction, a cotton swab 10-a for collecting saliva is used to place the cotton part 10-b of the swab on the center of the tongue in the oral cavity before and after touching the building material. The time required for touching the palms and finger pads of both hands to the paint 2 and board material 8 used for the building material described in FIG. 1 and FIG. 2 is 2 to 3 minutes. After the 2 to 3 minutes, the palms and finger pads of both hands are removed from the paint 2 and board material 8 of the building material and the touch is stopped. Then, the subject is made to hold the cotton swab 10-a for impregnating human saliva in his mouth. In this case, the cotton part 10-b of the cotton swab is placed on the center of the tongue, the mouth is closed, and saliva is collected. The saliva of the subject can be used to measure the health effects of the building materials using a human saliva ORP measuring device. This is the method used to determine whether the health effects of building materials used in construction are good for the body by having the subjects touch the palms and finger pads of both hands.

[0016] FIG. 5 is a diagram of a human saliva ORP measuring device that visualizes the health effects of the building materials of the present invention. A coating was formed on the surface of the indicator electrode (platinum electrode) by a graphene oxide solution that has magnetic properties and was not mixed into human saliva solutions in the past, and the coating could not be removed by washing and wiping with purified water. After repeated investigations into this difficult problem, we focused on the flexible metallic properties of pure gold and discovered that the surface could be delicately peeled off by washing and wiping, and made the indicator electrode a pure gold electrode. This made it possible to accurately capture information about the saliva, which is the test liquid of the subject. By improving and evolving the indicator electrode (pure gold electrode), we were able to realize a method for determining the health effects of the building materials used in the construction of the present invention and understanding whether they are good for the body. The human saliva ORP measuring device 36 is equipped with three measurement boxes 42 each having the same configuration between the two electrodes, the reference electrode 32 and the indicator electrode 26. The enlarged view of the bubble shows the configuration between the reference electrode (silver-silver chloride) 32 and the indicator electrode (pure gold electrode) 26. The two opposing reference electrodes 32 and indicator electrodes 26 calculate the electrolyte concentrations of all saliva components and the activity ratios of oxidized and reduced substances, and measure the potential difference between oxidation and reduction. A minute amount of KCl solution 34 is drawn into the liquid junction 30 by capillary action between the KCl solution 34 and the saliva-impregnated cotton part 23 through the liquid junction 30, which serves as the contact point between the saliva 23 impregnated in the cotton swab and the reference electrode serving as the opposing electrode, and positive and negative electrons of the saliva ORP are exchanged between the saliva 23 impregnated in the cotton swab and the reference electrode serving as the opposing electrode. Positive and negative electrons are exchanged via the KCl solution 34 between the two electrodes, the reference electrode 32 and the indicator electrode 26, and the oxidation-reduction potential (mV) potential difference is calculated and the measurement result is displayed on the LCD at 39. It consists of a tank lid 33 for storing the KCl solution, the shaft 22 of the saliva-impregnated cotton swab, the cotton part 23 of the saliva-impregnated cotton swab, the sample tank base 24 into which the saliva-impregnated cotton swab is inserted, and 25 where the saliva-impregnated cotton swab 23 and the head part of the indicator electrode 26 come into contact, and the indicator electrode 26 is fixed and adhered to the bottom 29 of the sample tank.These include a point 27 where the indicator electrode 26 and lead wire 28 are glued and connected, a point 31 where the reference electrode 32 and lead wire 28 are glued and connected, an oxidation-reduction potential mV measuring unit 35 that calculates the potential difference by the exchange of positive and negative electrons between the reference electrode 32 and indicator electrode 26 via a KCl solution, a start button 38 to start measurement, a measurement result print button 37, an LCD unit 39 that displays the measurement results by the oxidation-reduction potential mV measuring unit 35 that calculates the potential difference, an LCD unit 40 that displays the year and time, a thermal print 41 of the measurement results, and the configuration between the reference electrode and indicator electrode is provided in three measurement boxes 42.

[0017] Let us now explain Figure 6. This is a chart that quantifies the physical condition of human saliva based on the ORP index, as described in the explanation of Figure 5. A film was formed on the surface of the indicator electrode by a graphene oxide solution that has magnetic properties and has not been mixed into human saliva solutions in the past, and the film could not be removed by cleaning and wiping with purified water. After a long search for this difficult problem, we focused on the flexible metallic properties of pure gold and discovered that the surface can be delicately peeled off by cleaning and wiping, and made the indicator electrode a pure gold electrode. Furthermore, since the purified water used for cleaning and wiping is passed through an ion exchange resin filter, it was found that a film was formed on the indicator electrode, preventing positive and negative electronic information. In addition, it was found that the tissue paper used for wiping contains bleach and fluorescent dyes, which creates a film on the indicator electrode, preventing positive and negative electronic information. By using distilled water and tissue paper that do not go through these manufacturing processes, it became possible to measure the mental stress level and grasp the health effects of the building material of the present invention. The redox boundary range of human saliva is shown to be 40 to 50 mV. Thus, in the present invention, if the ORP value of the human saliva before and after contact with the building material is 40 mV or less in the redox boundary range of the human saliva, the body of the human subject is reduced and in good health. If it is 50 mV or more, it can be determined that the body of the human subject is oxidized and in poor health. If the ORP value of the saliva indicates a value within the redox boundary range, it can be determined that the body of the human subject is oxidized and in poor health. If the ORP value of the saliva indicates a value within the redox boundary range, the ORP value of the human saliva obtained by the initial measurement and the ORP value of the human saliva after a predetermined time have passed can be compared as a follow-up observation, and if the ORP value of the saliva after the predetermined time has passed is lower, it can be determined that the body is in good health, and if it is higher, it can be determined that the body is in poor health.

[0018] Figure 7 is a correlation diagram between the oxidation-reduction potential (ORP) of human saliva and the autonomic nervous system. Figure 6 is published in the book "Heaven's Consideration" by a doctor who has clinically studied human saliva ORP, and it is well known that saliva is produced through blood. In selecting building materials to determine their health effects, we have focused on using a human saliva oxidation-reduction potential (ORP) measuring device, and by quantifying it with powerful data sensing called the human saliva ORP physiological health index, we have been able to objectively grasp the health effects of building materials. When the parasympathetic nervous system becomes dominant, the human saliva ORP value becomes an index that quantitatively indicates a state of relaxation and concentration, and although there are individual differences, it can be understood as an impact on health over time.

[0019] FIG. 8 is a flow chart of a method for determining and selecting building materials for their health effects. In this method, saliva is collected 11 before the subject touches the building material to be tested, and the saliva is measured in advance using a human saliva ORP measuring device 16. In this method, the subject touches the building material with the palms and finger pads of both hands, as shown in FIG. 12, and with the palms and finger pads of both hands. In this method, the subject touches the building material with the palms and finger pads of both hands, as shown in FIG. 13. In this method, saliva is collected after the building material is wrapped around the palms and finger pads of both hands of the human body and touched for 2 to 3 minutes, as shown in FIG. 14, and after the building material is touched for 2 to 3 minutes with the palms and finger pads of both hands of the human body. In this method, saliva is collected 14 and 15, and the saliva is measured with a human saliva ORP measuring device 16, and the health effects are visualized and confirmed 17. Therefore, the inherent frequency emitted from the building materials is instantly transmitted to the brain through the skin and mucous membranes by the transcutaneous breathing function of the palms of both hands, and the stimulation from the brain is instantly absorbed by the blood and lymphatic systems, allowing the body to choose whether or not it is a comfortable frequency, vibration, or electromagnetic wave. This will lead to the creation of healthy homes18 by easily checking the health effects on the construction workforce, as well as on the people who live in the rooms after construction is complete. EXAMPLES

[0020] Table 1 shows the actual verification of human saliva ORP values ​​before and after entering a room where paint made from a solution extracted from plants was applied to the interior walls and ceilings during building construction. A human saliva ORP value measuring device was used to verify the changes over time caused by taking in air (oxygen) before and after entering the room and experiencing transcutaneous breathing from the hands, feet, face, neck, etc. The changes over time were tracked for 90 minutes before and after entering a room where building material paint had been sprayed or applied with a roller. The actual verification method was performed immediately after entering the room, and 30 minutes, 40 minutes, 50 minutes, 60 minutes, and 90 minutes later, and the results of the actual verification of human saliva ORP values ​​by 10 monitors are shown in Table 1. (A) shows the results of saliva ORP measurements before and after entering a completed room using a building paint blended with extracts of persimmon leaves, mugwort, and Japanese knotweed derived from the plants used in this invention. The ORP value after entering the room for all monitors was much lower than the redox boundary value of physical condition determined by human saliva compared to before entering the room. On the other hand, (B) shows the results of saliva ORP measurements before and after entering a completed room using a building paint approved for use in exterior and interior finishes under the Building Standards Act of Japan. For two out of nine monitors, the difference in ORP value before and after the experience was almost unchanged, but for six, the ORP value after the experience was oxidized in the positive direction. In the case of monitor N, the ORP value immediately showed a strong oxidation value one minute after entering the room, and 60 minutes later, the whites of the eyes became bloodshot red and she left the room complaining of pain. These results clearly indicated that even building paints approved for exterior and interior use under the Building Standards Act may have a negative effect on health due to individual differences. Incidentally, in the actual verification, to avoid the effects of biological reactions from eating, drinking, mobile phones, etc., food, drink, mobile power sources, and electrical devices were completely turned off one hour before the reduction judgment began, and changes over time were tracked for 90 minutes. In the experience of entering the room after construction shown in Table 1 (A), all of the monitors' bodies instantly showed a strongly negative ORP value one minute after entering the room compared to before entering the room. Then, in the time-lapse measurement from one minute after entering the room to 90 minutes after entering the room, the ORP value did not return to the ORP value before entering the room, but showed a strongly negative ORP value.From this case, it was considered that the health effects of the use of building material paints used in construction work could be understood by measuring the changes over time before and after touching the palms and finger pads of both hands. In addition, an implementation verification was also carried out to see if it was possible to check the people who were allowed to touch in a shorter time, as shown in Tables 2 to 7 below. In order to allow people with disabilities who have difficulty going to a construction site or a construction model room to experience entering, or people who live far away and have difficulty going to an experience to enter, to experience the physical return without entering the construction site, the implementation verification shown in Tables 1 to 7 below focused on the method of touching the palms and finger pads of both hands with parts of the same building material used at the construction site, and brought a human saliva ORP value measuring device and the building material so that the construction client could experience it at their home or a nearby showroom, and the physical return could be experienced.

[0021] [Table 1]

[0022] In Table 2, as shown in FIG. 1, without entering the room after the construction is completed, a sample paint of the same building material used in the construction was stored in a glass bottle container, and a paint stored in polyethylene (PE) was wrapped around the palms and finger pads of both hands for 2 minutes or 3 minutes. In both cases, no significant difference was observed in the saliva ORP value comparison. In both cases, the saliva ORP value after touching the building material compared to before touching it did not return to the ORP value before touching it, but showed an ORP value that decreased in the negative direction, indicating a strong reduction value of the paint. In addition, the room temperature of 18°C ​​to 35°C is desirable in the environment in which the subject, who is the monitor of the present invention, touches the building material. The temperature difference from the normal human body temperature of 36.5°C was kept within 20°C, so that the touch of the palms of both hands would not be a strong stimulating internal load. Furthermore, the polyethylene (PE) material used to store the sample paint was a high-density processed container, and a comparative test with a glass bottle showed that there was no significant difference in the reduction value.

[0023] [Table 2]

[0024] In Table 3, without entering the room after construction was completed, a small amount of sample paint for the same building materials used in construction was placed in a glass bottle and touched for 5 minutes with the palms and finger pads of both hands, as shown in Figure 1 above. This is considered to be due to the effect of the internal load caused by the long contact time of 5 minutes while fixed to the paint sample of the building material. As it was shown that the ORP value of the saliva exceeded the value before contact over time, it was found that the effective contact time for the target building material is within 3 minutes, as shown in Table 2 above.

[0025] [Table 3]

[0026] In Table 4, without entering the room after construction was completed, some of the same sample building materials with the paint used in construction on the surface were touched with the palms and finger pads of both hands for 2 or 3 minutes to verify the changes over time, as shown in Figure 2 above. In either case, the saliva ORP value after touching the building materials compared to before touching them did not return to the ORP value before touching them, but instead showed an ORP value that dropped in the negative direction, indicating a strong reduction value for the boards with the paint on the surface.

[0027] [Table 4]

[0028] In Table 5, a test was carried out to examine the changes over time by touching the palms and fingertips of both hands to the same wallpaper sample coated with the building material paint used in the construction for 2 or 3 minutes without entering the room after the construction was completed. In Table 5, no significant difference was observed in the saliva ORP value. In either case, the saliva ORP value after touching the wallpaper did not return to the ORP value before touching it, but instead showed a negative ORP value, indicating a strong reduction value for the wallpaper coated with the paint. As shown in Tables 2 and 4 above, it was found that the effective time for touching the building material to be tested was within 3 minutes.

[0029] [Table 5]

[0030] In a method in which the subjects were made to touch the palms and finger pads of both hands for five minutes to a sample of wallpaper that had been coated with the building material paint used in the construction, without having experienced entering the room after construction had been completed (Table 6), as shown in Table 6, the saliva ORP value, which can be considered to be the effect of the internal load caused by the long contact time of five minutes with the building material sample, exceeded the value before contact over time and progressed in the direction of oxidation, and as shown in Tables 2 and 4 above, it was found that a contact time of three minutes or less was effective.

[0031] [Table 6]

[0032] In the method shown in Table 7, without entering the room after the construction of the building was completed, the same sample board material with the surface coated with the building material paint used in the construction was touched with the palms and finger pads of both hands for 5 minutes. As shown in Table 7, the effect of the internal load due to the long time of touching the sample of the building material for 5 minutes can be considered to be due to the effect, and the ORP value of the saliva exceeded the value before touching with time, and it was shown to proceed in the direction of oxidation. As shown in Tables 2 and 4 above, it was found that the effective time for touching the building material that is the object to be touched by the human body part is within 3 minutes. Therefore, the method of the present invention for grasping the health effects of the building material can be completed in a short time.

[0033] [Table 7]

[0034] The term "building materials" as used in this invention refers to any material used to build a building, and there are a wide variety of building materials, such as wood, concrete, metal, and stone. The building materials to be coated with building material paint, which is touched to the palms and finger pads of both hands as human body parts in order to understand the health effects of building materials, are wood, concrete, metal, stone, siding, mortar, tile, wooden boards, painted walls, ALC, and garden walls as exterior materials; wood, concrete, metal, stone, siding, mortar, tile, wallpaper, wooden boards, painted walls, FRP decorations, and glass decorations as interior materials; flooring, cushion flooring, floor tiles, carpet, tatami, and mosaic tile materials as flooring materials; fiber-based (glass and wood fiber), expanded plastics (extruded polystyrene and bead method expanded polystyrene), and natural materials (recycled wool and carbonized cork) as insulation and heat shielding materials; waterproof sheets (rubber and polyvinyl chloride), asphalt waterproofing, modified asphalt waterproofing, and waterproof paints as waterproofing materials; and sashes, shutters, front doors, interior doors, windows, and screen doors as opening materials. During construction, indoor wiring running through the floors and walls generates electromagnetic waves similar to those generated by home appliances. As mentioned above, electric currents are generated in the human body due to electromagnetic induction in the home, which can stimulate nerves and muscles, and there are concerns about health effects due to individual differences. Furthermore, there is concern that the electromagnetic wave effects will increase due to the installation of electrical appliances inside the home after construction. By mixing paint made of plant-derived extracts into the interior and exterior materials of the home, or spraying plant-derived extracts on the surfaces of the building materials or applying them flat with a roller, the health effects of electromagnetic induction on the human body can be reduced, and by making it possible to easily check the health effects using some of the building materials used in construction, it can also be used to check and manage the health of the construction side, the client, and the construction workers who handle the building materials.

[0035] In the method for understanding the health effects of building material paints on the human body using the human saliva ORP measuring device, the object that will indirectly come into contact with the building material paint sample to which the building material paint is applied is a glass bottle or polyethylene container containing a small amount of the paint to which the building material paint is applied, and is brought into contact with the palms and pads of the fingers of both hands, and further, the object that will come into contact with the building material sample to which the building material paint is applied is either wrapped in the palms of both hands and touches the surface of the building material to which the building material paint is applied, or touches the palms and pads of the fingers of both hands, focusing on this, a method for understanding the health effects of building materials.

[0036] Here, the principle and effect of the saliva ORP measuring device used to verify the effect of the present invention will be described. The principle of oxidation-reduction potential is a value that expresses the difference between the oxidizing power and reducing power of ORP (Oxidation Reduction Potential) as a potential difference. Oxidation is a chemical reaction that loses electrons, specifically a reaction in which oxygen is combined with a substance, or a reaction in which hydrogen is taken from a substance. Reduction is a chemical reaction that receives electrons, specifically a reaction in which oxygen is taken from a substance, or a reaction in which a substance is combined with hydrogen. The activity ratio of oxidized and reduced forms in saliva, which is a substance in the human body, is measured, and at least a reference electrode and a working electrode are provided, and the redox reaction is measured using saliva, which is a sample solution that is in contact with the working electrode, to express the potential difference of the level of oxidizing power and reducing power, which indicates whether the oxidizing power is strong or the reducing power is strong.

[0037] The reason why the building material is wrapped with the palms and finger pads of both hands or touched with the palms and finger pads of both hands as a method of selecting the health effects is described below. Conventionally, when people who are sensitive to allergies go to experience a new model room, they are increasingly experiencing sick house symptoms such as bloodshot eyes, headaches, dizziness, and nausea, which did not occur before entering the room. One of the reasons is that the chemicals widely used in building paints, interior decorations, furniture, flooring, and other adhesives and building materials create an environment in which harmful substances are released into the room, and there is a growing number of people who complain of the above-mentioned poor health after entering the room and are unable to live there. We would like to eliminate the situation where people spend a lot of money on a new building or renovation, but then develop sick house symptoms after moving in and are unable to easily replace or move to another place. Therefore, by touching building materials to the palms and finger pads of both hands, which are parts of the human body, the specific frequency emitted from the building materials will be instantly transmitted to the brain via the skin and mucous membranes by the transcutaneous breathing function of the palms and finger pads of both hands, and the stimulation from the brain will be instantly absorbed by the blood system and lymphatic system, allowing the body to select a frequency, vibration, or electromagnetic wave that is comfortable or not.We thought that by doing so, it would be possible to easily confirm the health and mental effects of the building materials on the client of the construction work, as well as the construction workers who handle the building materials at the construction site, without having to go and experience the room after the construction is completed.

[0038] Furthermore, the idea of ​​touching the building materials to the palms and finger pads of both hands was based on the idea that the palms and finger pads of the human body are composed of the median nerves of both wrists, and that the palms and finger pads control the sensations of the palm side from the thumb to the ring finger, and in the forearm they control the pronation of the forearm, the flexion of the wrist, the flexion of the fingers, and in the hand they control the muscles at the base of the thumb (thenar muscle). As a static two-point discrimination method, there is a method of recognizing and confirming whether or not a stainless steel rod that has come into contact with the surface of the palm and finger pads is two points, and it is known that this method is also used in dementia tests. The idea was that by utilizing the functions of the palms and finger pads of both hands, the health effects of the building materials can be easily confirmed.

[0039] In conventional water quality ORP measuring devices and human saliva ORP measuring devices, the indicator electrode that receives the information of the solution is a platinum electrode, and since saliva is a highly adhesive solution, there is currently a lot of saliva containing graphene oxide mixed in the saliva components of vaccine recipients. This graphene oxide causes the saliva containing the graphene oxide, which is the sample liquid, to adhere to the platinum electrode surface of the indicator electrode, and when the indicator electrode surface dries, the oxide film cannot be completely removed by washing or wiping with conventional purified water that does not contain impurities, which causes a problem of a large difference in the reproducibility of the saliva ORP value of the same solution. Saliva containing the graphene oxide mixed in the components of human saliva was not anticipated. Therefore, by evolving the indicator electrode into a pure gold electrode in a human saliva ORP measuring device, it was thought that it would be possible to measure by the exchange of minute positive and negative electrons emitted from the building materials by touching some of the building materials used in construction to the palms of both hands, which are parts of the human body, and the electrode used in the human saliva ORP measuring device, which evolved from an indicator electrode (platinum electrode) to a pure gold electrode (99.9% purity), can be seen in Patent No. 7336166. This made it possible to check the physical condition of a person by receiving the minute positive and negative electrons of the electromagnetic wave influence by the palms and finger pads of both hands, which are parts of the human body, through the transcutaneous respiratory function.

[0040] The applicant of the present invention has already applied for the following patents (e.g., Patent No. 6142122, Patent No. 6251878, Patent No. 6253171, Patent No. 6454836, Patent No. 7065236, Patent No. 7065247, Patent No. 7282990, Patent No. 7336166) which confirm the effects on human health. [Industrial Applicability]

[0041] The health effects of architectural paints used in building construction can be confirmed regardless of the weather, and without having to experience the construction site or entering the room after completion. It can be done at the client's home, business, or a designated showroom, by placing samples of the same building materials used in the construction on a wall or table and having the subject touch the palms and finger pads of both hands, which are parts of the human body, to determine the health effects of the building materials used in the construction and to easily and quickly grasp whether they are good or bad for the body. This safe, non-invasive method of assessment can be performed on everyone from infants to the elderly without putting any strain on them, and is thought to be a great contribution to healthy life expectancy. [Explanation of symbols]

[0042] 1. Glass bottle container or polyethylene (PE) container. 2 Paint in containers. 3 The left hand, a part of the human body. 4. The right hand, a part of the human body. 5 Palm of the right hand. 6 Palm of the left hand. 7. The pads of the fingers. 8. A sample board of painted building materials. 8-a Plan view from directly above of a wallpapered board painted with a sample of wallpaper. 9. Collecting saliva from subjects to check the health effects of building materials. 10-a A cotton swab specially designed for collecting saliva is held in the mouth. 10-b Saliva-soaked cotton part exclusively for collecting saliva. 11 Saliva was collected before the subjects touched the target building materials. 12 When touching by wrapping it in the palms and pads of the fingers of both hands. 13 Touching the palms and finger pads of both hands. 14 A method of collecting saliva after wrapping the palms and pads of both hands around the building materials and touching them for 2 to 3 minutes. 15 A method of collecting saliva after touching the palms and finger pads of both hands with building materials for 2 to 3 minutes. 16 The collected saliva was measured using a human saliva ORP measuring device. 17 Visualize and confirm the impact on health. 18 By easily checking the health effects on construction workers who handle building materials at construction sites, we will create homes where people can live healthy lives. 22 Saliva-impregnated cotton swab shaft. 23 The cotton part of a saliva-impregnated cotton swab. 24 The base of the sample tank where the cotton swab is inserted. 25 The head of the indicator electrode (pure gold electrode) that comes into contact with the saliva-impregnated cotton swab. 26 Indicator electrode (pure gold electrode). 27 The point where the indicator electrode and lead wire are connected. 28 Lead Wires. 29 Bottom of sample tank. 30 Liquid junction. 31 The part that is glued and connected. 32 Reference electrode (silver-silver chloride). 33 Tank lid for storing KCl solution. 34 KCl solution. 35 Oxidation-reduction potential mV calculation measurement section. 36 Human saliva ORP measuring device. 37 Measurement result print button. 38 Start button to begin measurement. 39 LCD display that displays the measurement results. 40 LCD displaying the year and time. 41 Thermal printout of measurement results. 42 Measurement box.

Claims

1. In a method for grasping the health effects of a building material paint on the human body using a human saliva ORP measuring device, the method includes the steps of: The test material coated with the building material paint is touched directly or through a container to the palms and finger pads of both hands, which are parts of the human body, and the subject's saliva is collected before and after the touching, and the ORP value, which is the oxidation-reduction potential, is measured; Determine the change in the measurement value, If the ORP value after the subject's body part is touched is compared with the ORP value before the subject is touched and the ORP value is lower in the negative direction than the ORP value before the subject is touched, the body is brought into a reducing direction by the building material paint and the subject is in good health; Or, if the ORP value has increased in a positive direction compared to the ORP value before touching, the building material paint leads to oxidation inside the body, resulting in poor physical condition, and the method for determining the health effects of building materials is characterized by the above.

2. 2. The method for determining the health effects of a building material as described in claim 1, characterized in that the building material objects to which the building material paint that will come into contact with human body parts is applied are wood, concrete, metal, stone, siding, mortar, tile, wooden boards, painted walls, ALC, tile, and garden walls as exterior materials, wood, concrete, metal, stone, siding, mortar, tile, wallpaper, wooden boards, painted walls, FRP decorations, and glass decorative materials as interior materials, flooring, cushion flooring, floor tiles, carpet, tatami, and mosaic tile materials as flooring materials, fiber-based (glass and wood fiber), expanded plastics (extruded polystyrene and bead method expanded polystyrene), and natural materials (recycled wool and carbonized cork) as insulation and heat-shielding materials, waterproof sheets (rubber and polyvinyl chloride), asphalt waterproofing, modified asphalt waterproofing, and waterproof paints as waterproofing materials, and sashes and shutters, front doors and interior doors, windows, and screen doors as opening materials.

3. The method for understanding the health effects of building materials as described in claim 2, characterized in that the container in which the building material paint is applied and indirectly touched is a glass bottle container or a polyethylene container containing a small amount of the building material paint, and this container is either held in the palms of both hands and touched, or touched with the palms and finger pads of both hands.

4. The method for understanding the health effects of building materials described in claim 2, characterized in that the method of touching the building material coated with the building material paint is either by wrapping the surface of the building material coated with the building material paint in the palms of both hands and touching it, or by touching it with the palms and finger pads of both hands.

5. 3. The method for determining the health effects of a building material according to claim 2, wherein the time for touching the building material to which the building material paint is applied is within 3 minutes.

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