JP2012255029A - Curable termite-controlling composition and kneaded product using the same - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a curable termite-controlling composition which has an excellent termite-controlling effect, can form a homogeneous layer having a small thickness when cured and has good coatability; and a kneaded product using the composition.SOLUTION: The curable termite-controlling composition contains a hydraulic component, a soil component and resin, wherein the weight ratio of a soil component having a particle diameter of 1.5 mm or smaller is 95 wt.% or more based on the total amount of the soil component. The kneaded product is obtained by kneading the curable termite-controlling composition containing the hydraulic component and the soil component wherein the weight ratio of the soil component having the particle diameter of 1.5 mm or smaller is 95 wt.% or more based on the total amount of the soil component and a liquid containing a polymer together.

Description

  The present invention relates to a curable termite control composition and a kneaded product using the same.

  Conventionally, various measures have been studied in order to protect buildings from damage caused by termites.

  As an example of the above measures, Patent Document 1 describes a curable termite control composition in which a hydraulic component, an earth and sand component, and a termite control component are blended and kneaded, and this curable termite control composition is described as follows. For example, it is described that a termite intrusion is prevented by laying on a foundation portion of a building to form a dense termite control layer.

  Patent Document 2 describes a termite control method using a granular carrier containing a non-repellent insecticide.

International Publication No. 2005/032253 Pamphlet JP 2005-154364 A

  In the curable termite control composition described in Patent Document 1, as earth and sand components, a gravel component having a particle size of 2 mm or more, a fine particle component (crude sand having a particle size of about 0.2 to 2 mm, and a particle size of 0.02 to 2 mm). And a mixture of at least one selected from fine sand of about 0.2 mm).

  On the other hand, in the termite control method described in Patent Document 2, as the granular carrier, a granular carrier having a large particle diameter of 3 mm or more and 8 mm or less, or a granular carrier having the above large particle diameter, and a maximum particle diameter of 1 mm or more and less than 3 mm A mixture with a granular carrier is used.

  However, as in Patent Document 1, when a gravel component having a particle size of 2 mm or more is blended as an earth and sand component, the termite control layer having a small thickness can be produced without causing variations in thickness or coating defects. It becomes difficult to form.

  In Patent Document 2, an attempt is made to control termites with a layer of a granular carrier formed by spreading the granular carrier. However, although the granular carrier having a large particle size as described above can physically prevent termite penetration when a layer is formed, for example, a gap between a double foundation (an existing building by extension and an extension building foundation) It is not possible to process the gap between the outer heat insulating material and the base bonding part, so that a sufficient ant protection layer cannot be formed, and it is sufficient because the particle size is large for the joints of concrete that termites are likely to enter However, there is a problem that an effective control effect cannot be obtained.

  Accordingly, an object of the present invention is to provide a curable termite control composition that has an excellent termite control effect and can form a uniform layer having a small thickness when cured, and a kneaded material using the same. There is.

  As a result of earnestly examining the curable termite control composition that can achieve the above-mentioned object, the present inventors have found that the above problem can be solved by using earth and sand having a specific particle size distribution as the earth and sand component. As a result of further research, the present invention has been completed.

That is, the present invention
(1) A curable termite comprising a hydraulic component and an earth and sand component, wherein the weight ratio of the earth and sand component having a particle size of 1.5 mm or less to the total amount of the earth and sand component is 95% by weight or more. Control composition,
(2) The curable termite control composition according to (1), wherein the earth and sand component contains 80% by weight or more of earth and sand having a particle size of 1 mm or less,
(3) The earth and sand component contains earth and sand having a particle size of 0.15 mm or more and 1 mm or less and / or earth and sand having a particle size of less than 0.15 mm, as described in (1) or (2) above Curable termite control composition,
(4) The curable termite control composition according to any one of (1) to (3), further comprising a termite control component,
(5) The curable termite control composition according to (4), wherein the termite control component is prepared as a microencapsulating agent,
(6) The termite control component is at least one selected from the group consisting of neonicotinoid compounds, pyrethroid compounds and phenylpyrazole compounds, (4) or (5), Curable termite control composition,
(7) The curable termite control composition according to (6), wherein the neonicotinoid compound is clothianidin,
(8) The compression strength of the cured product obtained by curing the kneaded product of the curable termite control composition according to any one of (1) to (7) and water is 1 to 20 N / mm ² . The curable termite control composition according to any one of (1) to (7),
(9) A kneading step of kneading the curable termite-controlling composition according to any one of (1) to (8) and a curable liquid, and controlling the damage caused by termites on the kneaded product obtained in the kneading step. A termite control method characterized by having a curing step of applying and curing to a site;
(10) A spraying / injecting step of spraying or injecting the curable termite control composition according to any one of (1) to (8) to a site for controlling damage due to termites, and spraying in the spraying / injecting step Or a solidifying step of solidifying the injected curable termite control composition by spraying or injecting a hardening liquid, or by moisture in air or soil, ,
(11) A kneading step for kneading the curable termite control composition according to any one of (1) to (8) and a curing liquid, and a molding for molding and solidifying the kneaded product obtained in the kneading step. A termite control method comprising: a step and an embedding step of embedding the molded body obtained in the molding step in a site for controlling damage caused by termites,
(12) The curable termite control composition according to any one of (1) to (8), wherein the curable termite control composition is sprayed or injected into a site for controlling damage caused by termites; 1st which coats the kneaded material of the curable termite control composition in any one of said (1)-(8), and the hardening | curing liquid with respect to the area | region where the curable termite control composition was sprayed or inject | poured. A termite control method, characterized by comprising a coating step,
(13) Any one of the above (1) to (8), with respect to a curable liquid spraying step of spraying a curable liquid on a site that controls damage caused by termites, and a region where the curable liquid is sprayed in the curable liquid spraying step A termite control composition spraying step for spraying the curable termite control composition according to claim 1, and a termite control method,
(14) Any one of the above (1) to (8), with respect to a curable liquid spraying step of spraying a curable liquid on a site that controls damage caused by termites, and a region where the curable liquid is sprayed in the curable liquid spraying step A termite control method comprising: a second coating step of coating a kneaded product of the curable termite control composition according to the above and a curing liquid,
I will provide a.

  According to the curable termite control composition of the present invention, since the earth and sand having a specific particle size is used as the earth and sand component, a thin, uniform and dense termite control layer is formed when cured. can do.

  In addition, the termite control layer obtained can sufficiently exert the termite control effect due to the termite control component, and even when the termite control component is not included, the termite control layer has an appropriate hardness. Therefore, harm can be applied to the termites that have eaten them to penetrate the termite control layer. In addition, the hydraulic component in the curable termite control composition is often a strong alkali component. Therefore, when a termite eats the termite control layer, a large amount of strong alkali component is taken into the termite body. The environment (acidity) inside the termite body is destroyed, and termites can be killed. That is, as a result, it is possible to highly suppress the damage caused by termites and the invasion of termites.

FIG. 1 is a cross-sectional view showing an example of a region to be treated of the curable termite control composition. FIG. 2 is a cross-sectional view showing another example of the region to be treated of the curable termite control composition. FIG. 3 is a cross-sectional view showing still another example of the region to be treated of the curable termite control composition. FIG. 4 is a perspective view showing a test apparatus used for the penetration test. FIG. 5 is a perspective view showing a test apparatus used in the scooping test. FIG. 6 shows a test apparatus used in the construction test 3, (a) is a perspective view of the entire test apparatus, and (b) is a left side view of the concrete block 30. FIG. 7 is a perspective view showing a test apparatus used in the construction test 4. FIG. 8 is a perspective view showing an adhesion surface of the concrete block 40 used in the construction test 4. FIG. 9 is a perspective view showing the adhesion surface of the concrete block 40 after storage in the construction test 5. FIG. FIG. 10 is a cross-sectional view showing a sprayed state of the curable termite control composition in the construction test 25. FIG. 11 is a cross-sectional view showing a sprayed state of the curable termite control composition in the construction test 26.

  The first curable termite control composition of the present invention contains a hydraulic component and a sediment component, and the weight ratio of the sediment component having a particle size of 1.5 mm or less to the total amount of the sediment component is 95% by weight or more. It is characterized by being.

  Moreover, the 2nd curable termite control composition of this invention contains the termite control component further. That is, it contains a hydraulic component and an earth and sand component, and the weight ratio of the earth and sand component having a particle size of 1.5 mm or less to the total amount of the earth and sand component is 95% by weight or more and contains a termite control component. Yes.

  The termites to be controlled by the curable termite control composition are not particularly limited except that they are insects belonging to the order of the termites (Isoptera), and specifically, for example, termites (Coptotermes formosanus), Yamato Examples include those belonging to the family termites, such as termites (Reticulitermes speratus), and those belonging to the family Levi termites, such as the American white-tailed termites and the white-tailed termites.

  The hydraulic component is an essential component of the first and second curable termite control compositions. The hydraulic component is not particularly limited, except that it can disperse the earth and sand component, or can disperse the earth and sand component and the termite control component to form a curable termite control composition. Mortar or concrete Various hydraulic components that are used as the forming material are listed.

  Specifically, for example, a pneumatic cement (for example, a pneumatic simple cement, a pneumatic mixed cement, etc.) and a hydraulic cement (for example, a hydraulic simple cement, a hydraulic mixed comment, etc.) can be mentioned.

  Examples of the air-hard single cement include gypsums such as baked gypsum and anhydrous gypsum plaster, and limes such as slaked lime and dolomite plaster. Examples of the air-hard mixing cement include magnesia cement.

  Examples of the hydraulic plain cement include Portland cements such as Portland cement and early-strength Portland cement, and alumina cements such as alumina cement and lime alumina cement. As hydraulic mixed comments, for example, lime mixed cements such as lime slag cement and lime volcanic ash cement, mixed portland cements such as blast furnace cement, silica cement, pozzolanic cement, fly ash cement, for example high sulfate slag Examples include cements.

  These pneumatic cement and hydraulic cement can be used alone or in combination of two or more.

  The earth and sand component is an essential component of the first and second curable termite control compositions, and is 95% by weight or more, preferably 98% by weight or more of the total amount of the earth and sand component. It is an earth and sand component of 5 mm or less. More preferably, all of the earth and sand components are earth and sand components having a particle size of 1.5 mm or less.

  When the weight ratio of the earth and sand component having a particle size of 1.5 mm or less to the total amount of the earth and sand component is 95% by weight or more, the denseness of the termite control layer obtained by curing or solidifying the curable termite control composition is maintained. The termite perforation can be suppressed, and the termite control effect can be expressed at an early stage.

  Examples of the earth and sand constituting the earth and sand component having a particle size of 1.5 mm or less include sand (coarse sand, fine sand), silt (fine sand), and clay. These earth and sand can be used individually or in combination of 2 or more types.

  The above earth and sand is based on the content ratio of sand, silt and clay, for example, sandy earth (eg loam sandy sand, sandy earth), loam earth (eg loam, sandy loam earth, fine sandy loam), and loam loam. (For example, clay soil, sandy clay soil, fine sandy clay soil) and clay soil (for example, light soil, sandy soil, fine sandy soil, heavy soil). These soil and sand classifications are based on the soil classification of the International Soil Society Law. The earth and sand may belong to only one section of the earth and sand, or may belong to two or more sections.

  Specific examples of the earth and sand include, for example, sand (for example, silica sand, river sand, sea sand, beach sand, mountain sand, etc.), earth (for example, pure sand formed by weathering granite, for example, red earth , Black soil, shirasu and other volcanic ash soil, such as river sediment, etc., various horticultural soils (for example, Akadama soil, Kanuma soil, Arakida soil, humus soil, Kiryu sand), igneous rock (andesite, granite, rhyolite) ), Metamorphic rocks (such as quartzite and crystalline limestone), and sedimentary rocks (such as mudstone and sandstone).

  The sands are generally classified as sandy soils, true sandy soils are generally classified as loamy sandy soils or loamy soils, and volcanic ash soils are generally classified as loamy soils or dredged soils.

  Among the soils exemplified above, from the viewpoint of handling and cost, sandy soils such as loamy sands, loams such as loams, sand loams, fine sandy loams, and specific materials are preferable. Preferably, a pure sand soil and a silica sand are mentioned.

  Moreover, the said earth and sand component may be comprised with the crushed waste material, and may be comprised with the crushed waste material and the said earth and sand.

  Waste includes artificial and natural waste. Artificial objects include, for example, artificial structures or structures (for example, bricks, straw, concrete building materials, mortar building materials, concrete blocks, concrete roads, asphalt roads, window glass, etc.), daily necessities (flower pots, cups, pottery, etc.) Etc. Examples of natural products include shells (such as clams, swordfish, clams, scallop shells), bones (such as cattle, pigs, and chicken bones). Effective use of resources can be achieved by using these wastes as earth and sand components.

  The waste may be crushed to the same particle size as the earth and sand. Moreover, the said waste can be used individually or in combination of 2 or more types.

  The earth and sand component preferably contains 80% by weight or more of earth and sand having a particle diameter of 1 mm or less.

  The earth and sand component preferably contains 80% by weight or more, more preferably 95% by weight or more of earth and sand having a particle size of 0.25 mm or less.

  When the earth and sand component contains earth and sand having a particle size of 1 mm or less in a proportion of 80% by weight or more, preferably, when earth or sand having a particle size of 0.25 mm or less is contained in a proportion of 80% by weight or more, the particle size is A termite control layer obtained by curing the curable termite control composition with a relative decrease in the content ratio of earth and sand components exceeding 1 mm, preferably a relative decrease in the content ratio of earth and sand components exceeding 0.25 mm. The denseness of can be further improved.

  The earth and sand component more preferably contains earth and sand having a particle diameter of 0.15 mm or more and 1 mm or less and / or earth and sand having a particle diameter of less than 0.15 mm, and more preferably 0.15 mm or more and 0.0. The earth and sand which is 25 mm or less and the earth and sand whose particle size is less than 0.15 mm are contained in a weight ratio of 5:95 to 20:80.

  When the earth and sand component contains one or both of earth and sand having a particle size of 0.15 mm or more and 1 mm or less and earth and sand having a particle size of less than 0.15 mm, preferably the particle size is 0.15 mm or more and 0.25 mm or less. When the earth and sand having a particle diameter of less than 0.15 mm is contained at a weight ratio of 5:95 to 20:80, the termite control layer obtained by curing the curable termite control composition Denseness can be further improved.

  In the case where the earth and sand component contains both earth and sand having a particle diameter of 0.15 mm to 1 mm and earth and sand having a particle diameter of less than 0.15 mm, the earth and sand having a particle diameter of 0.15 mm to 1 mm, and the particle diameter The weight ratio with the earth and sand of less than 0.15 mm is preferably 99: 1 to 1:99, and more preferably 96: 4 to 5:95.

  The termite control component is an optional component of the first curable termite control composition and an essential component of the second termite control composition. Examples of this termite control component include neonicotinoid compounds, pyrethroid compounds, organochlorine compounds, organophosphorus compounds, carbamate compounds, pyrrole compounds, phenylpyrazole compounds, oxadiazine compounds, semicarbazone compounds, Plants or treated products thereof or derivatives thereof may be mentioned.

  The above-mentioned termite control components may be used alone or in combination of two or more. Among the termite control components exemplified above, it is preferably at least one selected from the group consisting of neonicotinoid compounds, pyrethroid compounds and phenylpyrazole compounds, and more preferably neonicotinoids. Compounds and / or pyrethroid compounds, more preferably neonicotinoid compounds.

Examples of neonicotinoid compounds include (E) -1- (2-chloro-1,3-thiazol-5-ylmethyl) -3-methyl-2-nitroguanidine (generic name: clothianidin), N-acetyl. -N- (2-chlorothiazol-5-yl) methyl-N'-methyl-N "-nitroguanidine, N- (2-chlorothiazol-5-yl) methyl-N-methoxycarbonyl-N'-methyl- N ″ -nitroguanidine, 1- (6-chloro-3-pyridylmethyl) -N-nitroimidazoline-2-ylideneamine (generic name: imidacloprid), 3- (2-chlorothiazol-5-ylmethyl) -5- [ 1,3,5] oxadiazinan-4-ylindene-N-nitroamine (generic name: thiamethoxam), (RS) -1-methyl-2-nitro-3- ( Torahidoro 3-furylmethyl) guanidine (common name: ^{dinotefuran), (E) -N 1 -} [(6- chloro-3-pyridyl) methyl] -N ² - cyano -N ¹ - methyl acetamidine [generic name: Acetamiprid] and the like.

  These neonicotinoid compounds may be used alone or in combination of two or more. Moreover, clothianidin is preferable.

  Examples of pyrethroid compounds include allethrin, permethrin, tralomethrin, bifenthrin, acrinatrin, alpha cypermethrin, cyfluthrin, ciphenothrin, praretrin, etofenprox, silafluophene, fenvalerate, preferably permethrin, bifenthrin, Ciphenothrin, etofenprox, and silafluophene.

  Examples of the organic chlorine compound include Kelsen.

  Examples of the organophosphorus compounds include oxime, pyridafenthion, fenitrothion (MEP), tetrachlorvinphos, diclofenthion, propetanephos, and the like.

  Examples of the carbamate compound include carbaryl, fenobucarb (BPMC), propoxle and the like.

  Examples of the pyrrole compound include chlorfenapyr.

  Examples of the phenylpyrazole-based compound include fipronil.

  Examples of the oxadiazine compound include indoxacarb.

  Examples of the semicarbazone compound include α- (α, α, α-trifluoro-m-toluoyl) -p-trinitrile 4- (p-trifluoromethoxyphenyl) semicarbazone.

  As a plant or its processed material, or its derivative (s), what was described in Unexamined-Japanese-Patent No. 2002-307406, Unexamined-Japanese-Patent No. 2003-252708, and Unexamined-Japanese-Patent No. 2005-74776 is mentioned, for example.

  The termite control component is not particularly limited with respect to its formulation form, and is prepared, for example, as a microencapsulating agent, a powder, a granule, a liquid, a flowable, or an emulsion. Among these, it is preferable to prepare the termite control component as a microencapsulating agent.

  In order to prepare the termite control component as a microencapsulating agent, for example, interfacial polymerization method, in situ polymerization method (interface reaction method), coacervation method, submerged drying method, melt dispersion cooling method, submerged cured film method A coating method (suspension method in air), a spray drying method, an electrostatic coalescence method, a vacuum deposition method, or the like can be used.

  Specific examples of the microencapsulation of the termite control component include, for example, JP-A-61-249904, JP-B-6-92282, JP-B-6-92283, JP-A-10-114608, Examples thereof include the method described in Japanese Unexamined Patent Publication No. 2000-247821. In addition, when the termite control component is, for example, a hardly soluble neonicotinoid compound, the method described in JP 2000-247821 A can be used, for example.

  The microencapsulating agent is preferably adjusted to an average particle size of 6 to 100 μm, preferably 10 to 50 μm. The particle size and average particle size of the microencapsulating agent are obtained, for example, by measuring the particle size and its distribution state (particle size distribution) using a commercially available laser diffraction / scattering particle size distribution device. be able to.

  When the termite control component is prepared as a microencapsulating agent, the above-described hydraulic component and the earth and sand component are mixed in a state where the obtained microencapsulating agent is dried to the extent that it does not solidify during storage. A curable termite-controlling composition can be obtained by blending and, if necessary, blending and dispersing other additives such as a dispersant, a surfactant, and an anti-settling agent as appropriate.

  In order to prepare the termite control component as a powder or granule, a known method is used, for example, the termite control component is dissolved and dispersed in an appropriate solvent, and powdered or granulated by means such as spray drying. be able to.

  The powder or granule has an average particle diameter of 6 to 1500 μm, preferably 20 to 500 μm. The particle diameter and average particle diameter of the powder or granule can be determined, for example, in the same manner as in the case of the microencapsulating agent.

  When the termite control component is prepared as a powder or granule, the above-mentioned hydraulic component and the earth and sand component are blended in a state where the obtained powder or granule is dried, and further dispersed if necessary. Agent, surfactant, anti-settling agent, emulsion resin such as latex, resin such as polyester resin and epoxy resin, curing retarder such as oxycarboxylic acid and silicofluoride, curing accelerator such as sodium aluminate and calcium (surface active And other additives such as concrete reinforcing agents such as polypropylene, polyethylene, and aramid resin are appropriately blended, mixed, and dispersed to obtain a curable termite control composition.

  To prepare a termite control component as a solution, flowable agent or emulsion, the termite control component is dissolved, suspended or emulsified in an appropriate solvent (water or organic solvent) with a surfactant or emulsifier as necessary. Just do it.

  When the termite control component is prepared as a solution, flowable agent or emulsion, the resulting solution, flowable agent or emulsion and the above earth and sand component are blended, mixed and dispersed, and then the resulting mixture is dried. In such a state, the above-mentioned hydraulic component and, if necessary, other additives such as a dispersant, a surfactant, and an anti-settling agent are appropriately blended, mixed and dispersed to control curable termites. A composition can be obtained.

  The content ratio of the hydraulic component in the first and second curable termite control compositions is not particularly limited, but is preferably 1 to 99% by weight, more preferably 1 to 80% by weight. More preferably, it is 5 to 30% by weight.

  Although the content rate of the earth and sand component in the said 1st curable termite prevention composition is not specifically limited, Preferably, it is 1 to 99 weight%, More preferably, it is 20 to 99 weight%, More preferably Is 70 to 95% by weight. Moreover, the content ratio of the earth and sand component in the second curable termite control composition is not particularly limited, but is preferably 0.9 to 99% by weight, and more preferably 19.9 to 99% by weight. %, More preferably 69.9 to 95% by weight.

  Moreover, the content ratio of the earth and sand component in the first and second curable termite control compositions is preferably 1 to 20000 parts by weight, more preferably 100 parts by weight of the hydraulic component. It is 10-10000 weight part, More preferably, it is 25-5000 weight part.

  The content ratio of the termite control component in the curable termite control composition is not particularly limited, but in the first curable termite control composition, it is preferably 0 to 50% by weight, more preferably. 0 to 10% by weight. Moreover, in the said 2nd curable termite control composition, Preferably it is 0.00001 to 50 weight%, More preferably, it is 0.001 to 10 weight%.

  Moreover, the content ratio of the earth and sand component in the first curable termite control composition is preferably 10000 parts by weight or less, more preferably 10 to 10,000 with respect to 100 parts by weight of the hydraulic component. Parts by weight, more preferably 25 to 5000 parts by weight. On the other hand, the content ratio of the earth and sand component in the second curable termite control composition is preferably 1 to 20000 parts by weight with respect to 100 parts by weight of the hydraulic component, more preferably 10 to 10 parts by weight. The amount is 10,000 parts by weight, and more preferably 25 to 5000 parts by weight.

  The content of other additives in the first and second curable termite control compositions is not particularly limited, but is preferably 0 to 20% by weight, more preferably 0 to 10% by weight. It is.

And the said 1st and 2nd curable termite control composition knead | mixes with water and hardened _| cured the hardened _| cured material obtained by JIS _R5201-1997 "Physical test method of cement" or JIS A 1171 _{: 2000} " When tested in the compressive strength test described in "Test method for polymer cement mortar", the compressive strength is preferably 1 to 20 N / mm ² , more preferably ² to 18 N / mm ² , More preferably, it is 2-15 N / mm < ² >.

  When the compressive strength of the cured product obtained by curing the kneaded product of the curable termite control composition and water satisfies the above range, the hardness of the cured product is, for example, a termite like concrete. On the other hand, it is not so hard that it can be harmed, but on the other hand, it is not soft enough for termites to penetrate while moving straight, for example, as in normal soil, but it has moderate resistance when termites harm It will be. For this reason, the termites that harm the above-mentioned cured product take in a large amount of the composition in the harmed area into the body, resulting in a problem that impedes life support. Moreover, this will cause termites from falling to death, or termites that repel the cured product will appear prominently.

  Examples of the area to be treated of the curable termite control composition include a site for controlling damage caused by termites. Specifically, there are parts that need to control termite damage, such as parts where termites may invade (parts that are expected to be damaged by termites) and parts that are actually damaged by termites. Can be mentioned.

  In the present invention, “control” of damage caused by termites means prevention and extermination. That is, the term “control” of damage caused by termites includes the case of extermination of termites. Hereinafter, these may be simply referred to as “controlling damage caused by termites”.

  Specifically, as a part for controlling damage caused by termites, for example, a basic structure part, an upper structure part, and an underground structure in a building (a building; that is, a house, a warehouse, a gate, a fence, and their ancillary equipment). For example, an underground buried object as an accessory of a building, for example, a ground surface, for example, a termite inhabiting / occurring area.

  Examples of the basic structure of buildings include foundations (independent foundations, cloth foundations, solid foundations, etc.), ground operations (cobblestones, drilling stones, sands, etc.), foundation beams, underground beams, Examples include stones, foundations (wood foundations for mounting pillars, etc.), pillars, floor bundles, large pulls, rooting, joists, and basic insulation.

  As an upper structure part of a building, for example, a pillar, a floor part (an upper part of a floor, a lower part of a floor; for example, a floor slab, a floor board, an underfloor insulation material, etc.), a wall part (an outer wall, an inner wall, a partition wall, etc.), an insulation material. (Outer wall heat insulating material, inner wall heat insulating material, etc.), ceiling, beam (girder), window frame, fence, eaves, eaves, roofing board, wall, wall wall (wall surface, dog run, pasted stone, etc.), etc. Is mentioned.

  As an underground structure part of a building, for example, a pillar, a floor part, an outer wall, an outer wall heat insulating material, an inner wall, an inner wall heat insulating material, a partition wall, a ceiling, a beam (girder), etc. that constitute a basement part of the building can be cited.

  Examples of the underground buried object as an ancillary facility of a building (building) include, for example, around cables (electric cable, optical fiber cable, etc.) and around pipes (water pipe, gas pipe, etc.).

  Examples of the ground surface include the ground surface in the vicinity of the foundation structure outside the building (the outer periphery of the building, the dog-running part of the wall fence, etc.), the ground surface in the building (lower floor), and the like.

  Examples of termite inhabiting / occurring areas include termite nests, ant tracts, and injured parts.

  In addition, for example, there are cracked parts (cracks, etc.), gaps, drills, etc. in buildings (the above-mentioned basic structure part, upper structure part, underground structure part) and underground buried objects, etc. For example, a portion perforated by.

  What is necessary is just to set suitably the construction amount of the said curable termite prevention composition according to a to-be-processed area.

  Therefore, although not particularly limited, for example, the first and second curable termite control compositions are directly applied to a site (specifically, a ground surface, etc.) for controlling damage due to termites ( Specifically, when spraying, etc.) or when applying (spraying etc.) to areas where water, termite control liquid containing termite control ingredients or polymer containing liquid is sprayed For example, the thickness of the layer made of the curable termite control composition is 0.1 to 5 cm, preferably 0.1 to 3 cm, over the entire area where the site for controlling damage caused by termites or the water is sprayed. For example, the thickness of the layer made of the curable termite control composition is 0.25 mm to 3 cm, and the width is 1 to 30 cm, preferably 3 to 20 cm. To apply (scatter, etc.) so.

For example, a kneaded product of the first and second curable termite control compositions and water or a termite control solution containing a termite control component), a site for controlling damage caused by termites (specifically, When applying (specifically, coating, injection, etc.) to the foundation structure of buildings, etc. (specifically, pillars, heat insulating materials, etc.), for example, parts that control damage due to termites Is applied (coating, pouring) so that the thickness of the layer made of the kneaded material is 0.25 mm to 3 cm. You may apply the said kneaded material to the whole surface of a basic | foundation rising part, for example. Further, for example, when the kneaded product is applied to the foundation rising part, the length in the height direction from the boundary between the foundation part and the wall surface is 1 to 40 cm, preferably 1 to 20 cm, and the thickness is 0.25 mm to 5 cm, preferably 0.25 mm to 3 cm, more preferably 0.25 mm to ¹ cm, and kneading so that the weight per unit area is 200 g / m ^{2 to} 60 kg / m ^2. Apply the object (coating, pouring).

  The curable termite control composition can be applied to the above-described treated area by various methods.

  Next, the termite control method of the present invention using the curable termite control composition of the present invention will be described.

  The first termite control method of the present invention includes a kneading step for kneading the first or second curable termite control composition and a curable liquid, and a kneaded product obtained in the kneading step for controlling damage caused by termites. And a curing step in which it is applied to the site to be cured and cured.

  In the kneading step, the first or second curable termite control composition and the curable liquid are blended and kneaded to obtain a kneaded product.

  The curable liquid is a liquid used when the first or second curable termite control composition is cured. Specifically, for example, water, a termite control solution containing a termite control component, a polymer And liquids containing

  The termite control component of the termite control solution containing the termite control component (hereinafter sometimes simply referred to as “termite control solution”) includes any component of the first curable termite control composition or the second component. The same termite control component as exemplified as an essential component of the termite control composition is included.

  Examples of the solvent or dispersion medium for the termite control solution include water, methanol, ethanol, propylene glycol, and the like.

  As the polymer in the liquid containing the polymer, the kneaded product with the first or second curable polymer, or the liquid containing the polymer itself is applied to the site to control the damage caused by termites (coating, Polymers that can be cured with the first or second curable polymer when sprayed, sprayed, injected, etc.

  Specific examples include ethylene-vinyl alcohol (EVA) resin, acrylic resin (for example, acrylic ester, methacrylic ester, etc.), styrene-butadiene rubber (SBR), and the like.

  Examples of the liquid solvent or dispersion liquid containing the polymer include water. The liquid containing the polymer is specifically supplied as a dispersion, suspension or emulsion containing the polymer, more specifically, for example, as a resin emulsion or rubber latex. .

  The blending ratio of the first or second curable termite control composition and the curing liquid may be within a range in which the kneaded product can be cured to form a termite control mortar. Therefore, although not particularly limited, for example, the amount of the water, solvent or dispersion contained in the curable liquid is preferably based on 100 parts by weight of the first or second curable termite control composition, It is 15 to 65 parts by weight, more preferably 15 to 45 parts by weight, and still more preferably 15 to 35 parts by weight.

  For the kneading of the first or second curable termite control composition and the curable liquid, for example, a mixer or the like may be used, or the mixture may be stirred by hand. Examples of the kneading method include a method in which a curable liquid is put in a container in advance and the curable termite control composition is gradually added while stirring the solution.

  In the said hardening process, the kneaded material obtained by the said kneading | mixing process is applied to the site | part which controls the damage by a termite, for example, Then, it leaves still in the state which refused the contact with the surface of the applied kneaded material. Thereafter, the kneaded product is cured by being left still or by absorbing moisture in air or soil. Thereby, termite control mortar is formed.

  Specific examples of the application of the kneaded product include coating, spreading, spraying, pouring, embedding, and the like of the kneaded product.

  The specific method of the construction is not particularly limited, for example, a method of coating the kneaded material with a tool such as a spatula or a spatula, the kneaded material with a machine / equipment such as a sprayer, a sprayer, or a pump. A method of spraying the above kneaded material or the like manually, a method of spraying the kneaded material with a spray gun or the like, a method of injecting the kneaded material or the like with an injection tool, and the like.

  In addition, when using a spreader, the above-mentioned kneaded material and the like can be sprayed from the tip of the hose by a certain amount, so that, for example, the work efficiency of the termite control composition is particularly reduced when constructing a termite control composition under the floor of an existing house. Can be increased. In addition, when a spray gun is used, spray coating of the kneaded material or the like is possible, and furthermore, construction with a uniform thickness is possible. Furthermore, for example, work efficiency can be improved even in construction in a very narrow construction area such as a double foundation.

  The curable termite control composition used in the kneading step of the first termite control method may be one that does not contain a termite control component (first curable termite control composition) and contains a termite control component. (Second curable termite control composition) may be used.

  Even when the termite-controlling composition does not contain a termite-controlling component, when the curing liquid used in the kneading step is a termite-controlling liquid, the cured product (termite) obtained by curing the kneaded product. The termite control component is contained in the control mortar), and the termite control effect can be surely exhibited. On the other hand, when the termite-controlling composition does not contain a termite-controlling component and the curable liquid is a liquid containing water or a polymer, termites are added to the cured product (termite-controlling mortar). Although the control component is not contained, the termite that harms the cured product as described above can exert the termite control effect by incorporating a large amount of the cured product in the affected area. In order to exert such an effect, it is preferable to set the compression strength of the cured product (termite-controlling mortar) obtained by curing the kneaded product to be in the above range.

  In the first termite control method, the construction area in the case where the kneaded product obtained in the kneading step is applied, sprayed or sprayed is a site for controlling damage (including extermination) due to termites. There is no particular limitation except that the kneaded material is a region suitable for coating, spreading, or spraying. As the construction area, preferably, for example, the surface of the foundation structure portion, the upper structure portion and the underground structure portion of the building, the cracked portion, the gap portion and the perforated portion, for example, the surface (outer peripheral surface) in the underground buried object, Examples include cracks and gaps.

  In the first termite control method, the construction area in the case of injecting the kneaded product obtained in the kneading step is a site for controlling damage (including extermination) due to termites, There is no particular limitation except that the region is suitable for implantation. As the construction (injection) area, for example, a cracked part, a gap part and a perforated part in a foundation structure part, an upper structure part and an underground structure part of a building, for example, a crack part and a gap part in an underground buried object For example, termite nests, ant tracts, harming parts, etc. may be mentioned.

  In the second termite control method of the present invention, the first or second curable termite control composition is sprayed / injected in a site for controlling damage caused by termites, and sprayed in the spraying / injecting step. Or it has a solidification process which solidifies the inject | poured curable termite control composition by spraying or injection | pouring of hardening | curing liquid, or with the water | moisture content in air or soil.

  In the spraying / injecting step, the first or second curable termite-controlling composition is sprayed or injected into a site where damage due to termites is controlled.

  The method of spraying or injecting is not particularly limited as long as the first or second curable termite-controlling composition is sprayed or injected into a site for controlling damage caused by termites. Specifically, the first or second curable termite control agent is sprayed or injected using a container such as an oil jug, or a sprayer, on a part that controls damage caused by termites. Examples include a method of spraying or injecting by spraying.

  In the solidification step, moisture is supplied to the first or second curable termite-controlling composition sprayed or injected in the termite-controlling composition spraying / injecting step by spraying or pouring a curable liquid, or air Alternatively, air or moisture in the soil is supplied from the soil. As a result, the first or second curable termite control composition is solidified and cured to form a termite control mortar.

  Examples of the curable liquid include the same ones as exemplified in the first termite control method.

  The amount of water supplied by spraying or pouring (for example, watering) of the curable liquid is not particularly limited as long as the first or second curable termite control composition is cured to form a termite control mortar. However, for example, the water, solvent or dispersion contained in the curable liquid is preferably 15 to 65 parts by weight with respect to 100 parts by weight of the first or second curable termite control composition. More preferably, it is 15-45 weight part, More preferably, it is 15-35 weight part. In addition, for the watering, for example, an appropriate method is used such as watering at one time or watering in multiple times.

  The curable termite control composition sprayed or injected in the spraying / injecting step of the second termite control method may be one that does not contain a termite control component (first curable termite control composition), It may be one containing a termite control component (second curable termite control composition).

  Even if the termite-controlling composition does not contain a termite-controlling component, the termite-controlling composition is cured when the curing solution sprayed or injected in the spraying / injecting step is a termite-controlling solution. The termite control component is contained in the cured product (termite control mortar) obtained in this manner, so that the termite control effect can be surely exhibited. On the other hand, when the termite-controlling composition does not contain a termite-controlling component, and the curable liquid sprayed or injected in the spraying / injecting step is a liquid containing water or a polymer. The termite-controlling component is not contained in the cured product (termite-controlling mortar) obtained by curing the termite-controlling composition. However, as described above, the termites that damage the cured products are the above-mentioned curing in the affected area. By taking in a large amount of substances, the termite control effect can be exhibited. In order to exert such an effect, it is preferable to set the compressive strength of a cured product (termite-controlling mortar) obtained by curing the termite-controlling composition to be in the above range.

  In the second termite control method, the construction area in the case of spraying the first or second curable termite control composition is a site for controlling (including extermination) damage caused by termites, There is no particular limitation except that it is a region suitable for spraying the second curable termite control composition. As the construction (spreading) area, preferably, for example, the surface of a building foundation structure, upper structure and underground structure, cracked part, gap part and perforated part, for example, the surface (outer circumference) of an underground buried object Surface), cracked portions and gap portions.

  In the second termite control method, the construction area in the case where the first or second curable termite control composition is injected is a site for controlling (including extermination) damage caused by termites. There is no particular limitation except that the region is suitable for injecting the first or second curable termite control composition. As the construction (injection) area, for example, a cracked part, a gap part and a perforated part in a foundation structure part, an upper structure part and an underground structure part of a building, for example, a crack part and a gap part in an underground buried object For example, termite nests, ant tracts, harming parts, etc. may be mentioned.

  Furthermore, although not limited to this, for example, when the construction (spreading or pouring) region is a surface, a cracked part, a gap part, or a perforated part in the foundation structure part and the upper structure part of the building, the first Alternatively, after spraying or injecting the second curable termite control composition, water may be sprayed into the spray area. On the other hand, when the construction (spraying or pouring) area is the surface, cracked part, gap part and perforated part in the underground structure part of the building, or the surface, cracked part and gap part of the underground buried object, After spraying or injecting the first or second curable termite control composition, it may be allowed to stand and solidify naturally by moisture in air or soil.

  The third termite control method of the present invention includes a kneading step for kneading the first or second curable termite control composition and the curable liquid, and a molding for molding and solidifying the kneaded product obtained in the kneading step. A process and an embedding process of embedding the molded body obtained in the molding process in a site for controlling damage caused by termites.

  In the kneading step, the first or second curable termite control composition and the curable liquid are blended and kneaded to obtain a kneaded product.

  Examples of the curable liquid include the same ones as exemplified in the first termite control method.

  What is necessary is just to set the mixture ratio of the 1st or 2nd curable termite control composition, and the hardening | curing liquid similarly to the case of the 1st termite control method. Moreover, what is necessary is just to make the kneading | mixing with the 1st or 2nd curable termite control composition and the hardening | curing liquid similarly to the case of the 1st termite control method.

  In the molding step, the kneaded product obtained in the kneading step is molded into a predetermined shape and solidified. Thereby, the mortar of a predetermined shape is obtained.

  For forming and solidifying the kneaded product, for example, a method of pouring the kneaded product into a plastic container or a wooden frame to solidify and taking out is used. At that time, for example, the kneaded product can be molded and solidified according to the shape of the portion actually damaged by termites or the shape of the portion drilled with a drill or the like.

  In the embedding step, for example, the molded body obtained in the molding and solidifying step may be subjected to damage caused by termites, in particular, sites that are actually damaged by termites (damaged parts) or may be damaged by termites. Implant and fix in the site. For example, an adhesive, a string, and a metal fitting are used for fixing the molded body.

  The curable termite control composition used in the kneading step of the third termite control method may be one that does not contain a termite control component (first curable termite control composition) and contains a termite control component. (Second curable termite control composition) may be used.

  Even when the termite-controlling composition does not contain a termite-controlling component, when the curing liquid used in the kneading step is a termite-controlling liquid, the cured product (termite) obtained by curing the kneaded product. The termite control component is contained in the control mortar), and the termite control effect can be surely exhibited. On the other hand, when the termite-controlling composition does not contain a termite-controlling component and the curable liquid is a liquid containing water or a polymer, termites are added to the cured product (termite-controlling mortar). Although the control component is not contained, the termite that harms the cured product as described above can exert the termite control effect by incorporating a large amount of the cured product in the affected area. In order to exert such an effect, it is preferable to set the compression strength of the cured product (termite-controlling mortar) obtained by curing the kneaded product to be in the above range.

  In the third termite control method, the embedded region in which the molded body molded and solidified into a predetermined shape in the molding step is embedded is a portion for controlling (including extermination) damage caused by termites, and the molded body. There is no particular limitation except that the region is suitable for embedding. The embedded region is preferably, for example, a cracked part, a gap part and a perforated part in a foundation structure part, an upper structure part and an underground structure part of a building, for example, a crack part and a gap part in an underground buried object, for example, Examples include termite ant trails.

  In the fourth termite control method of the present invention, the first or second curable termite control composition is sprayed / injected in a site for controlling damage caused by termites, A first coating step of applying a kneaded product of the first or second curable termite control composition and the curing liquid to a region where the curable termite control composition is sprayed or injected. ing.

  In the spraying / injecting step, the first or second termite is applied to a part that controls damage caused by termites, particularly a part that is actually damaged by termites (damaged part) or a part that may be damaged by termites. Spray or inject the control composition.

  Examples of the curable liquid include the same ones as exemplified in the first termite control method.

  The method of spraying or injecting is not particularly limited as long as the first or second termite control composition is sprayed or injected into a site for controlling damage caused by termites. Examples thereof include a method of spraying or injecting using a simple container and a method of spraying or injecting by spraying using a sprayer.

  For the spraying and injection of the termite control solution, an appropriate method is used, for example, spraying or injecting the termite control solution at one time, or spraying or injecting the termite control solution in a plurality of times.

Also, the amount of the termite control solution sprayed is not particularly limited as long as the termite control composition sprayed and injected in advance does not flow out, and is normally set to the general amount of the termite control component. Specifically, the amount of the termite control solution is set to 3 to 5 L / m ² when, for example, spraying to the soil, for example, 0.05 to 5 L when spraying to the xylem. Set to

  In the first coating step, the first or second termite control composition and the curable liquid are applied to the region where the first or second termite control composition is sprayed or injected in the spraying / injecting step. The kneaded material is coated, and then left standing in a state where contact with the surface of the coated kneaded material is cut off. Thereby, the said kneaded material hardens | cures and the termite control mortar which the said kneaded material hardened | cured further is formed in the surface of the 1st or 2nd termite control composition sprayed or poured previously.

  The blending ratio of the first or second curable termite control composition and the curing liquid may be within a range in which the kneaded product can be cured to form a termite control mortar. Therefore, although not particularly limited, for example, for water, solvent or dispersion contained in the curable liquid, the blending ratio is preferably 100 parts by weight of the first or second curable termite control composition, It is 15-65 weight part, More preferably, it is 15-45 weight part, More preferably, it is about 15-35 weight part.

  The curable termite control composition sprayed or injected in the spraying / injecting step of the fourth termite control method may be one that does not contain a termite control component (first curable termite control composition), It may be one containing a termite control component (second curable termite control composition).

  Even if the termite-controlling composition does not contain a termite-controlling component, the termite-controlling composition is cured when the curing solution sprayed or injected in the spraying / injecting step is a termite-controlling solution. The termite control component is contained in the cured product (termite control mortar) obtained in this manner, so that the termite control effect can be surely exhibited. On the other hand, when the termite-controlling composition does not contain a termite-controlling component, and the curable liquid sprayed or injected in the spraying / injecting step is a liquid containing water or a polymer. The termite-controlling component is not contained in the cured product (termite-controlling mortar) obtained by curing the termite-controlling composition. However, as described above, the termites that damage the cured products are the above-mentioned curing in the affected area. By taking in a large amount of substances, the termite control effect can be exhibited. In order to exert such an effect, it is preferable to set the compressive strength of a cured product (termite-controlling mortar) obtained by curing the termite-controlling composition to be in the above range.

  In the fourth termite control method, the spraying / injecting region of the first or second curable termite control composition and the coating region of the kneaded product control (including extermination) damage caused by termites. There is no particular limitation except that the region is a region suitable for spraying / injecting the first or second curable termite control composition and applying the kneaded product. The spraying / injecting area and the coating area are preferably, for example, the surface, cracked part, gap part and perforated part of the foundation structure part, the upper structure part and the underground structure part of the building, for example, underground buried objects. Examples include the surface (outer peripheral surface), cracked portions and gap portions, such as termite nests and ant roads.

  In the fifth termite control method of the present invention, the curing liquid spraying step of spraying the curing liquid to the site for controlling the damage caused by the termites, and the region where the curing liquid is sprayed in the curing liquid spraying step are the first or And a termite control composition spraying step of spraying the second curable termite control composition.

  In the curable liquid spraying step, the curable liquid is sprayed on the part that is to be damaged by termites, particularly the part that is actually damaged by termites (damaged part) or the part that is likely to be damaged by termites.

  Examples of the curable liquid include the same ones as exemplified in the first termite control method.

  For example, a suitable method may be used for spraying the curable liquid, such as spraying the termite control liquid at one time or spraying it in multiple times.

  The amount of the curable liquid sprayed is, for example, such that the first or second curable termite control composition sprayed in the termite control composition spraying step described below is sufficiently cured and can adhere to the sprayed region. If it is.

  In the termite control composition spraying step, the first or second curable termite control composition is sprayed on the region where the curing liquid is sprayed in the curing liquid spraying step.

  The first or second curable termite-controlling composition absorbs water, a solvent or a dispersion in a curable liquid that has been sprayed in advance on a site for controlling damage caused by termites, or in the air. Solidifies and hardens by absorbing moisture. Thus, termite control mortar is formed.

The application amount of the first or second curable termite control composition may be within a range in which the termite control effect is exhibited and can be fixed in the region where the curable liquid is applied. Therefore, although not particularly limited, for example, it is preferably set to 200 g / m ^{2 to} 60 kg / m ² , more preferably 200 g / m ^{2 to} 30 kg / m ² .

  The curable liquid sprayed in the curable liquid spraying step of the fifth termite control method may be one that does not contain a termite control component (water, a liquid containing a polymer), and contains a termite control component. Termite control solution may be used.

  Even when the curable liquid does not contain a termite control component, the curable termite control composition sprayed in the termite control composition spraying step contains a termite control component (second curing) In the case of a sex termite control composition), the termite control component is contained in the cured product (termite control mortar), and the termite control effect can be surely exhibited. On the other hand, when the curable liquid does not contain a termite control component, and the curable termite control composition to be sprayed does not contain a termite control component (in the first curable termite control composition). In some cases, although the termite control component is not contained in the cured product (termite control mortar), as described above, the termites that damage the cured product take in a large amount of the cured product in the affected area. Thus, the termite control effect can be exhibited. In addition, in order to exhibit this effect, it is preferable to set so that the compressive strength of hardened | cured material (termite prevention mortar) may become the above-mentioned range.

  In the fifth termite control method, the spray area of the first or second curable termite control composition is a site for controlling (including extermination) damage caused by termites, and the first or second curing. Although it is not particularly limited except that it is an area suitable for spraying a composition for controlling an insect termite, it is preferably a surface, a cracked part, a gap part, for example, in a foundation structure part, an upper structure part and an underground structure part of a building. In addition, a perforated portion, for example, a surface (outer peripheral surface) of an underground buried object, a cracked portion, a gap portion, or the like can be given.

  In the sixth termite control method of the present invention, the curing liquid spraying step of spraying the curing liquid to the site for controlling the damage caused by the termites, and the region where the curing liquid is sprayed in the curing liquid spraying step are the first or A second coating step of coating a kneaded product of the second curable termite control composition and the curing liquid.

  In the curable liquid spraying step, the curable liquid is sprayed on the part that is to be damaged by termites, particularly the part that is actually damaged by termites (damaged part) or the part that is likely to be damaged by termites.

  Examples of the curable liquid include the same ones as exemplified in the first termite control method.

  What is necessary is just to set the spraying method and spraying quantity of hardening liquid similarly to the case of the 5th termite prevention method.

  In the second coating step, a kneaded product of the first or second curable termite control composition and the curing solution is applied to the region where the curing solution is dispersed in the curing solution spraying step, Harden.

  Examples of the curable liquid include the same ones as exemplified in the first termite control method.

  In the kneading of the first or second termite control composition and the curable liquid, a kneaded product is obtained by mixing and kneading these.

  The kneaded material is solidified and cured by being applied to the region where the curable liquid is dispersed in the curable liquid spraying step. Thus, termite control mortar is formed.

  The blending ratio of the first or second termite control composition and the curable liquid may be within a range in which the kneaded product can be cured to form a termite control mortar. For example, the ratio of the termite control liquid or water is mixed. Is preferably 15 to 65 parts by weight, more preferably 15 to 45 parts by weight, and still more preferably 15 to 45 parts by weight with respect to 100 parts by weight of the first or second curable termite control composition. About 35 parts by weight.

  The curable liquid sprayed in the curable liquid spraying step of the sixth termite control method may be one that does not contain a termite control component (water, a liquid containing a polymer), and contains a termite control component. Termite control solution may be used.

  Even when the curable liquid does not contain a termite control component, the curable termite control composition sprayed in the termite control composition spraying step contains a termite control component (second curing) In the case of a sex termite control composition), the termite control component is contained in the cured product (termite control mortar), and the termite control effect can be surely exhibited. On the other hand, when the curable liquid does not contain a termite control component, and the curable termite control composition to be sprayed does not contain a termite control component (in the first curable termite control composition). In some cases, although the termite control component is not contained in the cured product (termite control mortar), as described above, the termites that damage the cured product take in a large amount of the cured product in the affected area. Thus, the termite control effect can be exhibited. In addition, in order to exhibit this effect, it is preferable to set so that the compressive strength of hardened | cured material (termite prevention mortar) may become the above-mentioned range.

  In the sixth termite control method, the application area of the kneaded product is a region that controls (including extermination) damage caused by termites and is an area suitable for applying the kneaded product. Other than the above, the surface is not particularly limited, but preferably, for example, the surface of the foundation structure part, the upper structure part, and the underground structure part of the building, for example, the surface (outer peripheral surface) of the underground buried object.

  1, 2, and 3 are cross-sectional views illustrating an example of a region to be treated of the curable termite control composition.

  FIG. 1 shows a solid foundation 20, a foundation main body 21 provided on the upper surface of the end of the solid foundation 20, a foundation heat insulating material 22 provided on the outer surface of the foundation main body 21, and a foundation. The decorative mortar 23 covering the outer surface of the heat insulating material 22, the wooden base 24 provided on the base body 21, the pillar 25 standing on the base 24, and the base heat insulating material 22 The outer heat insulating material 26 provided on the top is included.

  In the foundation part shown in FIG. 1, the part of the foundation body 21 whose surface is exposed to the outside (a part of the top surface or the side surface), the upper part of the foundation heat insulating material 22, the surface of the wooden base 24, the solid foundation 20 The termite-controlling mortar 28 is formed by applying the above-mentioned curable termite-controlling composition to the side face of the end part, the boundary part between the lower end part of the decorative mortar 23 and the ground 27 and the surfaces of the pillars 25 and the outer heat insulating material 26 Has been. In this case, specifically, (A) a kneaded mixture of the curable termite control composition and water is applied to the construction part, and (B) the curable termite control composition is sprayed, Water sprayed, (C) after the curable termite control composition is sprayed, the termite control solution is sprayed, or (D) the group consisting of water, a liquid containing the termite control solution and the polymer After the at least one liquid selected from the above is sprayed, the curable termite control composition is sprayed, whereby the termite control mortar 28 is formed. The cosmetic mortar 23 itself may be a mortar (termite control layer) formed using a curable termite control composition.

  Further, the curable termite control composition is also applied to the gap between the base body 21 and the base heat insulating material 22 to form a termite control mortar 29. In this case, specifically, (E) a kneaded mixture of the curable termite control composition and water is injected into the construction part, that is, the gap between the base body 21 and the base heat insulating material 22, and (F) After the curable termite control composition is injected, water is sprayed. (G) After the curable termite control composition is injected, the termite control solution is sprayed, or (H) water, the termite control. After at least one liquid selected from the group consisting of a liquid and a liquid containing the polymer is sprayed, the curable termite control composition is sprayed, whereby the termite control mortar 29 is formed.

  In FIG. 2 and FIG. 3, it is provided in the outer side surface of the fabric foundation 50 and the foundation main body 52 (the part which is the protrusion part of the fabric foundation 50, and mounts the base 24 and the pillar 25) among the foundation structural parts of a building. The base heat insulating material 22, the decorative mortar 23 covering the outer surface of the base heat insulating material 22, the wooden base 24, the pillar 25 erected on the base 24, and the base heat insulating material 22 The outer heat insulating material 26 provided in is included. Further, in FIG. 2, concrete (concrete concrete) 51 is further provided on the surface of the ground 27.

  In the foundation shown in FIGS. 2 and 3, the portion of the foundation main body 52 whose surface is exposed to the outside (a part of the top surface and the side), the upper portion of the foundation heat insulating material 22, the surface of the wooden base 24, the foundation The above-mentioned curable termite control composition is applied to the end side surface of the main body 52, the boundary portion between the ground 27 and the soil concrete 51, and the surfaces of the pillar 25 and the outer heat insulating material 26. In this case, specifically, the termite control mortar 28 is formed in the construction portion in the same manner as the above-described (A) to (D). The cosmetic mortar 23 itself may be a mortar formed using a curable termite control composition.

  The curable termite control composition is also applied to the gap between the base body 52 and the base heat insulating material 22 to form the termite control mortar 29. In this case, specifically, the termite control mortar 29 is formed in the construction portion in the same manner as the above-described (E) to (H).

  In the case shown in FIGS. 1, 2, and 3, when there are cracks on the surface of the foundation body 21 of the solid foundation 20, the foundation body 52 of the fabric foundation 50, etc., a curable termite control composition is provided in the gap between the cracks. May be injected.

  In the above, the case of outer heat insulation was shown, but the same applies to the case of inner heat insulation.

  Since the curable termite control composition is 95% by weight or more based on the total amount of the earth and sand component, the particle size is a small particle size of 1.5 mm or less, water is added to the curable termite control composition, When the kneaded product obtained by kneading is applied to the foundation of a building, even if the layer made of the curable termite control composition is thin, it prevents termite penetration and has an excellent termite control effect. Can be demonstrated.

  Next, although this invention is demonstrated based on an Example and a comparative example, this invention is not limited by the following Example.

Reference example A
360 g of KMC-113 (diisopropylnaphthalene, boiling point 300 ° C., manufactured by Kureha Chemical Industry Co., Ltd.), Alkene L (alkylbenzene, distillation range 285-309 ° C., manufactured by Nippon Petrochemical Co., Ltd.) 230 g, Disperbyk-164 (tertiary amine) 10 g of a polyester-containing polyurethane-modified high molecular weight polymer, molecular weight 10,000 to 50,000, manufactured by Big Chemie Co., Ltd.) is stirred until it becomes uniform. 400 g of clothianidin is added to the resulting mixed solution. K. The slurry A was obtained by stirring with an auto homodisper (made by Tokushu Kika Kogyo Co., Ltd.).

  The obtained slurry A was wet-ground for 20 minutes in a bead mill (Dynomill KDL A type, glass bead diameter 1.5 mm). The average particle diameter of clothianidin in the slurry A obtained at this time was 840 nm.

  Next, 31.9 g of Takenate D-140N (modified trimethylolpropane of isophorone diisocyanate, manufactured by Mitsui Takeda Chemical Co., Ltd.) was added to 112.5 g of the slurry A after wet pulverization, and the mixture was stirred until it became homogeneous. Got.

  The obtained slurry B was added to 125 g of an aqueous solution containing 1.5% by weight polyvinyl alcohol (Kuraray Poval 217, manufactured by Kuraray Co., Ltd.). K. It stirred for several minutes with the auto homomixer. The rotation speed of the mixer at this time was 5000 rpm. During the stirring, 20 g of an aqueous solution containing 4.16 g of ethylenediamine was added dropwise.

  Next, the obtained aqueous dispersion was reacted while gently stirring in a thermostat at 60 ° C. for 6 hours to obtain a termite control component A of the aqueous dispersion containing microcapsules.

  The effective concentration of the obtained termite control component A was 15% by weight, and the average particle size of the microcapsules was 25 μm.

Reference example 1
7 parts by weight of earth and sand (true sand earth) having a particle size of more than 0.5 mm and not more than 1.5 mm, 10 parts by weight of earth and sand (masa sand) having a particle size of more than 0.25 mm and not more than 0.5 mm, 15 parts by weight of earth and sand (true sand earth) having a particle size of 0.15 or more and 0.25 mm or less and 68 parts by weight of earth and sand (true sand earth) having a particle diameter of less than 0.15 mm were mixed and stirred to obtain dry earth and sand A. .

  To 100 parts by weight of the obtained dry earth and sand A, 10 parts by weight of the termite control component A (active ingredient (clothianidin) concentration 15% by weight) obtained in Reference Example A above is blended, and uniformly mixed while drying, A mixture was obtained. Further, the operation of diluting the obtained mixture with the dry earth and sand A about 10 times was repeated three times to obtain a diluted product. The active ingredient concentration of the obtained dilution was 0.0012% by weight.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water is described in JIS R _5201-1997 “Physical Test Method for Cement”. It was about 10 N / mm < ² > as a result of measuring by the compressive strength test.

Reference example 2
5 parts by weight of earth and sand (true sand earth) having a particle diameter of 0.15 mm or more and 0.25 mm or less and 95 parts by weight of earth and sand (true sand earth) having a particle diameter of less than 0.15 mm are mixed and mixed by stirring. Obtained.

  10 parts by weight of the termite control component A (active ingredient (clothianidin) concentration 15% by weight) obtained in Reference Example A above is blended with 100 parts by weight of the obtained dry earth and sand B, and mixed uniformly while drying. A mixture was obtained. Furthermore, the operation of diluting the obtained mixture about 10 times with the dry earth and sand B was repeated three times to obtain a diluted product. The active ingredient concentration of the obtained dilution was 0.0012% by weight.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference example 3
Silica sand No. 6 (silica sand consisting of silica sand having a particle size of 1 mm or less, silica sand having a particle size of more than 0.4 mm and 1 mm or less, 11% by weight, particle size of more than 0.3 mm and 0.4 mm or less And 40% by weight of silica sand having a particle size of 0.15 mm or more and 0.3 mm or less and 4% by weight of silica sand having a particle size of less than 0.15 mm.) 100 parts by weight On the other hand, 3 parts by weight of the termite controlling component A (active ingredient concentration: 15% by weight) obtained in Reference Example A was blended and mixed uniformly while drying to obtain a mixture. Further, the obtained mixture was diluted about 10 times with the above silica sand No. 6, and further diluted about 10 times with the above dry earth and sand A to obtain a diluted product. The active ingredient concentration of the obtained dilution was 0.004% by weight.

  Furthermore, 20 parts by weight of the diluted product and 80 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compression strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 18 N / mm ^2. It was.

Reference example 4
Cagalite 4M (manufactured by Kagalite Industry Co., Ltd., pumice fine granules) was passed through a sieve to obtain carrier A having a particle size of 0.15 mm or less. 10 parts by weight of the termite control component A (active ingredient concentration: 15% by weight) obtained in Reference Example A above were blended with 100 parts by weight of the obtained carrier A, and mixed uniformly while drying to obtain a mixture. .

  The obtained mixture was diluted about 10 times with earth and sand (true sand earth) having a particle size of 0.15 mm or less to obtain a termite controlling component B. Furthermore, the operation of diluting the obtained termite control component B about 10 times with earth and sand (true sand soil) having a particle size of 0.15 mm or less was repeated twice to obtain a diluted product (termite control component C). The effective concentration of the obtained termite control component C was 0.0012% by weight.

  Furthermore, termite controlling component C85 parts by weight and blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) 15 parts by weight were blended and mixed uniformly to obtain a curable termite controlling composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 5
1 part by weight of chlorfenapyr (manufactured by Wako Pure Chemical Industries, Ltd.) and 99 parts by weight of methanol were blended to prepare a methanol solution of chlorfenapyr. 4 parts by weight of the obtained chlorfenapyr methanol solution and 10 parts by weight of silica sand No. 6 were blended and mixed uniformly while drying to obtain a mixture. The active ingredient (chlorfenapyr) concentration of the obtained mixture was 0.4% by weight.

  Furthermore, 20 parts by weight of the above mixture and 80 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compression strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 18 N / mm ^2. It was.

Reference Example 6
Mix 1 part by weight of backtop MC (15% microcapsule of active ingredient bassa (including MEP and BPMC), manufactured by Sumitomo Chemical Co., Ltd.) and 19 parts by weight of the above-mentioned dry earth and sand A and uniformly while drying To obtain a mixture. The active ingredient concentration of the obtained mixture was 0.76% by weight.

  Furthermore, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 7
1 part by weight of grenade MC (2.5% microcapsule of active principle fipronil, manufactured by Sumitomo Chemical Co., Ltd.) and 10 parts by weight of the above-mentioned dry earth and sand A are mixed uniformly while drying. Got. Furthermore, the above-mentioned dry earth and sand A was mix | blended with the obtained mixture, and it diluted 12.5 times, and obtained the dilution. The effective main component concentration of the obtained dilution was 0.02% by weight.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 8
1 part by weight of Lalap MC (10% microcapsule of active ingredient ciphenothrin, manufactured by Sumitomo Chemical Co., Ltd.) and 10 parts by weight of the above-mentioned dry earth and sand A are mixed uniformly while drying to obtain a mixture. It was. Furthermore, the above-mentioned dry earth and sand A was mix | blended with the obtained mixture, and it diluted 10 times, and obtained the dilution. The active ingredient concentration of the obtained dilution was 0.1% by weight.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 9
Permethrin (manufactured by Herbert-Heinz Winkler GmbH) and 99 parts by weight of methanol were blended to prepare a methanol solution of permethrin. 1 part by weight of the obtained methanol solution of permethrin and 10 parts by weight of the above-mentioned dry earth and sand A were blended and mixed uniformly while drying to obtain a mixture. The active ingredient (permethrin) concentration of the obtained mixture was 0.1% by weight.

  Furthermore, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 10
A methanol solution of silafluophene was prepared by blending 1 part by weight of silafluophene (manufactured by Wako Pure Chemical Industries, Ltd.) and 99 parts by weight of methanol. 2 parts by weight of the obtained methanol solution of silafluophene and 10 parts by weight of the above-mentioned dry earth and sand A were blended and uniformly mixed while drying to obtain a mixture. The active ingredient (silafluophene) concentration of the obtained mixture was 0.2% by weight.

  Furthermore, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 11
1 part by weight of bifenthrin (manufactured by Wako Pure Chemical Industries, Ltd.) and 99 parts by weight of methanol were blended to prepare a methanol solution of bifenthrin. 1 part by weight of the methanol solution of bifenthrin obtained and 10 parts by weight of the dry earth and sand A were uniformly mixed while drying to obtain a mixture. Furthermore, the obtained mixture was diluted 10 times with the dry earth and sand A to obtain a diluted product. The active ingredient (bifenthrin) concentration of the obtained dilution was 0.01% by weight.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were mixed and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 12
Etofenprox (manufactured by Wako Pure Chemical Industries, Ltd.) 1 part by weight and 99 parts by weight of methanol were blended to prepare a methanol solution of etofenprox. 2 parts by weight of the obtained methanol solution of etofenprox and 10 parts by weight of the dried earth and sand A were uniformly mixed while drying to obtain a mixture. The active ingredient (ethofenprox) concentration of the obtained mixture was 0.2% by weight.

  Furthermore, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) were mixed and uniformly mixed to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Example 13
Termite control component C (diluent) 82.5 parts by weight obtained in Reference Example 4, blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) 15 parts by weight, ethylene-vinyl alcohol (EVA) resin (trade name) 2.5 parts by weight of “Sumikaflex RP-100S” (manufactured by Sumitomo Chemical Co., Ltd.) was blended and mixed uniformly to obtain a curable termite control composition blended with a resin component.

The compressive strength of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water is defined in JIS A 1171 _{: 2000} “Testing Method for Polymer Cement Mortar”. It was about 10 N / mm ^{2 as} measured by the described compressive strength test.

Example 14
The termite control component B obtained in Reference Example 4 was diluted about 3 times with earth and sand (true sand earth) having a particle size of 0.15 mm or less and mixed uniformly to obtain a diluted product. The active ingredient concentration of the obtained dilution was 0.05% by weight.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

  Next, 100 parts by weight of the obtained curable termite control composition, 6 parts by weight of an acrylic resin emulsion (trade name “Crosslen CMX-02”, manufactured by Ganz Kasei Co., Ltd.), and 15 parts by weight of water are added, and resin is added. A curable termite control composition containing an emulsion was obtained.

The obtained curable termite control composition was applied at about 300 g / m ² on the foundation rising surface under the floor of 6 tatami mats in a private house in Nara city to form a termite control layer.

Reference Example 15
After kneading 100 parts by weight of the curable termite control composition obtained in Example 14 (with no resin emulsion blended) and 20 parts by weight of water, a cube of about 1 cm was made from the kneaded product and solidified. In a 3 cm pine sapwood cube, a hole was drilled with a length of about 1 cm, a width of about 1 cm, and a depth of about 2 cm, solidified material was embedded, and the hole was plugged with pine sapwood (a cube with a side of about 1 cm).

Reference Example 16
Cagalite 4M (manufactured by Kagalite Industry Co., Ltd., pumice fine granules) was passed through a sieve to obtain carrier A having a particle size of 0.15 mm or less. An operation of diluting the obtained carrier A about 10 times with earth and sand (true sand earth) having a particle size of 0.15 mm or less, and further diluting about 10 times with earth and sand having a particle size of 0.15 mm or less (true sand earth). Repeated twice to obtain a dilution.

  Furthermore, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 17
98 parts by weight of the dilution obtained in the same manner as in Reference Example 16 and 2 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition. Obtained.

The compression strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 2 N / mm ^2. It was.

Reference Example 18
10 parts by weight of termite control component A (active ingredient (crothianidine) concentration 15% by weight) obtained in Reference Example A above is blended with 100 parts by weight of dry earth B obtained in Reference Example 2, and uniformly dried. Mixed to obtain a mixture. Furthermore, the operation of diluting the obtained mixture about 10 times with the dry earth and sand B was repeated three times to obtain a diluted product. The active ingredient concentration of the obtained dilution was 0.0012% by weight.

  Furthermore, 60 parts by weight of the diluted product and 40 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compression strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 15 N / mm ^2. It was.

Reference Example 19
85 parts by weight of the termite control agent B obtained in Reference Example 4 and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition. . The active ingredient concentration in the resulting curable termite control composition was about 0.1% by weight.

Moreover, 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water are kneaded and cured, and the compression strength (JIS R _5201-1997 ) of the cured product is about 10 N / mm ^2. Met.

Reference Example 20
50 parts by weight of the termite control agent B obtained in Reference Example 4 and 50 parts by weight of the dry earth and sand A obtained in Reference Example 1 were blended and mixed uniformly to obtain a mixture. Furthermore, 85 parts by weight of the obtained mixture and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition. The active ingredient concentration in the resulting curable termite control composition was about 0.05% by weight.

Moreover, 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water are kneaded and cured, and the compression strength (JIS R _5201-1997 ) of the cured product is about 10 N / mm ^2. Met.

Reference Example 21
20% granules of the active ingredient dinotefuran (trade name “Mike Block”, Mitsui Chemicals, Inc. (currently Mitsui Chemicals Crop Life Co., Ltd.)) are mixed with 5 parts by weight of water to obtain a suspension. It was. The obtained suspension and 84 parts by weight of the dry earth and sand were blended and mixed uniformly while drying to obtain a mixture. The active ingredient concentration of the obtained mixture was about 0.24% by weight.

  Furthermore, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

The compressive strength (JIS R _5201-1997 ) of the cured product obtained by kneading and curing 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water was about 10 N / mm ^2. It was.

Reference Example 22
50 parts by weight of the termite control agent B obtained in Reference Example 4 and 50 parts by weight of the dry earth and sand A obtained in Reference Example 1 were blended and mixed uniformly to obtain a mixture. Furthermore, 90 parts by weight of the obtained mixture and 10 parts by weight of anhydrite (trade name “New Pla Stone”, manufactured by GC Corporation) are blended and mixed uniformly to obtain a curable termite control composition. It was. The active ingredient concentration in the resulting curable termite control composition was about 0.05% by weight.

Moreover, 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water are kneaded and cured, and the compression strength (JIS R _5201-1997 ) of the cured product is about 10 N / mm ^2. Met.

Reference Example 23
50 parts by weight of the termite control agent B obtained in Reference Example 4 and 50 parts by weight of the dry earth and sand A obtained in Reference Example 1 were blended and mixed uniformly to obtain a mixture. Furthermore, 85 parts by weight of the obtained mixture and 15 parts by weight of Portland cement (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition. The active ingredient concentration in the resulting curable termite control composition was about 0.05% by weight.

Moreover, 100 parts by weight of the obtained curable termite control composition and 20 parts by weight of water are kneaded and cured, and the compression strength (JIS R _5201-1997 ) of the cured product is about 10 N / mm ^2. Met.

Comparative Example 1
30 parts by weight of soil having a particle size of 3 mm or more and 5 mm or less and 10 parts by weight of soil (true sandy soil) having a particle size of 0.15 mm or more and 0.5 mm or less were blended and stirred to obtain dry soil C.

  To 100 parts by weight of the obtained dry earth and sand C, 10 parts by weight of the termite control component A (active ingredient (clothianidin) concentration 15% by weight) obtained in Reference Example A above is blended, and mixed uniformly while drying, A mixture was obtained. Furthermore, the operation of diluting the obtained mixture about 10 times with the dry earth and sand C was repeated three times to obtain a diluted product. The active ingredient concentration of the obtained dilution was 0.0012% by weight.

  Next, 85 parts by weight of the diluted product and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

Comparative Example 2
1 part by weight of chlorfenapyr (manufactured by Wako Pure Chemical Industries, Ltd.) and 99 parts by weight of methanol were blended to prepare a methanol solution of chlorfenapyr. 4 parts by weight of the obtained methanol solution of chlorfenapyr and 10 parts by weight of the above-mentioned dry earth and sand C were blended and mixed uniformly while drying to obtain a mixture. The active ingredient (chlorfenapyr) concentration of the obtained mixture was 0.4% by weight.

  Next, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

Comparative Example 3
Takelock MC50E (active ingredient clothianidin 5%, manufactured by Nippon Enviro Chemicals Co., Ltd.) per 100 parts by weight of Kagalite No. 0 (manufactured by Kagalite Kogyo Co., Ltd., pumice fine granules, particle size of about 4.8 mm to 2.4 mm) 1 part by weight was blended, kneaded and dried to obtain a termite-controlling granule.

  The active ingredient concentration of the obtained termite control granule was 0.05% by weight.

Comparative Example 4
Chlorpyrifos (manufactured by Wako Pure Chemical Industries, Ltd.) 5 parts by weight and 95 parts by weight of methanol were blended to prepare a methanol solution of chlorpyrifos. 2 parts by weight of the obtained methanol solution of chlorpyrifos and 10 parts by weight of kagarite No. 0 (fine particles of pumice) were blended and uniformly mixed while drying to obtain a mixture. The active ingredient (chlorpyrifos) concentration in the obtained mixture was 1% by weight.

  Next, 85 parts by weight of the above mixture and 15 parts by weight of blast furnace cement type B (manufactured by Taiheiyo Cement Co., Ltd.) were blended and mixed uniformly to obtain a curable termite control composition.

Evaluation test (1) Penetration test The penetration test is a test for confirming the blocking effect in the penetration direction by the curable termite control composition. For example, penetration when the curable termite control composition is applied to the soil under the floor. The effect on the direction can be confirmed.

  FIG. 4 is a perspective view showing a test apparatus used for the penetration test.

  In the test apparatus shown in FIG. 4, untreated hydrated siliceous sand (water content 10% by weight) is spread in a petri dish 9 having a diameter of 9 cm to form a hydrated siliceous sand layer 2 having a thickness of 1 cm. A cylinder 3 having an inner diameter of about 3.5 cm and a height of 9 cm was installed at the center of the silica sand layer 2. Further, untreated silica sand was spread inside the cylinder 3 to form a silica sand layer 4 having a thickness of 3 cm.

  On the other hand, 100 parts by weight of the curable termite control composition of Reference Example 1 and 20 parts by weight of water were mixed and kneaded (test sample) on the silica sand layer 4 in the cylinder 3 with a thickness of 1 cm, The sample layer 5 was formed by curing. Furthermore, a pine bait tree (untreated test piece) 6 having a lip of 1 cm × 1 cm and a length of 2 cm was placed on the test sample layer 5.

  Thereafter, 150 ant termite ants and 15 soldier ants were released on the untreated hydrous siliceous layer 2 between the petri dish 1 and the cylinder 3. After the release, it was observed for 3 weeks whether the termites 7 could penetrate the siliceous sand layer 4 and the test sample layer 5 in the cylinder 3 and reach the feeding tree 6.

  Further, the curable termite control compositions of Reference Examples 2 to 12, Example 13, Reference Examples 16 to 23 and Comparative Examples 1 and 2 were also provided in the same manner as when the termite control composition of Reference Example 1 was used. The test sample layer 5 was formed, and whether or not the test sample layer 5 could penetrate was observed in the same manner as described above.

Further, as a control, the following mixtures A to C were respectively spread on the silica sand layer 4 in the cylinder 3 to a thickness of 1 cm to form a test sample layer 5, and the termite control composition of Reference Example 1 was used. In the same manner as in the case of using, the possibility of penetration of the test sample layer 5 by termites was observed.
Mixture A: A mixture of 85 parts by weight of the above-mentioned dry earth and sand C and 15 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) and mixed uniformly.
Mixture B: 1 part by weight of calcium hydroxide and silica sand No. 6 (comprising silica sand having a particle size of 1 mm or less, 11% by weight of silica sand having a particle size of more than 0.4 mm and 1 mm or less, and a particle size of 0 45% by weight of silica sand that exceeds 3 mm and is 0.4 mm or less, 40% by weight of silica sand with a particle size of 0.15 mm or more and 0.3 mm or less, and 4% by weight of silica sand with a particle size of less than 0.15 mm In which the water content is adjusted to 10% by weight.
Mixture C: Mixture prepared by adding 20 parts by weight of water to 100 parts by weight of instant cement (manufactured by Osaka Sunhome Co., Ltd.) (compressive strength (JIS R _5201-1997 ) about 28 N / mm ² ).

  As yet another control, the following test specimen was installed in place of the cylinder 3 (see FIG. 4), and a penetration test was conducted in the same manner as when the termite control composition of Reference Example 1 was used. The possibility of penetration was observed.

First, a 1.5 cm square cube was cut out from a precast unreinforced concrete flat plate (compression strength> 30 N / mm ² ) described in JIS A 5371 _{: 2004} “Precast Unreinforced Concrete Products”. An acrylic plate was bonded to the side surface so that no gap was generated. The acrylic plate was bonded to the cube so that it protruded 3 cm on the bottom side and 1 cm on the top side. Furthermore, untreated hydrous siliceous sand was packed into the portion (width and depth: 1.5 cm each, height: 3 cm space) where the acrylic plate protruded from the bottom side of the cube to obtain a test specimen. In addition, in the portion where the acrylic plate protrudes on the top side of the cube (width and depth: 1.5 cm each, height: 3 cm space), a pine feeding tree with a lip of 1 cm × 1 cm and a length of 2 cm ( An untreated test piece) was installed.

  As a result of the above observation, in Reference Examples 1 to 4 and 18 to 23, termites all fell after one day from the release of the insects, and then died. Moreover, in Reference Example 5, about 20% of termites fell after one day from the release of insects, and then died. Further, in any of Reference Examples 1 to 12, Example 13 and Reference Examples 18 to 21, penetration of the test sample layer 5 was not observed during the period from the release to 3 weeks.

  In Reference Examples 16 and 17, although the test sample layer 5 was not penetrated, several mm perforations were observed. However, in both Reference Examples 16 and 17, all termites died one week after the release.

  In contrast, in Comparative Example 1, about 15% of termites were healthy after one day, and in Comparative Example 2, all of the termites were healthy.

In the above control, when the mixture A was used, several mm perforation was observed in the test sample layer 5, and the effect of termite control was slow, and even after 3 weeks, about 80 %Met. When the mixture B was used, penetration was observed in the test sample layer 5 on the day after the start of the test, and even after 3 weeks, the termites were all healthy within the range in which the appearance could be observed. When the mixture C was used, no perforation was observed in the sample layer 5 (compressive strength: about 28 N / mm ² ), and even after 3 weeks, the termites were healthy in the range where they could be observed by appearance. there were.

In addition, in the other control, no perforation of the cube (compressive strength of about> 30 N / mm ² ) was observed, and even after 3 weeks, the termites were healthy in the range where they could be observed by appearance. .

  From these test results, by setting the hardness of the test sample layer and the particle size of the earth and sand component in the curable termite control composition forming the test sample layer to a range suitable for termites to harm, It was found that a certain termite control effect was obtained.

  In addition, it penetrated similarly to the case where the termite control composition of Reference Example 1 was used except that the test sample layer 5 was formed using only untreated silica sand instead of the curable termite control composition. When the test was performed, it was observed that the termites 7 reached the pine feed tree (untreated test piece) 6 one day after the release.

(2) Scooping-up test The scooping-up test is a test that can confirm the effectiveness on the surface on which the termite control agent has been applied. it can.

  FIG. 5 is a front view showing the test apparatus used in the scooping test.

  In the test apparatus shown in FIG. 5, an untreated hydrous sand (water content: 10% by weight) is spread on a polycup (inner capacity: 500 mL) 10 having a bottom diameter of about 8 cm, and a hydrous siliceous layer 11 having a thickness of 3 cm. A concrete block 12 having a rectangular parallelepiped (bottom surface 30 mm square, height 60 mm) was placed in the center of the obtained hydrous siliceous layer 11. On the side surface of the concrete block 12, in the region of width 50 mm from the edge on the top surface side to the bottom surface side, the above Reference Examples 1 to 12, Example 13, Reference Examples 18 to 23 and Comparative Examples 1, 2, and 4 The obtained curable termite control composition was applied to form mortar 13.

  The curable termite control composition was applied to the side surface of the concrete block 12 after blending 20 parts by weight of water with 100 parts by weight of the curable termite control composition and after 2 hours with occasional stirring. Moreover, after application | coating, after storing the concrete block 12 at 40 degreeC for 2 weeks, it used for the scooping up test.

The coating amount of the curable termite control composition was adjusted to be 300 g / m ² . Moreover, in the side surface of the concrete block 12, about 10 mm in width | variety from the edge of the bottom face side to the top | upper surface side, in order to prevent a termite prevention component etc. eluting to the hydrated siliceous sand layer 11, it did not process. .

  After the concrete block 12 was installed at the center of the hydrous siliceous layer 11, two pine feeding trees 14 having a tip of 1 cm × 1 cm and a length of 2 cm were arranged on the concrete block 12.

  Next, 100 ants of termites were released on the hydrous siliceous layer 11 and the opening of the polycup 10 was sealed with a wrap. After the release, the behavior of the termite 7 was observed all day and night. Moreover, the behavior of the termite 7 after 3 weeks from the release was observed.

  In this test, for several hours after the start of the test, it was observed that the termite 7 was surprised by the environmental change and climbed up the side of the concrete block 12 to reach the bait 14. However, when one day passed, the behavior of the termite 7 was settled, and as a result, the influence by the curable termite control composition (mortar 13) became observable.

  The results of the scooping test are shown in Table 1.

  In Table 1, “moving” indicates that termites go back and forth (up and down) between the hydrous siliceous layer 11 and the bait tree 14 through the surface of the concrete block 12. “Non-treatment” indicates a case where the curable termite control composition was not applied to the side surface of the concrete block 12 (the mortar 13 was not formed).

(3) Construction test Termite habitats (eg, the first and second floors of a building, places where there is a risk of termite damage such as underground, and termite nests and ant roads other than buildings). A construction test was conducted as a target.

  The construction site is not particularly limited as long as it is a place where termites are generated or a place where there is a possibility of occurrence, but as a place where it is likely to occur, for example, a foundation structure part of a building (for example, heat insulating material, concrete crack, etc. Gaps, for example, heat insulating materials in walls, for example, xylem that forms the foundation part of the foundation, for example, xylem that forms the underfloor, such as oiki, jota, floor bundles, rooting, such as door frames, pillars , Xylem that constitutes living space such as closet, for example, timber that constitutes ceiling such as trunk difference, two-storied floor, for example, xylem that constitutes the back of a hut such as a shed, haze, etc. Eaves, window frames, entrances, kitchens, etc., which are partly or entirely exposed to the outside, etc.), for example, underground structures of buildings (for example, timbers, cracks in concrete) For example, underground as ancillary equipment for buildings設物 (e.g., wire and cable, such as a gas pipe underground installations) include, for example, garden stump.

Construction test 1
90 parts by weight of the above-mentioned dry earth and sand A and 10 parts by weight of Blast Furnace Cement Type B (manufactured by Taiheiyo Cement Co., Ltd.) were mixed, and termite control agents (Takelock MC50E, Nippon Environment Chemicals Co., Ltd.) 2) parts by weight were blended. Next, the obtained curable termite control composition and 18 parts by weight of water were blended and kneaded.

  Next, a penetration test was performed in the same manner as in the above (1) except that the kneaded material thus obtained was used as a test sample.

  Further, a scooping test was performed in the same manner as in the above (2) except that the kneaded material was applied to the side surface of the concrete block 12 to form the mortar 13.

  As a result, in both the penetration test and the scooping test, after one day from the termite release, all of the heads had fallen and then died. Further, in the penetration test, no perforation of the kneaded material layer by termites was observed.

Construction test 2
90 parts by weight of the dry earth and sand A and 10 parts by weight of blast furnace cement B type (manufactured by Taiheiyo Cement Co., Ltd.) were mixed, and the resulting curable termite control composition was subjected to the penetration test of (1) above.

  Then, 20 parts by weight of a termite control agent (Takelock MC50E) diluted 50 times with water is applied to 100 parts by weight of the sample layer 5 from above the sample layer 5 in the cylinder 3. Furthermore, the behavior of termites was observed. The test sample layer 5 was solidified.

  As a result, one day after the termite was introduced, all the termites fell and then died. Moreover, no perforation of the test sample layer 5 by termites was observed.

  According to the construction tests 1 and 2, it was confirmed that a sufficient effect of termite control can be obtained even when a termite control component is blended in the mortar construction site.

Construction test 3
As shown in FIG. 6 (a) and FIG. 6 (b), of one surface (10cm square) of a concrete block (cuboid with a thickness of 3cm, a width of 10cm, and a height of 10cm) 30, the height from the bottom surface side is about An adhesive (Super X, manufactured by Cemedine Co., Ltd.) 31 was applied at a distance of 5 cm from each end of the concrete block 30 with a length of 2 cm and a width of 1 cm. Then, the concrete block 30 and a heat insulating material 32 (Kanelite Foam FI, manufactured by Kaneka Corporation) having the same size as the concrete block 30 were bonded with the adhesive 31 interposed therebetween. At this time, a gap 33 of 0.5 mm was generated between the heat insulating material 32 and the concrete block 30. The adhesive consisting of the concrete block 30 and the heat insulating material 32 is a 2 mm acrylic plate so that there is no gap on the surface (excluding the surface of the heat insulating material 32 that faces the bonding surface with the concrete block 30). 34 was adhered.

  In addition, on the surface side of the heat insulating material 32 facing the bonding surface with the concrete block 30, the side surface is so that the upper part protrudes 1 cm from the bottom part, and the bottom part protrudes 3 cm to the heat insulating material side. The acrylic plate 34 was bonded so that the bottom on the heat insulating material side protruded at a height of 3 cm and a width of 3 cm, and further the upper portion protruded by 1 cm. The acrylic plate 34 was bonded to the portion that protruded from the front surface of the portion that protruded from the bottom and side surfaces of the lower portion. An untreated hydrated siliceous sand (water content 10 wt%) 35 was spread over the part that protruded over the entire surface.

  Next, 5 g of the curable termite control composition obtained in Reference Example 4 was sprayed from the upper part of the gap 33 between the heat insulating material 32 and the concrete block 30, and water was sprayed to such an extent that it was moistened from above. The curable termite control composition was then solidified.

  Furthermore, when 300 state ants are released on the untreated hydrous silicic sand 35 and the state is observed, the termites damage the heat insulating material 32 through a gap of 2 mm below the heat insulating material 32.

  Further, in place of the curable termite control composition obtained in Reference Example 4, 5 g each of the curable termite control composition obtained in Comparative Example 1 and the termite control granule obtained in Comparative Example 3 were used. In the same manner as above, the state of the termites was observed.

  As a result, when the curable termite control composition of Reference Example 4 was used, the termites fell 100% after 1 day, and the death of all the termites was observed after 2 days.

  On the other hand, when the curable termite control composition of Comparative Example 1 was used, the termites fell about 20% after 1 day, and about 70% fell after 3 days. During this time, damage to the heat insulating material 32 was observed. One week later, all animals died.

  In addition, when the termite control granule of Comparative Example 3 was used, the fall of the termite was not observed after one day, the damage of the heat insulating material 32 progressed, and the termite that reached the top of the heat insulating material 32 was observed. It was. One week later, the fall of termites was observed, and after 10 days, all deaths were observed.

  From the above results, it was observed that in the case of the gaps as described above, higher efficacy was obtained with the powdery preparation. Moreover, it was suggested that the longer the time until the tipping over, the more the damage to the heat insulating material proceeds and the function as the heat insulating material may be impaired.

Construction test 4
The double foundation by renovation tends to cause gaps and tends to be an entry route for termites. In addition, gaps such as cracks that occur in underfloor concrete, including gaps in double foundations, are not attacked by external enemies and require less labor for building ant roads.

  As shown in FIG. 7, two concrete blocks (a rectangular parallelepiped having a thickness of 3 cm, a width of 10 cm, and a height of 10 cm) 40 were provided with a gap 41 having a width of 1 mm. Next, 5 g of each curable termite control composition obtained in Reference Example 4 was sprayed from above the gap 41.

  Also, the curable termite control composition obtained in Comparative Example 1, the termite control granule obtained in Comparative Example 3, the carrier A described in Reference Example 4, and 5 g of water, respectively, Similarly, it sprayed in the clearance gap 41 between a pair of concrete blocks 40. FIG.

  After spraying, the pair of concrete blocks 40 were turned over, one concrete block 40 was removed, and the sprayed state was observed.

  As a result, as shown in FIG. 8A, it was observed in Reference Example 4 that the curable termite control composition 42 was uniformly treated in the gap 41.

  On the other hand, in Comparative Example 1, as shown in FIG. 8B, the large particles 43 became an obstacle, and the amount of the termite control composition 42 in the gap 41 was small.

  Moreover, in the comparative example 3, as shown in FIG.8 (c), the termite control composition was not observed in the clearance gap 41. FIG. The carrier A was treated uniformly as in Reference Example 4 (see FIG. 8A). Since the amount of water 44 absorbed by the upper part of the concrete block 40 is large, the water 44 is only allowed to sag and cannot be uniformly treated (see FIG. 8D).

Construction test 5
The test sample (a pair of concrete blocks 40) in which the reference example 4 and the carrier A were processed in the gap in the construction test 4 was placed on the tray as it was, and the condition was 1 under the conditions of humidity 100% RH and temperature 28 ° C. Stored for months. One month later, when the sample was lifted from the tray, as shown in FIG. 9, it was observed that a large amount of the processed material 45 spilled from the adhesion surface of the specimen (concrete block 40) treated with the carrier A. On the other hand, in Reference Example 4, no spilling state was observed, and a state in which a uniform treatment layer was formed while remaining solidified in the gap was observed. This means that even if the space is opened by other organisms such as moles under the treatment construction surface, the soil is washed away by infiltration of groundwater or rainwater, the space is opened, or the gap is opened by an earthquake, etc. Although the treatment layer is not lost, it shows that the preparation layer that does not solidify may collapse and dissipate.

  From the construction tests 3, 4 and 5, it was confirmed that in a narrow space such as a gap, a preparation having a fine particle size and solidifying can be expected to have a clearly higher effect than a preparation having a large particle size or a preparation that does not solidify. .

Construction test 6
An untreated hydrated siliceous sand (water content 10% by weight) is spread on a polycup 10 (with an inner volume of 500 mL) having a bottom diameter of about 8 cm to form a 3 cm thick hydrated siliceous sand layer. The test body obtained in Reference Example 15 was placed in the center of the sand layer.

  Next, 200 termite ants were fired on the hydrous siliceous layer, and the opening of the polycup 10 was sealed with a wrap. After the release, termite behavior was observed. For comparison, the same type of untreated pine sapwood was tested in the same manner.

  As a result, in the observation after 2 weeks, in the test sample of Reference Example 15, a hole was formed in the part until reaching the drug, but all termite deaths were observed. In the untreated specimen, all termites were healthy. That is, even when the curable termite control composition was embedded in the object to be treated, it was confirmed that if the termites contact the solidified product of the curable termite control composition, the extermination effect is recognized.

Construction test 7
A heat insulating material (Kanelite Foam FI, manufactured by Kaneka Co., Ltd.) was cut into 3 cm squares, and a kneaded product of 100 parts by weight of the curable termite control composition obtained in Reference Example 4 and 20 parts by weight of water was obtained. , And coated at a rate of 200 g / m ² and dried.

  Subsequently, this was installed instead of the test body obtained in Reference Example 15 in the construction test 6, and the test was performed in the same manner as in the construction test 6.

  As a result, the fall of all termites was observed 1 day after the start of the test, and the death of all heads was observed 2 days later. Further, no appearance of the treatment layer being perforated was observed.

Construction test 8
A heat insulating material (Kanelite Foam FI, manufactured by Kaneka Corporation) was cut into a length of 5 cm, a width of 5 cm, and a height of 40 cm, and on its surface, 100 parts by weight of the curable termite control composition obtained in Reference Example 4, A kneaded product with 20 parts by weight of water was applied at a rate of 3 kg / m ² and dried to obtain a test specimen.

  Next, an untreated hydrated silica (water content: 10% by weight) is spread in a plastic container having a bottom surface of about 14 cm × 18 cm and a height of about 45 cm to form a hydrated silica layer having a thickness of 5 cm. In the center of the silica sand layer, the test specimen was placed 3 cm in an embedded manner. On the test body, a 3 cm square untreated pine was placed as a feeding tree.

  On the next day, 500 termite ants were released on the hydrous siliceous layer, and the whole was covered so as not to be exposed to wind, and the behavior of termites was observed.

  As a result, the fall of all termites was observed 1 day after the release, and the death of all heads was observed 2 days later. No appearance of perforating the treatment layer was observed. In addition, reaching to prey was not recognized.

Construction test 9
A cedar sapwood is cut into 3 cm square, and a kneaded mixture of 100 parts by weight of the curable termite control composition obtained in Reference Example 4 and 20 parts by weight of water is applied thereto at a rate of ² kg / m ^2. Worked and dried to obtain a specimen.

  Subsequently, this test body was installed instead of the test body obtained in Reference Example 15 in the construction test 6, and the test was performed in the same manner as the construction test 6.

  As a result, the fall of all termites was observed 1 day after the start of the test, and all deaths were observed 2 days later. No appearance of perforating the treatment layer was observed.

Construction test 10
Using a drill with a blade diameter of 8 mm, a cedar sap cut into a 3 cm square was drilled with a depth of about 1.5 cm, and 100 parts by weight of the curable termite control composition obtained in Reference Example 4 was formed in the hole. Then, a kneaded product with 20 parts by weight of water was injected to obtain a test specimen.

  Subsequently, this test body was installed instead of the test body obtained in Reference Example 15 in the construction test 6, and the test was performed in the same manner as the construction test 6.

  As a result, the fall of all termites was observed 1 day after the start of the test, and the death of all heads was observed 3 days later.

Construction test 11
Two 2 cm square concrete blocks were installed with a 1.5 mm gap assuming a concrete crack, and 100 parts by weight of the curable termite control composition obtained in Reference Example 4 and water were placed in the gap. A kneaded product with 20 parts by weight was poured and solidified to obtain a test specimen.

  Subsequently, this test body was installed instead of the test body obtained in Reference Example 15 in the construction test 6, and the test was performed in the same manner as the construction test 6.

  As a result, the fall of all termites was observed 1 day after the start of the test, and the death of all heads was observed 3 days later.

Construction test 12
Using a drill with a blade diameter of 8 mm, a hole with a depth of about 1.5 cm was made in a cedar sap cut into a 3 cm square, and the curable termite control composition obtained in Reference Example 4 was injected into the hole. Further, water was sprinkled from above and solidified to obtain a test specimen.

  Subsequently, this test body was installed instead of the test body obtained in Reference Example 15 in the construction test 6, and the test was performed in the same manner as the construction test 6.

  As a result, the fall of all termites was observed 1 day after the start of the test, and the death of all heads was observed 3 days later.

Construction test 13
The curable termite control composition obtained in Reference Example 4 was sprayed at a rate of ² kg / m ^{2 on} the upper surface of the cedar sap cut into 3 cm square, and further watered from above to solidify. Further, the other five surfaces of the cedar sap were similarly sprayed with the curable termite control composition and solidified by watering to obtain a test specimen.

  Subsequently, this test body was installed instead of the test body obtained in Reference Example 15 in the construction test 6, and the test was performed in the same manner as the construction test 6.

  As a result, the fall of all termites was observed 1 day after the start of the test, and all deaths were observed 2 days later.

Construction test 14
A kneaded product of 100 parts by weight of the curable termite control composition obtained in Reference Example 1 and 20 parts by weight of water on the upper surface of the untreated specimen subjected to the damage by termites after two weeks in the construction test 6. Was applied at a rate of ² kg / m ² .

  As a result, it was observed that termites that were healthy until 2 weeks after the start of the construction test 6 died 2 days after the application of the kneaded product, and were able to be exterminated. The curable termite control composition was found to be cured after one day.

Construction test 15
After 2 weeks in the construction test 6, an untreated specimen that had been damaged by termites was taken out, and 10 g of the curable termite control composition obtained in Reference Example 1 was sprayed over the specimen.

  As a result, it was observed that termites that were healthy until 2 weeks after the start of the construction test 6 were all dead after 2 days from the application of the curable termite control composition. It was. The curable termite control composition was found to be cured after one day.

Construction test 16
A heat insulating material (Kanelite Foam FI, manufactured by Kaneka Co., Ltd.) is cut into a 3 cm square, and this is used as a test specimen, which is installed in place of the untreated specimen in the construction test 6 and tested in the same manner as the construction test 6. Went.

  As a result, it was observed that termites were healthy and the damage to the heat insulating material was progressing even after 2 weeks.

Furthermore, a kneaded product of 100 parts by weight of the curable termite control composition obtained in Reference Example 4 and 20 parts by weight of water was applied to the upper surface from the top of the test body at a rate of 5 kg / m ² .

  As a result, it was observed that the termites that were healthy until 2 weeks after the start of the test were all dead after 2 days from the application of the kneaded product, and could be controlled. The curable termite control composition was found to be cured after one day.

Construction test 17
A heat insulating material (Kanelite Foam FI, manufactured by Kaneka Co., Ltd.) is cut into a 3 cm square, and this is used as a test specimen, which is installed in place of the untreated specimen in the construction test 6 and tested in the same manner as the construction test 6. Went.

  As a result, it was observed that termites were healthy and the damage to the heat insulating material was progressing even after 2 weeks.

  Furthermore, 10 g of the curable termite control composition obtained in Reference Example 4 was sprayed from above the test specimen.

  As a result, it was observed that the termites that were healthy until 2 weeks after the start of the test were all dead after 2 days from the spraying of the kneaded product, and were able to be exterminated. The curable termite control composition was found to be cured after one day.

Construction test 18
In the scooping test of (2) above, an untreated concrete block was tested using a total of 1000 craft ants, with 900 craft craftsmen added to 100 termite craft ants.

  As a result, an ant road was constructed on the wall of the concrete block one week after the start of the test. Furthermore, it was left to stand for 2 weeks and it was confirmed that termites were healthy.

  Therefore, the ant road was broken over a height of 1 cm, and 1 g of the curable termite control composition obtained in Reference Example 19 was sprayed into the ant road.

  As a result, all the termites that were healthy until 3 weeks after the start of the test were observed dead 2 days after the application of the curable termite control composition, and they were exterminated by construction in the ant canal. I was able to. The curable termite control composition was found to be cured after one day.

Construction test 19
A climbing test was conducted in the same manner as the construction test 18, and an ant road was constructed on the wall surface of the concrete block. Next, this ant road was destroyed over a height of 1 cm, and a kneaded mixture of 100 parts by weight of the curable termite control composition obtained in Reference Example 19 and 20 parts by weight of water was obtained in the part thus destroyed. The coating was performed at a rate of 5 kg / m ² .

  As a result, termites that were healthy until 3 weeks after the start of the construction test 19 all fell down after 2 days from the application of the kneaded product, and all heads were observed dead after 3 days. Exterminate by construction. The curable termite control composition was found to be cured after one day.

Construction test 20
Yamato termites collected in Osaka Prefecture are bred using pine as a feeding tree in a plastic bucket with a capacity of 10L, and it is confirmed that a nest containing eggs, larvae, craft ants, soldier ants, and reproductive worms is formed. did.

  Next, 10 g of the curable termite control composition obtained in Reference Example 19 was sprayed into the above-mentioned termite nests, and the state was observed.

  As a result, after 2 weeks, it was observed that all the white termites had died, and they could be exterminated. In addition, hardening was recognized by the curable termite control composition at the time of observation after 2 weeks.

Construction test 21
In the same manner as in the construction test 20, a Yamato termite nest was formed in a plastic bucket.

Next, a kneaded mixture of 100 parts by weight of the curable termite control composition obtained in Reference Example 19 and 20 parts by weight of water in a Yamato termite nest at a rate of 10 kg / m ² over a range of 20 cm ² . Coated.

  As a result, two weeks after the start of the test, it was observed that all termites had died, and they could be exterminated. In addition, hardening was recognized by the curable termite control composition at the time of observation after 2 weeks.

Construction test 22
It is also expected that termites will be damaged by underground cables such as electric cables and gas pipes.

  A PVC pipe having a diameter of about 3 cm was cut to a length of 10 cm, and pine bait was filled in the pipe, and the specimen was covered with a wrap to obtain a test specimen. Around this test specimen, silica sand No. 6 having a water content of 10% by weight was attached so as to have a thickness of about 3 cm, and the curable termite control composition obtained in Reference Example 19 was further provided therearound. A treatment layer was formed by spraying at a thickness of 2 mm. Moreover, the above-mentioned test body was placed in a container of about 13 cm × 20 cm × 15 cm, in which silica sand No. 6 was spread with a thickness of 1 cm, and the surroundings were filled with silica sand No. 6. The thickness of the upper silica sand was about 1 cm. From this siliceous sand, 500 termite ants were put in and observed.

  As a result, all the termite deaths were observed one week after the start of the test. Moreover, penetration by termites in the treated layer was not observed.

Construction test 23
In the construction test 22, instead of spraying the curable termite control composition obtained in Reference Example 19 as it is, 100 parts by weight of the curable termite control composition obtained in Reference Example 19 and 20 parts by weight of water The test was conducted in the same manner as the construction test 22 except that the kneaded product was applied at a rate of 10 kg / m ² .

  As a result, all the termite deaths were observed one week after the start of the test. Moreover, the penetration by the termite of the coating layer (treatment layer) by the kneaded material was not recognized.

Construction test 24
In Nara Prefecture, water was sprayed over the width of 30 cm at a rate of 1 L / m ² under the floor between 6 tatami mats on the 1st floor of a wooden house. From that, the curable termite obtained in Reference Example 19 was used. The control composition was sprayed at a width of 5 cm and a height of the basic rising part of 3 cm (about 60 kg / m ² ).

In addition, 100% by weight of the curable termite control composition obtained in Reference Example 19 and 20 parts by weight of water sprayed under the same floor of another 6 tatami mats on the first floor of the same wooden house in the same manner as described above. The kneaded product was applied with a width of 5 cm and a height of the basic rising portion of 1 cm (20 kg / m ² ).

Construction test 25
In Nara Prefecture, the adhesive and compound based on latex-emulsion resin (synthetic rubber latex and water-based resin (acrylic resin emulsion, etc.), under the floor of 6 tatami mats on the first floor of a wooden house “Crosslen CMX-02” (manufactured by Ganz Kasei Co., Ltd.) was sprayed over a width of 30 cm at a rate of 50 g / m ² .

Next, after one day has elapsed since the application, as shown in FIG. 10, the curable termite control composition 53 obtained in Reference Example 20 is applied to the surface of the soil concrete 51 and the foundation body 52 to which the adhesive / compound is applied. width _{w 1} is 10 cm, the height _{h 1} of the basic rising portion is spread so that 2 cm (about 20 kg ^{/ m} 2), further thereon, were sprayed with water.

In addition, 100% by weight of the curable termite control composition obtained in Reference Example 19 and 20 parts by weight of water sprayed under the same floor of another 6 tatami mats on the first floor of the same wooden house in the same manner as described above. The kneaded material was applied so that the width w ₁ was 10 cm and the height h ₁ of the basic rising portion was 2 cm.

Construction test 26
In Nara Prefecture, a dispersion containing 2 parts by weight of a termite control agent (Takelock MC50E, manufactured by Nippon Enviro Chemicals Co., Ltd.) and 48 parts by weight of water on the foundation rising part under the 4 tatami mats on the first floor of a wooden house. Was sprayed over a width of 30 cm at a rate of 1 L / m ² .

Next, as shown in FIG. 11, the curable termite control composition 53 obtained in Reference Example 20 is applied to the surface of the soil concrete 51 and the foundation main body 52 to which the adhesive / compound is applied, the width w ₂ is 5 cm, Scattering was performed so that the height h ₂ of the base rising portion was 2 cm (about 20 kg / m ² ).

Also, a termite control agent was sprayed under the floor of another 6 tatami mats on the first floor of the same wooden house in the same manner as described above, 100 parts by weight of the curable termite control composition obtained in Reference Example 19, and water The kneaded product with 20 parts by weight was coated such that the width w ₂ was 5 cm and the height h ₂ of the basic rising portion was 2 cm.

Construction test 27
Under Osaka Prefecture, two concrete blocks were stacked on the concrete road surface (height approximately 38cm), and this was considered as the foundation of the building, and a 9cm square timber was installed on the concrete block. I used this as the foundation of the building.

  Next, 100 parts by weight of the curable termite control composition obtained in Reference Example 19 and about 25 parts by weight of water were blended, and after kneading, the obtained kneaded product was sprayed with a sprayer (manufactured by Yusei Kenki). (TS-002 type)), and a discharge of about 2L / min from a hose with an inner diameter of 19mm and a length of 10m, the rising part of the foundation (concrete block) (boundary part with the installation surface (concrete road surface)) On the other hand, the kneaded material was sprayed so that the width was 5 cm and the height of the base rising portion was 3 cm. In addition, in the hose of the spreader, “noro” (cement dispersed in water) was pre-flowed in order to improve wetting.

  On the other hand, a spray gun (“TPG-19S type” manufactured by Yusei Kenki Co., Ltd.) is connected to the tip of the hose, and further, an air compressor (“0.750P-8. 5SA6 type ") was connected, and spray coating of the curable termite control composition obtained in Reference Example 19 was performed.

Spray coating is a curable termite control composition on the surface of two concrete blocks (foundation of the building) and 9 cm square wood (building foundation) installed on the concrete road surface in the same manner as above. The coating amount was adjusted to be about 3 kg / m ² .

Construction test 28
Under Osaka Prefecture, concrete blocks (thickness 5 cm, width 25 cm, height 20 cm) were installed on the concrete road surface with a gap of about 1.5 mm, and this was regarded as a double foundation of the building.

  Next, spray coating of the curable termite control composition obtained in Reference Example 19 was performed on the gaps between the concrete blocks with the same spray gun used in the construction test 27.

  After coating, when observing the coating state in the gaps between the concrete blocks, the opposing surfaces of the concrete blocks arranged to face the gaps are respectively curable termite control agents over the entire surface. It was confirmed that was attached.

Construction test 29
Under Osaka Prefecture, two concrete blocks were stacked on the concrete road surface (height approximately 38cm), and this was considered as the foundation of the building, and a 9cm square timber was installed on the concrete block. I used this as the foundation of the building.

  100 parts by weight of the curable termite control agent obtained in Reference Example 20, 8 parts by weight of an acrylic resin emulsion (trade name “Crosslen CMX-02”, manufactured by Ganz Kasei Co., Ltd.), and 13 parts by weight of water are blended. And kneading to obtain a curable termite control composition containing a resin emulsion.

  Next, the above-mentioned curable termite control composition was applied to an architectural spray gun device (Lissing gun, model “Me-E SUN, Otsuka Brush Manufacturing Co., Ltd.”) to which an air compressor (“0.7550P-8.5SA6 type” manufactured by HITACHI) was connected. (Made by Co., Ltd.) and spray coating was performed.

Spray coating is performed by spraying the curable termite control composition (in which a resin emulsion is blended) on the surface of the two steps of the concrete block (pseudo foundation) and the wood (pseudo base), The spraying amount (coating amount) of the curable termite control composition was adjusted to about 3 kg / m ² .

  In addition, although the said invention was provided as embodiment of illustration of this invention, this is only a mere illustration and must not be interpreted limitedly. Variations of the invention apparent to those skilled in the art are intended to be included within the scope of the claims.

  The curable termite control composition of the present invention can be widely used for sites that control termite damage (for example, sites where termites may invade or sites where termite damage actually occurs). it can. Specifically, the curable termite control composition of the present invention includes, for example, a foundation structure part, an upper structure part and an underground structure part in a building, an underground buried object as an auxiliary facility of the building, a ground surface, and a termite inhabiting / occurrence area For example, it can be suitably used for termite control.

  In addition, the termite control method of the present invention is suitable for use at sites that widely control termite damage.

Claims (4)

A curable termite control composition comprising a hydraulic component and a sediment component, wherein the weight ratio of the sediment component having a particle size of 1.5 mm or less to the total amount of the sediment component is 95% by weight or more;
A kneaded product obtained by kneading a liquid containing a polymer. Compressive strength of the cured product obtained by curing the kneaded product of the curable termite controlling composition and water, characterized in that it is a 1~20N / mm ^2, the kneaded product of claim 1.   A curable termite comprising a hydraulic component, a sediment component, and a resin, wherein a weight ratio of a sediment component having a particle size of 1.5 mm or less to a total amount of the sediment component is 95% by weight or more. Control composition. Compressive strength of the hardenable termite-controlling composition and the kneaded product cured product obtained by curing with water, characterized in that it is a 1~20N / mm ^2, curable termite control according to claim 3 Composition.

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