JP2009221722A - Slope greening support member and slope greening method - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a slope greening support member and a slope greening method reducing the number of materials and construction man-hours by further improving a conventional slope greening method. <P>SOLUTION: The slope seeding and planting support members 1 each composed of lump bodies 11 of foam glass having open cells, and a cylindrical cage 10 filled with the lump bodies 11 of foam glass, are arranged in shelf shape or zigzag on the ground 2, and a lath wire netting 4 is stretched in a state of covering the ground 2 and the slope greening support members 1. Further, a soil dressing layer 7 is formed to cover the slope greening members 1. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

  The present invention relates to a support member for slope revegetation and a slope replanting method for constructing a slope where plants can grow on slopes such as mountainous areas and slopes of newly constructed land.

  On sloped ground such as mountainous areas or newly developed land, slope planting work is being carried out for the purpose of improving the landscape. In such slope revegetation work, conventionally, a construction method is adopted in which an auxiliary member for preventing sediment collapse or a net is fixed to the ground surface, and a guest soil layer is formed thereon. In addition, various auxiliary members and nets have been developed for use in such slope planting work.

  Examples of conventional slope greening techniques are disclosed in Patent Documents 1 and 2, for example. In the slope revegetation method disclosed in Patent Document 1, a vegetation bag filled with mixed soil in a vegetation bag through which seedling roots can penetrate is fixed on a soil retaining stopper fixed on the construction surface. A greening slope is constructed by planting saplings in the bag. Further, in the slope revegetation method disclosed in Patent Document 2, a plurality of fences are connected and fixed on the slope to form a plurality of weirs, and the upper part of these weirs is covered with a mesh body, A greening slope is constructed by forming a root layer by applying soil including fertilizer and plant seeds on it.

  Further, as another slope greening method, there is a slope greening method disclosed in Patent Document 3 proposed by the present inventor. In this slope revegetation method, support members made of wood are arranged in a shelf or staggered pattern on the ground, and a foamed glass lump having open cells is laid between the ground and the support member for support. A soil layer covering the member and the lump is formed. According to this slope greening method, the support member made of wood has appropriate water absorption and water retention, and the lump of foamed glass has a large number of open cells. The support members are arranged in a shelf or staggered pattern on the ground, and a lump is laid between the ground and the support members. If the soil layer that covers the soil is formed, the soil layer will be prevented from flowing out and collapsing, exhibiting excellent water retention, and maintain the moisture and nutrients contained in the moisture for a long period of time. Therefore, it is possible to construct a planting method with good plant growth.

JP-A-6-257157 JP-A-9-119136 JP 2003-74062 A

  In the case of the slope revegetation method disclosed in Patent Document 1, vegetation bags filled with mixed soil must be installed and fixed on the soil retaining stoppers fixed to the construction surface, so the mixed soil filling operation In addition, a lot of labor and time are required for carrying and installing the vegetation bag filled with the mixed soil, and the construction period is prolonged.

  In addition, since the slope revegetation method disclosed in Patent Document 2 is to form a weir by connecting and fixing a large number of fence-like bodies, it is necessary to provide a connection mechanism for each fence-like body, The structure is complex and requires a lot of work to produce. In addition, since it is necessary to form a continuous weir by connecting and fixing the fence-like bodies in the lateral direction, it is difficult to adopt it on slopes with many irregularities and undulations.

  The slope revegetation method disclosed in Patent Document 3 solves the problems of these slope revegetation methods, but in this method, after placing a support member made of wood on the ground, It is necessary to lay a lump of foamed glass having open cells between the support member and the support member.

  Therefore, in the present invention, the conventional slope greening method disclosed in Patent Document 3 is further improved to provide a slope greening support member and a slope greening method capable of reducing the number of materials and construction man-hours. The purpose is to do.

  The slope greening support member of the present invention is a slope greening support member arranged in a shelf or staggered pattern on the ground, and has a foamed glass having open cells and a cylindrical shape filled with the foamed glass. It is composed of firewood. The slope greening method of the present invention is characterized in that the slope greening support members are arranged in a shelf or zigzag pattern on the ground, and a soil layer is formed so as to cover the slope greening support members. And

  In the slope greening support member of the present invention, the foamed glass having open cells filled in the cylindrical cage has a function of absorbing groundwater and rainwater appropriately and transmitting excess water, and this foaming. The cylindrical basket filled with glass demonstrates the support function of the guest soil layer equivalent to a support member made of conventional wood. Therefore, if this slope greening support member is placed on the ground in a shelf or zigzag form, and the customer soil layer is formed so as to cover this slope greening support member, the outflow and collapse of the customer soil layer is prevented. Is done. In addition, this soil layer exhibits excellent water retention and fertilization functions, can maintain the moisture necessary for plant growth and nutrients contained in the moisture for a long time, and planting with good planting A slope can be constructed.

  In addition, since the roots of the plants that grow here extend so as to be entangled with the cylindrical cocoons, it is possible to prevent the outflow, collapse, and dropout of the plants. In addition, since the sloped green support member of the present invention is filled with foamed glass having open cells in a cylindrical basket, it has an appropriate gap, and rainwater or the like that has permeated the soil layer of the soil. As it flows downward through the gap and the air permeability in the soil layer is secured, excess water in the soil layer can be efficiently discharged, maintaining the moisture content and air permeability suitable for plant growth, and rain Can prevent the outflow of the customer soil layer.

  In addition, the foamed glass in the cylindrical cage has bubbles that are continuous from the outer periphery to the inside, so that it becomes a place for beneficial soil microorganisms in the soil layer, and the growth of plants is also activated by these functions. It becomes. Furthermore, since the foamed glass in the cylindrical basket is glassy, it is chemically stable, and no elution or corrosion of harmful substances occurs. Therefore, there is no fear of environmental pollution and excellent durability.

  Here, the cylindrical basket can be manufactured using a net formed of wood or bamboo, but is preferably manufactured using a synthetic resin or metal net. . In the case of wood and bamboo, there is a possibility of corrosion after a long period of time, but in the case of synthetic resin, there is no corrosion. Further, in the case of a metal net, it is superior in strength to a synthetic resin, and is suitable for supporting a heavy soil layer and a constructed greening slope. In particular, for a metal net, it is desirable to use, for example, an element wire coated with aluminum with aluminum or a zinc aluminum alloy-plated iron wire, rather than using a galvanized wire. Copper-aluminum-coated strands, zinc-aluminum alloy-plated iron wires, and synthetic resins are excellent in corrosion resistance, and can support the soil layer and the constructed greening slope for a long period of time. In addition, as the cylindrical rod, those having various cross-sectional shapes such as a cylindrical shape, a triangular cylindrical shape, and a rectangular cylindrical shape can be used.

  Further, the slope revegetation method of the present invention includes a sloped or staggered support member for slope greening composed of foam glass having open cells and a cylindrical basket filled with the foam glass. The mesh body is stretched in a state of covering the ground and the slope greening support member, and the soil layer is formed so as to cover the slope greening support member.

  A net-like body is stretched so as to cover the support member for slope planting arranged on the ground, and the soil layer is formed on this, so the soil layer is more firmly fixed and the plant growing here Since the roots are stretched so as to be entangled with the nets, the function of preventing the outflow, collapse and dropping of the plant of the soil layer is further improved.

  Here, the customer soil layer can be formed by spraying a base material containing granular materials, compost, plant seeds, and an adhesive material formed of foamed glass having open cells on the ground and curing. By spraying and curing such a base material, the surface of the customer soil layer has an appropriate hardness that allows the plant to grow. In the soil layer, the granular material of foamed glass, compost, and plant seeds are consolidated together by the action of the adhesive material contained in the base material to form an aggregated structure. No erosion of the layer or scattering of the base material due to the wind occurs, and a greening slope with excellent durability can be constructed. Moreover, since this soil layer can maintain a suitable water retention even during the dry season, the plant does not die, and a stable growth state can be ensured.

  In addition, since the base material constituting the soil layer contains the foamed glass granules, it is possible to secure gaps necessary for the growth of plant roots and buds in the soil layer. Therefore, after the construction is completed, the germinated plant seeds can grow from the surface of the soil layer to the outside while absorbing nutrients contained in the compost, etc., and a rich greening slope can be constructed. This granular material is formed of foamed glass with a large number of minute open cells, is relatively light, absorbs groundwater and rainwater appropriately, and has the function of allowing excess moisture to pass through. Even after a long period of time, the initial lightweight property is not lost, and the outflow or collapse of the soil layer can be prevented.

  Furthermore, as described above, the foam glass contained in this soil layer also has a continuous bubble from the outer periphery to the inside, so that it becomes a place of residence for beneficial soil microorganisms in the soil layer, and also due to these functions. The growth state of the plant is activated. Since these granular materials are glassy, they are chemically stable, and no leaching of harmful substances or corrosion occurs, so there is no risk of environmental pollution and excellent durability. In addition, since the granular material of foamed glass can be produced using not only new glass materials but also discarded empty bottles and glass waste materials as raw materials, it is intended to effectively utilize resources and contribute to the protection of the resource environment. Can do.

  As compost, a mixture of organic substances made by stacking fallen leaves, straw, dust, wild grass, etc. and decaying is suitable, and it becomes a nutrient source when plant seeds contained in the soil layer grow In addition, since it has effects such as enhancement of fertilizer retention, improvement of water retention and air permeability, and promotion of soil microorganism activity, a good plant growth base can be formed. In this case, if various chemical fertilizers are added to the base material, the growth of the plant can be further promoted.

  Further, the slope greening support member is preferably fixed by an anchor having an outer diameter that is larger than the inner diameter of the stitch of the cylindrical rod. As a result, when the anchor is driven, the head of the anchor comes into contact with the stitch of the cylindrical hook, and the slope greening support member can be easily fixed to the surface of the ground simply by driving the anchor.

  Alternatively, the slope greening support member is preferably fixed by an anchor having a substantially U-shaped or substantially J-shaped hook portion that hangs on the outer periphery of the slope greening support member. As a result, when these anchors are driven, the outer periphery of the slope greening support member comes to hang on the inside of the substantially U-shaped hook portion or the substantially J-shaped hook portion. It becomes possible to fix the support member for greening to the surface of the ground.

(1) A slope greening support member composed of foamed glass having open cells and a cylindrical basket filled with the foamed glass is arranged in a shelf or staggered pattern on the ground, for slope greening By forming the soil layer so as to cover the support member, it is possible to construct a revegetation slope with excellent water retention and good plant growth, without causing outflow or collapse of the soil layer. In particular, in the present invention, it is possible to form a guest soil layer simply by placing a cylindrical basket filled with foamed glass on the ground. It is not necessary to lay a lump of foamed glass between the ground and the support member after the arrangement, and the number of materials and construction man-hours are reduced. In addition, since the roots of the plants that grow here extend so as to be entangled with the cylindrical cocoons, it is possible to prevent the outflow, collapse, and dropout of the plants. Furthermore, since the support member for slope planting of the present invention is filled with foamed glass having open cells in a cylindrical basket, it has an appropriate gap, and rainwater or the like that has permeated into the soil layer has As it flows downward through the gap and the air permeability in the soil layer is secured, excess water in the soil layer can be efficiently discharged, maintaining the moisture content and air permeability suitable for plant growth, and rain Can prevent the outflow of the customer soil layer.

(2) A slope greening support member composed of foamed glass having open cells and a cylindrical basket filled with the foamed glass is arranged in a shelf or staggered manner on the ground, and the ground and slope A net is stretched over the support member for greening, and a soil layer is formed so as to cover the support member for slope greening. The function to prevent such is further improved.

(3) When the base soil layer is formed by spraying a base material containing foamed glass granules having open cells, compost, plant seeds, and an adhesive on the ground, the base soil layer due to rain or the like No erosion, scattering of the base material due to wind, and the like, a greening slope with excellent water retention and durability can be constructed, and the growth state of the plant is further stabilized.

(4) By fixing the support member for slope greening with an anchor having an outer diameter larger than the inner diameter of the stitch of the cylindrical ridge, the support member for slope greening can be easily achieved simply by driving the anchor. It becomes possible to fix to the surface of the ground.

(5) By fixing the support member for slope greening with an anchor having a substantially U-shaped or substantially J-shaped hook portion that hangs on the outer periphery of the support member for slope greening, just driving these anchors It becomes possible to easily fix the slope greening support member to the surface of the ground.

  FIG. 1 is a perspective view of a support member for slope planting used in the slope planting method according to the embodiment of the present invention, FIG. 2 is a process explanatory diagram of the slope planting method according to the embodiment of the present invention, and FIG. FIG. 4 is a longitudinal sectional view of a greening slope constructed by the slope greening method shown in FIG. 2, and FIG. 4 is an explanatory view showing an arrangement state of the slope greening support members in the process of 2 slope greening.

  In FIG. 1, a slope greening support member (hereinafter referred to as “support member”) 1 used in the slope greening method of the present embodiment has open cells in a cylindrical basket 10 formed by a net. The foamed glass lump 11 is filled. The mesh of the cylindrical basket 10 is formed by braiding a copper wire used for an electric wire with an aluminum coating or a zinc-aluminum alloy-plated iron wire into a rhombus, and entangles the row lines bent into a mountain shape at a constant pitch This is a net-like body having parallelogram stitches. A lid 12 formed of the same net is provided at both ends of the cylindrical basket 10 so as to be openable and closable. It is also possible to form the cylindrical cage 10 with a synthetic resin net.

  The cylindrical basket 10 used in the present embodiment has a diameter of about 50 to 200 mm and a length of about 1 to 2 m. Further, a reinforcing ring 13 is provided at the center of the cylindrical bowl 10 so that a cylindrical shape having a uniform diameter can be maintained even when the foamed glass lump 11 is filled. In this support member 1, a foamed glass 11 having a particle size of 10 mm to 50 mm is filled in a cylindrical basket 10, and the lid 12 is closed. The lid 12 is fixed to the cylindrical basket 10 with a wire, for example.

  In the slope revegetation method of this embodiment, first, as shown in FIG. 2A and FIG. 3, the slope where a greening slope such as soft rock, hard rock (bedrock), or a mortar spray slope should be constructed is inclined. Support members 1 shown in FIG. 1 are arranged at predetermined intervals on the ground 2 and anchors 3 are driven and fixed. At this time, a part of the side surface of the supporting member 1 is brought into close contact with the surface of the ground 2 and fixed. In addition, the anchor 3 is used in which the outer diameter of the head 3a is larger than the inner diameter of the stitch of the cylindrical collar 10. As a result, when the anchor 3 is driven, the head 3 a comes to hang onto the stitch of the cylindrical rod 10, so that the support member 1 can be fixed to the surface of the ground 2 simply by driving the anchor 3. In the present embodiment, as shown in FIG. 3, a plurality of support members 1 are arranged horizontally and in a staggered manner on the surface of the ground 2, but depending on the strength of the ground 2 and other construction conditions, It arranges at intervals of about 0.5-3.0 m in the direction.

  When the placement and fixing of the support member 1 is completed, a lath wire mesh 4 is stretched so as to cover the ground 2 and the support member 1 as shown in FIG. Secure to. Here, the lath wire mesh 4 is a rhombus wire mesh made of a galvanized iron wire, and a mesh body having parallelogram stitches formed by entanglement of row lines bent into a mountain shape at a constant pitch. It is.

  When the stretch of the lath wire mesh 4 is completed, as shown in FIG. 2 (c), the base material 6 is sprayed and cured toward the ground 2 so as to cover the ground 2, the support member 1, and the lath wire mesh 4. The customer soil layer 7 is formed. The base material 6 contains foamed glass granules 8 having a diameter of 20 mm or less having open cells, compost, plant seeds, an adhesive material, and a chemical fertilizer. Therefore, when time passes after the completion of the construction, it is shown in FIG. As described above, the plant seeds in the soil layer 7 germinate and the plant 20 grows outward, so that a green planting slope 21 is constructed.

  In the support member 1 in the present embodiment, the foamed glass lump 11 having a large number of open cells is filled in the cylindrical gutter 10, and therefore the foamed glass lump 11 in the cylindrical gutter 10 is Appropriately absorbs groundwater and rainwater, and permeates excess water. Therefore, if this support member 1 is arranged on the ground 2 in a zigzag pattern and the customer soil layer 7 covering them is formed, the customer soil layer 7 is firmly fixed by the support member 1 placed on the ground 2. Therefore, the outflow and collapse of the customer soil layer 7 are prevented. In addition, the soil layer 7 exhibits excellent water retention and fertilization functions, can retain moisture necessary for the growth of the plant 20 and nutrients contained in the moisture for a long period of time, and the plant 20 is excellent. A growing slope 21 can be constructed.

  Moreover, since the supporting member 1 in this embodiment is the thing in which the foamed glass 11 which has an open cell is filled in the cylindrical cage | basket | basket 10, it has a moderate clearance gap, the rain water which osmose | permeated the customer soil layer 7, etc. Can flow downward through this gap. In addition, since air permeability in the soil layer 7 is also secured, excess moisture in the soil layer 7 can be efficiently discharged, and the moisture amount and air permeability suitable for the growth of the plant 20 can be maintained. The outflow of the customer soil layer 7 due to the above can be prevented.

  Further, the lath wire mesh 4 is stretched so as to cover the ground 2 and the support member 1, and the base material 6 is sprayed and cured thereon to form the customer soil layer 7, so that the customer soil layer 7 is extremely strong. The plant 20 fixed on the ground 2 and growing on the soil layer 7 grows so as to be entangled with the lath wire mesh 4 and the cylindrical basket 10 of the support member 1. Dropout can be effectively prevented. If the construction conditions such as the gradient of the ground 2 is gentle and the adhesion of the base material 6 to the ground 2 is strong, the customer soil layer 7 can be formed without the lath wire mesh 4.

  Moreover, since the lump body 11 and the granular body 8 of foam glass have continuous bubbles from the outer periphery to the inside thereof, they become a residence for beneficial soil microorganisms and the like in the soil layer 7, and planting is also performed by these functions. Is activated. Furthermore, since the lump 11 and the granule 8 are both glassy, they are chemically stable, and no leaching or corrosion of harmful substances occurs, so there is no risk of environmental pollution and excellent durability. .

  Further, in the present embodiment, the soil layer 7 is formed by spraying the base material 6 containing the granular material 8, compost, plant seeds, adhesive material, chemical fertilizer and the like on the ground 2 and curing it. In the soil layer 7, the granular material 8, compost, plant seeds and the like are solidified together by the adhesive material included in the base material 6 to form an aggregated structure. The scattering of the base material 6 due to wind can be prevented.

  Moreover, the compost contained in the base material 6 is a mixture of organic substances made by stacking fallen leaves, straw, dust, wild grass, etc., and rotted, and the nutrients when the plant seeds contained in the soil layer 7 grow. In addition to being a supply source, it has the effects of enhancing fertilizer retention, improving water retention and air permeability, and promoting the activity of soil microorganisms, so it can form a good plant growth base. Moreover, since the chemical fertilizer is added to the base material 6, the growth of the plant 20 can be further promoted.

  Moreover, since the customer soil layer 7 contains the granular material 8 of foam glass, the clearance gap required for growth, such as a root of a plant 20, a bud, can be ensured inside the customer soil layer 7, After the completion of the construction, the germinated plant seeds grow smoothly from the surface of the soil layer 7 to the outside while absorbing nutrients contained in compost and the like, and a green planting slope 21 can be constructed. As described above, the granular material 8 is formed of foamed glass having a large number of minute open cells, is relatively lightweight, has a function of absorbing groundwater and rainwater appropriately, and transmitting excess water. Therefore, even after a long period of time has elapsed after completion of the construction, the initial lightweight property is not lost, and the outflow or collapse of the customer soil layer 7 can be prevented.

  In addition, although the lump body 11 and the granular material 8 of foam glass can be manufactured with a new glass material, in this embodiment, what was manufactured using the discarded empty bottle, the glass waste material, etc. as a raw material is used. Therefore, effective use of resources can be achieved, and illegal dumping of glass waste can be reduced, contributing to the protection of the natural environment.

  Further, in the present embodiment, the support member 1 is driven and fixed by the anchor 3, but can be fixed by other methods. For example, as shown in FIG. 5, the support member 1 is sandwiched between anchors 14 having a substantially U-shaped hook portion and fixed to the ground 2. As shown in FIG. 6, the support member 1 has a substantially J-shape. It can be fixed to the ground 2 by an anchor 15 having a hook portion. In any of the anchors 14 and 15, when the anchors 14 and 15 are driven, the outer periphery of the support member 1 comes to be hooked inside the substantially U-shaped hook portion or the substantially J-shaped hook portion. The support member 1 can be fixed to the surface of the ground 2 simply by driving in.

  Next, with reference to FIG. 7, FIG. 8, and FIG. 9, other embodiments regarding the support member arrangement state will be described. 7 to 9, portions having the same functions and effects as those of the above-described embodiment are denoted by the same reference numerals as those in FIGS. 1 to 3 and description thereof is omitted.

  In the embodiment shown in FIG. 7, a plurality of support members 1 are arranged on the ground 2 in a shelf shape. In this case, since the plurality of support members 1 are arranged so as to form a shelf that is continuous in the lateral direction on the ground 2, the outflow of a customer soil layer (not shown) formed in the subsequent process is performed. The function to prevent collapse is excellent.

  In the embodiment shown in FIG. 8, a plurality of support members 1 are arranged in a shelf shape on the ground 2, and a similar support member 1 a is placed between the support members 1 adjacent in the vertical direction of the ground 2. It is arranged to make a right angle with. By arranging the support members 1 and 1a in this way, a lattice-like structure in which the support members 1 and 1a are connected to each other vertically and horizontally is formed on the ground 2, so that the holding power of the soil layer is increased, The function to prevent outflow and collapse of the customer soil layer is further improved. This embodiment is an appropriate construction method when the state of the ground 2 is good, for example, when the ground 2 is gravelly soil, and is excellent in that the construction is relatively simple.

  In the embodiment shown in FIG. 9, a plurality of support members 1 are arranged in a shelf shape on the ground 2, and similar support members 1 b are obliquely arranged between the support members 1 adjacent to the ground 2 in the vertical direction. is doing. By arranging the support members 1, 1 b in this way, a triangular lattice structure in which the support members 1, 1 b are connected to each other is formed on the ground 2. The function to prevent the outflow and collapse of the soil layer is further improved. This embodiment is a construction method suitable for the case where the geology of the ground 2 is a collapsed soil or a soil with earth and sand, and is excellent in that it exhibits an excellent ground reinforcement effect although it takes some work. Yes.

  INDUSTRIAL APPLICABILITY The present invention is useful as a slope greening support member and a slope greening method for constructing a slope where plants can grow on slopes such as mountainous areas and slopes of newly constructed land.

It is a perspective view of the support member for slope greening used for the slope greening method in embodiment of this invention. It is process explanatory drawing of the slope greening method in embodiment of this invention. It is explanatory drawing which shows the arrangement | positioning state of the support member for slope greening in the process of the slope greening method of FIG. It is a longitudinal cross-sectional view of the planting slope constructed by the slope planting method shown in FIG. It is explanatory drawing which shows the other fixing method of a supporting member, Comprising: (a) is a longitudinal cross-sectional view, (b) is A arrow directional view of (a). It is explanatory drawing which shows the other fixing method of a supporting member, Comprising: (a) is a longitudinal cross-sectional view, (b) is B arrow directional view of (a). It is explanatory drawing which shows other embodiment regarding a supporting member arrangement | positioning state. It is explanatory drawing which shows other embodiment regarding a supporting member arrangement | positioning state. It is explanatory drawing which shows other embodiment regarding a supporting member arrangement | positioning state.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1,1a, 1b Support member 2 Ground 3,14,15 Anchor 4 Lath wire mesh 5 Locking pin 6 Base material 7 Guest soil layer 8 Foamed glass granular material 10 Cylindrical gutter 11 Foamed glass lump 12 Lid 13 Ring 20 Plant 21 Greening slope

Claims (10)

  A support member for slope greening arranged in a shelf shape or a staggered pattern on the ground, comprising a foam glass having open cells and a cylindrical basket filled with the foam glass. Element.   The support member for slope planting according to claim 1, wherein the cylindrical basket is formed of a net made of synthetic resin or metal.   The support member for slope greening according to claim 1 or 2, wherein the foamed glass has a diameter of 10 to 50 mm.   The support member for slope planting according to any one of claims 1 to 3, wherein the cylindrical rod has a diameter of 50 to 200 mm. A slope greening support member composed of foamed glass having open cells and a cylindrical basket filled with the foamed glass is arranged in a shelf or zigzag on the ground,
A slope revegetation method comprising forming a soil layer to cover the slope revegetation support member. A slope greening support member composed of foamed glass having open cells and a cylindrical basket filled with the foamed glass is arranged in a shelf or zigzag on the ground,
A net is stretched over the ground and the support member for slope planting,
Further, the slope greening method is characterized in that a soil layer is formed so as to cover the slope greening support member.   The guest soil layer is formed by spraying and curing a base material containing granular materials, compost, plant seeds, and an adhesive material formed of foamed glass having open cells on the ground. The slope greening method according to claim 5 or 6.   The slope greening method according to claim 7, wherein the granular material has a diameter of 20 mm or less.   The slope greening method according to any one of claims 5 to 8, wherein the slope greening support member is fixed by an anchor having an outer diameter that is larger than an inner diameter of a knot of a cylindrical rod. .   9. The slope greening support member is fixed by an anchor having a substantially U-shaped or substantially J-shaped hook portion that hangs on the outer periphery of the slope greening support member. The slope greening method described in Crab.

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