JP4132757B2 - STRUCTURE FOR ARCHITECTURE, BUILDING BASIC STRUCTURE HAVING THE SAME, AND COMPOSITE STRUCTURE FOR ARCHITECTURE - Google Patents

STRUCTURE FOR ARCHITECTURE, BUILDING BASIC STRUCTURE HAVING THE SAME, AND COMPOSITE STRUCTURE FOR ARCHITECTURE Download PDF

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JP4132757B2
JP4132757B2 JP2001270532A JP2001270532A JP4132757B2 JP 4132757 B2 JP4132757 B2 JP 4132757B2 JP 2001270532 A JP2001270532 A JP 2001270532A JP 2001270532 A JP2001270532 A JP 2001270532A JP 4132757 B2 JP4132757 B2 JP 4132757B2
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博 遠藤
裕 遠藤
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博 遠藤
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Description

【0001】
【発明の属する技術分野】
本発明は、建築用構造体及びこれを有する建築基礎構造並びに建築用複合構造体に関するものである。さらに詳しくは、断面が長手方向に対しほぼ同一形状の柱状をなす複数の建築用柱状材と、各建築用柱状材に形成した貫通孔を貫通する長尺部材とを備え、これら建築用柱状材の複数本を並べると共に前記長尺部材を貫通孔に貫通させて順次連結して構成した壁体又は板材等の建築用構造体及びこれを有する建築基礎構造並びに建築用複合構造体に関する。
【0002】
【従来の技術】
従来、建築用柱状材としては、例えば特開平11−210115号公報、実開平8−473号公報、実開平2−39008号公報に記載のものが知られている。第一の公報記載の技術にあっては、間伐材を加工してなる角柱の一つの角にほぼ直角の溝を形成し、これらを順次積み重ねている。また、第二の公報記載の技術にあっては、断面「く」の字状に間伐材を加工してなる単位体に針金又は紐等の可撓性部材を貫通させ、屈曲自在なパネルを構成している。さらに、第三の公報に記載の技術では、角柱の一方の角にひび割れ防止用の切込を形成し、他方の角に嵌合用の切込を形成し、残りの角部の一方を切断して平坦に形成している。
【0003】
しかし、上述の建築用柱状材は、いずれもその形状が間伐材等から切り出す際に非効率であるという問題があった。また、これらいずれの先行技術においても、施工時の取扱性、組合せ時の風通し又は水はけの問題や組み合わせ時の強度という課題は提示されていない。
【0004】
【発明が解決しようとする課題】
かかる従来の実状に鑑みて、本発明の目的は、より小径の間伐材等から効率よく簡単に強度が高い璧体や板材等を構成することが可能で取扱性に優れた建築用構造体及びこれを有する建築基礎構造並びに建築用複合構造体を提供することにある。
【0005】
【課題を解決するための手段】
上記目的を達成するため、本発明に係る建築用構造体の特徴は、断面が長手方向に対しほぼ同一形状の柱状をなす複数の建築用柱状材と、各建築用柱状材に形成した貫通孔を貫通する長尺部材とを備え、これら建築用柱状材の複数本を並べると共に前記長尺部材を貫通孔に貫通させて順次連結して構成した壁体又は板材等の建築用構造体において、前記各建築用柱状材は、その一側に長手方向に沿った略直交する一対の第一の平面よりなる嵌合溝を備える一方、他側に略直交する一対の第二の平面を有する突条を備え、この突条の先端には長手方向にほぼ沿って小さな面を有し、第一の平面と第二の平面とを面接触させるように前記嵌合溝に前記突条を嵌合させた状態において前記嵌合溝と前記小さな面との間にクリアランスが形成されるものであり、前記突条及び前記嵌合溝の間に位置する第一、第二中間部と前記嵌合溝との間にそれぞれ斜面を有しており、隣り合う建築用柱状材の間が屈曲可能となるように前記貫通孔と前記長尺部材との間に他のクリアランスを設け、隣り合う建築用柱状材の間を屈曲させた状態でこれらの前記嵌合溝と前記突条とを嵌合させると共に前記長尺部材により締め付け固定してあることにある。
【0006】
上記特徴における突条先端の「小さな面」は次のような作用を奏する。
まず、上記従来技術では、突条先端が尖っており、嵌合溝との嵌合作業時における手の挟まり等を考えると問題がある。しかし、本願の「小さな面」はこの危険性を緩和して取扱性を向上させる。また、発明者の実験によれば「小さな面」を形成しても、嵌合部分の強度低下は問題とならないのみならず、隣り合う柱状材どうしの角度を変えるように湾曲させる場合には、むしろ突条先端が尖っていない分だけ突条の大きな崩壊もなくて強度的に有利である。
突条が「小さな面」の存在をいわば許容するので、嵌合強度を考えて突条を尖らせる必要がない。したがって、より小径の間伐材からより大径の柱状材を切り出すことができ、間伐材の利用効率が向上する。
【0007】
前記屈曲させた状態において、前記隣り合う建築用柱状材は、前記嵌合溝の端に位置する一方の角部と前記突条の第二の平面とで接触し、さらに、前記小さな面の一部と前記嵌合溝の第一の平面とで接触することが望ましい。
【0008】
建築用構造体の一部をなす隣り合う建築用柱状材間において、前記第一の平面と前記第二の平面とを面接触させるように前記嵌合溝と前記突条とを嵌合させて前記長尺部材により締め付け固定してあるとよい。嵌合溝にひび割れが生じたとしても、ひび割れは必ずしも溝に沿って完全に連続発生するのではなく、しかも、万が一嵌合溝に発生しても、「小さな面」の存在によって突条がそのひび割れに入り込んでいくことを防止できる。
【0009】
上記各特徴において、突条の先端面である「小さな面」は、湾曲(円弧状)面に形成するとよい。また、上記各特徴において、前記建築用柱状材としては有芯の間伐材を用いることが望ましい。
【0010】
上記各特徴に記載の建築用構造体は、護岸壁に使用可能である。
上記第三の公報に記載の発明では、突条の先端部分に形成した切り込みに水等が溜まって腐食を起こすおそれがある。しかし、本願では「小さな面」には水が溜まらず風通しも良好となって、腐食を防止する。ひび割れは不規則に生じるかもしれないが、特に土木分野の素材としてはひび割れ程度が不規則に生じても問題とはならない。
小さな異物であれば、嵌合溝に入り込んだとしても、「小さな面」によるクリアランスにより嵌合は十分に確保される。したがって、嵌合時に異物を完全に除去する必要はなく、特に土木工事における作業性に優れる。
【0011】
本発明に係る建築基礎構造の特徴は、上記の特徴に係る建築用構造体を有する建築基礎構造であって、前記第一、第二中間部の一方が先端が尖った楔状の突条であり、この突条を土中又は硬化材中に埋め込んであることにある。係る場合、他方の中間部が、前記突条と前記嵌合溝との中心を結ぶ中心面にほぼ沿った側面であってもよい。
【0012】
一方、建築用構造体を一対備えた建築用複合構造体の特徴は、断面が長手方向に対しほぼ同一形状の柱状をなす複数の建築用柱状材と、各建築用柱状材に形成した貫通孔を貫通する長尺部材とを備え、これら建築用柱状材の複数本を並べると共に前記長尺部材を貫通孔に貫通させて順次連結して構成した壁体又は板材等の建築用構造体を一対備えた建築用複合構造体であって、前記各建築用柱状材は、その一側に長手方向に沿った略直交する面よりなる嵌合溝を備える一方、他側に前記嵌合溝に嵌合する突条を備え、この突条の先端には長手方向にほぼ沿って小さな面を有し、前記突条及び前記嵌合溝の間の第一、第二中間部と前記嵌合溝との間にそれぞれ斜面を有しており、前記長尺部材により建築用柱状材を互いに引き寄せることで隣り合う建築用柱状材の前記嵌合溝の斜面と前記突条の斜面とを密接させるように嵌合させることが可能であり、当該嵌合状態において前記嵌合溝と前記小さな面との間にクリアランスが形成される状態で前記各建築用構造体が構成され、前記各建築用柱状材は前記第一、第二中間部の一方が突条であり、この突条を前記一対の建築用構造体で互いに対向させて互いに入り込ませてあることにある。係る場合、他方の中間部が、前記突条と前記嵌合溝との中心を結ぶ中心面にほぼ沿った側面であってもよい。
【0013】
【発明の実施の形態】
次に、添付図面を参照しながら、本発明をさらに詳しく説明する。
図1、2に示す建築用柱状材1は、符号C1〜3に外形円を示す間伐材を切り出すことで作成してある。この建築用柱状材1は、断面が長手方向に対しほぼ同一形状の柱状をなし、符号1a,1b,1cに示すように複数本を順次連結して、建築用構造体4である壁体又は板材等を作成する。
【0014】
この建築用柱状材1は、その一側に長手方向に沿った略直交する面F1,F1よりなる略V字型の嵌合溝E1を備える一方、他側に前記嵌合溝E1に嵌合する略V字型の突条E2を備える。この嵌合突条E2の先端が尖っていると、嵌合溝E1の底に亀裂が形成された場合に、この尖った楔状の先端が侵入してきた亀裂を拡大させる恐れもある。そこで、嵌合突条E2の先端に長手方向にほぼ沿って小さな面F2を設けることで、不測に亀裂が進行することを防いでいる。また、嵌合突条E2の先端に先端面F2を設けることで、作業員や器物を傷つけたり、楔状の先端自身が傷つくことを防いでいる。加えて、嵌合突条E2の先端が尖っている場合の如く、柱状柱状材を屈曲する際に、尖った楔状の先端が溝面F1に当たり柱状柱状材1a,1cの屈曲が妨げられるといった不都合もない。
【0015】
図2(a)の例では、嵌合突条E2と嵌合溝E1との間の第一、第二中間部M1,M2の双方に嵌合突条E2と嵌合溝E1とを結ぶ中心面Lにほぼ沿った側面F3,F4を設けてある。これに対し、図2(b)の例では、第一中間部M1に中心面Lにほぼ沿った側面F3を設け、他方の第二中間部M2は角部T4のままとしてある。なお、各中間部M1,M2と嵌合溝E1との間はそれぞれ斜面G1,G2である。各建築用柱状材1には嵌合溝E1から先端面F2にかけて少なくとも二カ所に貫通孔2を貫通形成してある。
【0016】
建築用柱状材1a,1bとが嵌合溝E1,嵌合突条E2で溝面F1,F1に第一突条横斜面G3,第二突条横斜面G4を密着させて互いに嵌合した場合、後述する長ねじやワイヤー等の締結具を締め付けることにより、隣り合う建築用柱状材1a,1bは非常に強固に連結される。しかも、水等により建築用柱状材1自体が膨張すると、これらの連結はさらに強固となる。また、先端面F2と溝面F1,F1との間に隙間3が形成されるので、風通しが良く、水等が溜まって腐食しやすい嵌合溝E1底部の腐食を抑制することに加えて、嵌合溝E1に嵌合突条E2を嵌合させる際に、砂利等の異物が噛みこんでも、先端面F2により形成される隙間3が異物を受け入れるので、嵌合溝E1と嵌合突条E2との間が浮き上がることもない。
【0017】
また、建築用柱状材1a,1cとを屈曲状態で嵌合連結した場合、先端面F2により嵌合突条E2先端の損傷を防ぐことができ、璧体等の強度低下を防止することができる。
【0018】
建築用柱状材1の作成にあたっては、間伐材を利用してまず略角柱を作成し、次いで、角部を切断することにより、断面形状を決定する。ここでは、略角柱が略正方形である場合について説明する。
【0019】
間伐材は、平行に配置された一対の鋸間を通過させることで、一対の平行な対向辺を形成することができる。したがって、間伐材を一対の鋸間を2回通過させれば、略角柱を容易に作成することができる。第一角部T1に嵌合溝E1を形成し、第二角部T2に先端面F2を形成する場合でも、第三角部T3,第四角部T4を残存させる場合は、間伐材の外形は符号C1に示す大きなものとなる。一方、第三角部T3を切断して第一中間部M1に第一側面F3を形成する場合には、第一角部T1,第二角部T2及び第三角部T3は実際に形成する必要がなく、例えば符号C2で示す間伐材外形円の外に位置させてもよい。このとき、略角柱の角は該当部分が間伐材の曲面となる。
【0020】
角柱の形成後に、基準面から90度で突出する丸鋸等を用いて第一溝横斜面G1,第二溝横斜面G2を利用し、溝面F1,F1を切り込むことで嵌合溝E1を形成する。また、基準面に対して45度を傾斜を有して突出する丸鋸等を用い、第一突条横斜面G3,第二突条横斜面G4,第二溝横斜面G2を順次利用して第一側面F3,先端面F2を形成し、必要な場合は第二側面F4を形成する。先端面F2は、嵌合突条E2の先端を柱状材1の長手方向に沿って削ったり切断することにより作成してもよいが、間伐材先端側の外径が細い部分では、間伐材外形円C2,C3の外形面をそのまま又は一部利用することも可能である。基準面に対して45度を傾斜を有して突出する丸鋸等を用い、溝面F1を切り込んでもよい。
【0021】
図1と図18とを比較しながら、本願発明に係る建築用柱状材1と従来品建築用柱状材1’との差異を説明する。まず、建築用柱状材1,1’の厚みWが同程度の場合、符号C3で示す同じ径の間伐材から切り出せる本願建築用柱状材1の長さはLaであるのに対し、従来品1’の長さLbは短くなる。一方、従来品1’の長さLbを確保するにはその厚みWを減ずる必要があり、その結果、強度が低下する。また、従来品1’の場合、溝面F1’F1’間の角度が90度である場合、第一溝横斜面G1’,溝面F1’の角度a1’は約45度であり、強度低下が懸念される。しかも、従来品1’では、偏心することの多い間伐材外形円C3の中心P3が、建築用柱状材1’の外部である嵌合溝E1’に位置する確率が高く、木目が従来品1’内で偏ることによって、全体が湾曲する懸念を生じる。
【0022】
これに対し、本願発明では、第一側面F3,第二側面F4(第一中間部M1,第二中間部M2)と嵌合溝E1との間に第一溝横斜面G1,第二溝横斜面G2を設けることで、長さLaと厚みWとの双方を確保して、強度を維持しつつ設置効率を向上させることができる。また、第一溝横斜面G1,第二溝横斜面G2と溝面F1との間の角a1も90度となり、この角部の強度低下を防ぐことができる。しかも、間伐材の間伐材外形円C3の中心P3が建築用柱状材1の内部に位置する確率が高く、建築用柱状材1全体が湾曲する恐れも少ない。
【0023】
では、以下に上述の建築用柱状材1を順次連結して構成した壁体又は板材等の建築用構造体4について説明する。なお、同様の部材には同様の符号を附するものとし、特に図示又は言及がない限り同様の構成を有するものとする。
【0024】
図3、4に示す本発明に係る第一実施形態は、建築用柱状材を横向きに配置してなる横型仕切塀10に関するものである。この横型仕切塀10は、土壌5に埋設され一部を地面GLより上に露出させたコンクリート基礎部11に間欠的に支持したH鋼12上に頂部構成材13をわたし掛ける。頂部構成材13の下面には90度の嵌合溝13aが形成され、この嵌合溝に対して木ねじボルト15の木ねじ部15aがねじ込まれる。また、木ねじボルト15の下端のボルト部15bに螺合した長ナット16を利用して長尺部材である長尺ねじ17を連結し、長尺ねじ17の下端をコンクリート基礎部11に埋め込み固定する。長尺ねじ17には順次先の建築用柱状材1である建築用柱状材14が貫通孔2を介して挿入されると共に順次嵌合溝と突条とが嵌合密着される。そして、長尺ねじ17に貫通させたワッシャ18bとナット18aにより最も下の建築用柱状材14を上側に移動させるように締め付けることで、横型仕切塀10をなす各建築用柱状材14どうしを強固に固定することができる。すなわち、これら木ねじボルト15,長ナット16,長尺ねじ17,ナット18a等が締結具を構成する。突条の先端に設けた先の先端面F2により、各突条と嵌合溝との間に隙間3が形成されて通気性が向上し、腐食が抑制されることとなる。このように、異なる径の柱状材を組み合わせて用いることで、小径の間伐材もより効率的に利用することができ、森林の有効利用に繋がる。
【0025】
図5、6に示す本発明に係る第二実施形態は、建築用柱状材を縦向きに配置してなる縦型仕切塀20に関するものである。土壌5に埋め込まれたコンクリート基礎部21に支持される太径の支柱22(1)を間欠的に配置し、太径の支柱22に対し細径の建築用柱状材23(1)を順次連結することで、この縦型仕切塀20を構成する。支柱22の両角にはそれぞれ木ねじボルト15が螺合され、上述の実施形態と同様に建築用柱状材23が順次締め付け状態で連結される。また、両側に嵌合溝24a,24bを有する継手材24を支柱22の他角と建築用柱状材23の突条との間に位置させて、先の木ねじボルト15,長ナット16,長尺ねじ17及びナットにより全体を締め付け固定をする。
【0026】
図7に示す本発明に係る第三実施形態は、建築用柱状材を縦向きに配置してなる縦型護岸壁30に関するものである。この縦型護岸壁30では、複数の建築用柱状材31(1)を嵌合溝及び突条間で順次嵌合させている。各建築用柱状材31には長尺部材である横連結ワイヤー32を貫通させると共に、建築用柱状材31どうしの適宜間隔をあけた端部から各建築用柱状材31どうしを引き寄せるように締め付け固定する。隣り合う横連結ワイヤー32は、図1の符号1a,1cに示す建築用柱状材間のように少しの余裕を持たせて屈曲させ、水Wと土壌5との間の屈曲した河川等の壁面に沿わせてある。横連結ワイヤー32には建築用柱状材31の適宜間隔をおいてアンカーボルト33を連結し、土壌5中に埋め込んだアンカー34に連結することで、建築用柱状材31を土壌5に固定してある。
【0027】
図8、9に示す本発明に係る第四実施形態は、建築用柱状材を横向きに配置してなる横型護岸壁40に関するものである。本実施形態で使用する建築用柱状材42は、図1及び図2(b)に示す如く、第二中間部M2において第四角部T4を残存させた建築用柱状材1である。この第四角部T4を残存させることにより第二側面F4形成の加工の工程を省略すると共に、断面二次モーメントの増加により強度の向上を図っている。土壌5に間欠的に埋め込んだH鋼41間に建築用柱状材42を挿入し、貫通孔2に貫通させた長尺ねじ17をナット18aにより上下両端から締め付けることで建築用柱状材42間を固定している。また、建築用柱状材42の第四角部T4側と土壌5との間に土砂GBを投入することで、水W側へ第四角部T4が露出することを防いでいる。
【0028】
本発明に係る第五実施形態を示す図10は、建築用柱状材1の異なる実施形態に係る断面形状と符号C4で外形形状を表した間伐材との関係を示す図である。本実施形態では、略角柱として基準面F0,先端面F2,第一側面F3及び第二側面F4により形成されるものを用いている。なお、基準面F0,先端面F2は直接切り出さなくてもよく、符号C4に示す間伐材外形円(面)の一部を略角柱の辺の一部としてもよい。略角柱の形成後に、基準面に対して45度に傾斜させた丸鋸等を用いて溝面F1,F1,第一,第二突条横斜面G3,G4を形成する。また、その後、同様の丸鋸を用いて第一溝横斜面G1,第二溝横斜面G2を形成することで、外観を良好なものとすることができる。また、本実施形態では略角柱を略長方形とすることで、複数個を連結した場合に、段差の比較的少ない板状体を構成することができる。
【0029】
図11、12に示す本発明に係る第六実施形態は、図10の建築用柱状材52(1)を基礎材51,51にわたし掛けてなる床50に関するものである。複数の建築用柱状材52には長尺ねじ17を貫通させてあり、ナット18a,ワッシャ18b及び長ナット16を利用して複数の建築用柱状材52同士を締め付け固定してある。また、溝面F1に木ねじ53を螺合させて建築用柱状材52を基礎材51に対して固定すると共に他の建築用柱状材52を嵌合させることで、木ねじ53を目隠しすることができる。なお、本実施形態は、例えば屋根の野地板やベンチ、机等の建築用構成材として実施することも可能である。
【0030】
図13に示す本発明に係る第七実施形態は、図9に示す第四実施形態と同様の建築用柱状材42を横方向に配置してなる護岸壁64に関するものである。第四実施形態では、地中に間欠的に埋め込んだH鋼41間に建築用柱状材42を挿入することで建築用柱状体を土壌5に設置した。これに対し、本実施形態は、建築用柱状材42の第四角部T4側と土壌5との間に硬化材の一例であるコンクリート61を充填・硬化することで、建築用柱状材42を土壌5に対して強固に固定している点が異なる。この場合は、コンクリート61、建築用柱状材42の集合体である建築用構造体4及び地面に相当する基礎壁62とで建築基礎構造たる護岸壁を形成することとなる。
【0031】
同構成によれば、建築用構造体4を構成する各建築用柱状材42がコンクリート61によって各々所定位置に支持・固定される。これにより、積層される建築用柱状材42の荷重が下方に向かう程累積的に増加したとしても、このような累積荷重が下部の建築用柱状材42に作用するのを防いでいる。さらには、このような硬化材61による建築用柱状材42の固定力は水Wの水圧によってさらに増強される。
【0032】
建築用柱状材42の長尺ねじ17にはアンカーボルト33を連結し、さらに土壌5中に埋め込んだアンカー34に連結する。これにより、建築用柱状材42を土壌5により強固に固定している。また、コンクリート61を貫通させて適宜間隔で水抜孔63を設けることにより、土壌5中の水を河川側に排出し、又は河川側の水Wを地中に排出できるようにしている。
【0033】
図14に示す本発明に係る第八実施形態は、図7に示す第三実施形態と同様の建築用柱状材31を縦向けに配置した護岸壁65に関するものである。第三実施形態では、建築用柱状材31の適宜間隔をおいてアンカーボルト33を連結し、土壌5中に埋め込んだアンカー34に連結することで、建築用柱状材31を土壌5に固定した。本実施形態ではこれに加え、建築用柱状材31と基礎壁62との間に硬化材の一例であるコンクリート61を充填・硬化することで、建築用柱状材31を土壌5に対して強固に固定している。この場合も、コンクリート61、建築用柱状材31の集合体である建築用構造体4及び地面に相当する基礎壁62とで建築基礎構造68を形成することとなる。
【0034】
同構成によれば、特に屈曲した河川に配置した場合にあっては、図14(b)に示すが如く、矢印L1方向に対する河川の流れに対し、符号Jで示す一群の建築用柱状材31には矢印Gで示す河川側方向の引張力が作用することとなる。この場合であっても、建築用柱状材31はコンクリート61によって固定されているため、建築用柱状材31が土壌5から剥がされるのを防止する。また、コンクリート61を貫通させて適宜間隔で水抜孔63を設けることにより、土壌5中の水を河川側に排出し、又は河川側の水Wを土壌5中に排出できるようにしている。
【0035】
図15に示す第九実施形態では、第一実施形態における平面状の先端面F2とは異なり、嵌合突条E2の先端面F2を曲面状(円弧状)に形成してある。曲面状の先端面F2は、曲面状の切削具で柱状材の長手方向に沿って切削する他、間伐材の外面の一部を利用してもよい。かかる曲面状に先端面F2を形成することで、隣り合う柱状材1a、1cどうしの嵌合部分を介しての屈曲が円滑となる。
図16に示す第十実施形態は、図14の第八実施形態の改変例である護岸壁66が示されている。本実施形態では、第九実施形態に準じて嵌合突条E2の先端面F2を円弧状に形成した複数の建築用柱状材42に横連結ワイヤーを貫通させて、建築用構造体4を構成している。また、第四角部T4を硬化材であるコンクリート61中に埋め込むことで、水平方向の耐力を向上させている。土壌5に第四角部T4を埋め込んでも、水平方向の耐力を向上させ得る。各柱状材42の貫通孔2とワイヤ32等の長尺部材との間にクリアランスをもたせることで、隣り合う柱状材42どうしの屈曲は容易となる。
図17に示す第十一実施形態は、柱状材14を長尺ボルト17で連結してなる第一、第二壁71,72(建築用構造体)を一対備えた複合仕切壁70(建築用複合構造体)である。各建築用柱状材14は第四角部T4が突条であり、この突条T4を一対の第一、第二壁71,72で互いに対抗させて互いに入り込ませてある。同構成によれば、柱状材14が小径であっても、第一、第二壁71,72を組み合わせることで強度を向上させることができる。
【0036】
最後に、本発明のさらに他の実施形態の可能性について言及する。
上記図7に示す実施形態では長尺部材としてワイヤーを用いたが、屈曲可能であれば、長尺部材として長ねじを利用してもよい。
【0037】
上記実施形態では、間伐材を利用して建築用柱状材1を構成した。しかし、切り落とし材等を利用して建築用柱状材1を構成しても構わない。但し、芯持材である間伐材利用の方が強度、反りの少なさの点では優れている。
【0038】
上記図13,14に示す第七,八実施形態では、硬化材61としてコンクリートを使用したが、モルタルやアスファルト等の硬化材を使用してもよい。また、本発明は、岸壁や堤防等における護岸壁及び装飾用の基礎壁62としてのみならず、崖等や人工建造物の壁面について実施してもよい。
【0039】
【発明の効果】
このように、上記本発明に係る建築用柱状材の特徴によれば、より小径の間伐材等から効率よく簡単に製造できて取扱性に優れた建築用柱状材を提供できるようになった。その結果、強度が高い璧体や板材等の建築用構造体を得ることができ、これにより、例えば護岸壁等の建築用構造体にみられるような土木工事に適した材料や構造を提供し得るに至った。
【0040】
なお、特許請求の範囲の項に記入した符号は、あくまでも図面との対照を便利にするためのものにすぎず、該記入により本発明は添付図面の構成に限定されるものではない。
【図面の簡単な説明】
【図1】建築用柱状材の断面形状と間伐材との関係を示す図である。
【図2】建築用柱状材の斜視図であって、(a)は一方の横角と他方の横面とを有する場合、(b)は2つの横面を有する場合である。
【図3】(a)は建築用柱状材を横向きに配置してなる横型仕切塀の平面図、(b)は正面図である。
【図4】図3(b)のA−A断面図である。
【図5】(a)は建築用柱状材を縦向きに配置してなる縦型仕切塀の正面図、(b)は(a)のB−B断面図である。
【図6】図5(a)のC−C断面図である。
【図7】(a)は建築用柱状材を縦向きに配置してなる縦型護岸壁の縦断面図、(b)は(a)のD−D断面図である。
【図8】(a)は建築用柱状材を横向きに配置してなる護岸壁の平面図、(b)は(a)の正面図である。
【図9】図8(b)のE−E断面図である。
【図10】建築用柱状材の異なる実施形態に係る断面形状と間伐材との関係を示す図である。
【図11】建築用柱状材を基礎材にわたし掛けてなる床の平面図である。
【図12】図11のF−F断面図である。
【図13】本発明に係る建築基礎構造を横型護岸壁として使用した場合の縦断面図である。
【図14】(a)は本発明に係る建築基礎構造を縦型護岸壁として使用した場合の縦断面図、(b)は(a)のD−D断面図である。
【図15】建築用柱状材の他の実施形態を示す図1相当図である。
【図16】本発明に係る建築基礎構造を横型護岸壁として使用した場合の縦断面図である。
【図17】複合仕切壁(建築用複合構造体)の縦断面図である。
【図18】従来品と本発明に係る建築用柱状材との比較例を示す図である。
【符号の説明】
1,1a,1b,1c:建築用柱状材、2:貫通孔、3:隙間、4:建築用構造体、5:土壌、10:横型仕切塀、11:コンクリート基礎部、12:H鋼、13:頂部構成材、13a:嵌合溝、14:建築用柱状材、15:木ねじボルト、15a 木ねじ部、15b ボルト部、16:長ナット、17:長尺ねじ、18a ナット、18b ワッシャ、20:縦型仕切塀、21:コンクリート基礎部、22:支柱、23:建築用柱状材、24:継手材、24a,24b:嵌合溝、30:縦型護岸壁、31:建築用柱状材、32:横連結ワイヤー、33:アンカーボルト、34:アンカー、40:横型護岸壁、41:H鋼、42:建築用柱状材、50:床、51:基礎材、52:建築用柱状材、52a 一端、52b 他端、53:木ねじ、61:硬化材、62:基礎壁、63:水抜孔、64,65,66:護岸壁(建築基礎構造)、70:複合仕切壁、71:第一壁、72:第二壁、C1〜4:間伐材外形円(面)、P1:C1の中心、P2:C2の中心、P3:C3の中心、E1:嵌合溝、E2:嵌合突条、F0:基準面、F1:溝面、F2:先端面、F3:第一側面、F4:第二側面、G1:第一溝横斜面、G2:第二溝横斜面、G3:第一突条横斜面、G4:第二突条横斜面、M1:第一中間部、M2:第二中間部、GL:地面、GB:土砂、T1:第一角部、T2:第二角部、T3:第三角部、T4:第四角部、W:水、L:中心面
[0001]
BACKGROUND OF THE INVENTION
The present invention relates to a building structure, a building foundation structure having the building structure, and a building composite structure. More specifically, the building has a plurality of building columnar members whose columns have substantially the same shape with respect to the longitudinal direction, and a long member that penetrates through holes formed in each building columnar member. In particular, the present invention relates to an architectural structure such as a wall body or a plate material which is formed by arranging a plurality of the above-described long members and sequentially connecting the long members through a through-hole, and an architectural foundation structure and an architectural composite structure having the structural body.
[0002]
[Prior art]
Conventionally, as columnar materials for construction, those described in, for example, JP-A-11-210115, JP-A-8-473, and JP-A-2-39008 are known. In the technique described in the first publication, a substantially perpendicular groove is formed at one corner of a prism formed by processing thinned wood, and these are sequentially stacked. Further, in the technique described in the second publication, a flexible panel such as a wire or string is passed through a unit body obtained by processing a thinning material into a cross-section “<” shape, and a flexible panel is formed. It is composed. Furthermore, in the technique described in the third publication, a crack prevention cut is formed at one corner of the prism, a fitting cut is formed at the other corner, and one of the remaining corners is cut. And flat.
[0003]
However, any of the above-mentioned building columnar materials has a problem that the shape is inefficient when the shape is cut out from thinned wood or the like. In any of these prior arts, there is no problem of handling properties at the time of construction, problems of ventilation or drainage at the time of combination, and strength at the time of combination.
[0004]
[Problems to be solved by the invention]
In view of such a conventional situation, the object of the present invention is to make it possible to construct a wall body or a plate material having a high strength efficiently and simply from a thinning material of a smaller diameter, etc. An object of the present invention is to provide a building foundation structure having this and a composite structure for building.
[0005]
[Means for Solving the Problems]
In order to achieve the above object, the architectural structure according to the present invention is characterized by a plurality of building columnar members whose cross-sections are substantially the same shape in the longitudinal direction, and through holes formed in each building columnar material. In a building structure such as a wall body or a plate material configured by arranging a plurality of these columnar members for construction and sequentially connecting the long members through a through hole, Each of the building columnar members is provided with a fitting groove made of a pair of first planes substantially perpendicular to the longitudinal direction on one side thereof, and a protrusion having a pair of second planes substantially orthogonal to the other side. The protrusion has a small surface substantially along the longitudinal direction at the tip of the protrusion, and the protrusion is fitted into the fitting groove so as to bring the first plane and the second plane into surface contact. In this state, a clearance is formed between the fitting groove and the small surface. Each of which has slopes between the fitting groove and the first and second intermediate portions located between the protrusion and the fitting groove, and is bent between adjacent building columnar members. Provided another clearance between the through hole and the elongated member so that it is possible, and the fitting groove and the protrusion are fitted in a state where the adjacent building columnar material is bent. And being fastened and fixed by the long member.
[0006]
The “small surface” at the tip of the ridge in the above characteristics has the following effects.
First, the above-mentioned conventional technique has a problem in that the tip of the ridge is sharp, and the pinching of the hand during the fitting operation with the fitting groove is considered. However, the “small side” of the present application alleviates this risk and improves handling. In addition, according to the inventors' experiment, even if a `` small surface '' is formed, not only does the strength decrease of the fitting portion not matter, but also when bending to change the angle between adjacent columnar materials, Rather, there is no significant collapse of the ridge as much as the tip of the ridge is not sharp, which is advantageous in terms of strength.
Since the protrusion allows the presence of a “small surface”, it is not necessary to sharpen the protrusion considering the fitting strength. Accordingly, a columnar material having a larger diameter can be cut out from a thinned material having a smaller diameter, and the utilization efficiency of the thinned material is improved.
[0007]
In the bent state, the adjacent building columnar material is in contact with one corner located at the end of the fitting groove and the second flat surface of the protrusion, and further, It is desirable that the contact portion contacts the first flat surface of the fitting groove.
[0008]
Between the adjacent building columnar members forming a part of the building structure, the fitting groove and the protrusion are fitted so that the first plane and the second plane are brought into surface contact with each other. It is good to fix | tighten by the said elongate member. Even if a crack occurs in the fitting groove, the crack does not necessarily occur completely continuously along the groove, and even if it occurs in the fitting groove, the protrusion is It can be prevented from entering the crack.
[0009]
In each of the above features, the “small surface” that is the tip surface of the ridge may be formed in a curved (arc-shaped) surface. In each of the above features, it is desirable to use a cored thinning material as the building columnar material.
[0010]
The building structure described in the above features can be used for a revetment wall.
In the invention described in the third publication, water or the like may accumulate in the cut formed in the tip portion of the ridge, causing corrosion. However, in the present application, water does not accumulate on the “small surface” and the ventilation is good, thereby preventing corrosion. Although cracks may occur irregularly, it is not a problem even if the degree of cracking occurs irregularly, especially as a material in the civil engineering field.
If it is a small foreign substance, even if it enters the fitting groove, the fitting is sufficiently ensured by the clearance by the “small surface”. Therefore, it is not necessary to completely remove foreign matters at the time of fitting, and the workability in civil engineering work is particularly excellent.
[0011]
A feature of a building foundation structure according to the present invention is a building foundation structure having a building structure according to the above feature, wherein one of the first and second intermediate portions is a wedge-shaped protrusion with a sharp tip. This is because the protrusion is embedded in the soil or the hardened material. In this case, the other intermediate portion may be a side surface substantially along a center plane that connects the centers of the protrusions and the fitting grooves.
[0012]
On the other hand, the characteristics of the building composite structure including a pair of building structures are a plurality of building columnar members whose cross-sections are substantially the same shape in the longitudinal direction, and through holes formed in each building columnar material. A pair of architectural structures such as wall bodies or plate members, which are configured by arranging a plurality of these columnar members for construction and sequentially connecting the long members through the through holes. Each of the building columnar members is provided with a fitting groove made of a substantially orthogonal surface along the longitudinal direction on one side thereof, and fitted in the fitting groove on the other side. And a first surface, a second intermediate portion between the protrusion and the fitting groove, and the fitting groove. Each of which has a slope between them, and the columnar members for building are drawn together by the long members. It is possible to fit so that the slope of the fitting groove of the columnar material for building and the slope of the ridge are in close contact, and in the fitting state, between the fitting groove and the small surface Each of the building structures is configured in a state in which a clearance is formed, and each of the building columnar members has a protrusion on one of the first and second intermediate portions, and the protrusion is used as the pair of building structures. It is that they are inserted into each other so as to face each other. In this case, the other intermediate portion may be a side surface substantially along a center plane that connects the centers of the protrusions and the fitting grooves.
[0013]
DETAILED DESCRIPTION OF THE INVENTION
Next, the present invention will be described in more detail with reference to the accompanying drawings.
The columnar material 1 for construction shown in FIGS. 1 and 2 is created by cutting out a thinned material having outer circles indicated by reference numerals C1 to C3. This building columnar material 1 is formed in a columnar shape having substantially the same cross section in the longitudinal direction, and a plurality of walls are sequentially connected as shown by reference numerals 1a, 1b, 1c, Create board materials.
[0014]
This building columnar member 1 is provided with a substantially V-shaped fitting groove E1 made of substantially orthogonal surfaces F1 and F1 along the longitudinal direction on one side thereof, and fitted into the fitting groove E1 on the other side. A substantially V-shaped protrusion E2 is provided. If the tip of the fitting protrusion E2 is sharp, when a crack is formed at the bottom of the fitting groove E1, there is a possibility that the crack that the pointed wedge-shaped tip penetrates may be enlarged. Therefore, by providing a small surface F2 substantially along the longitudinal direction at the tip of the fitting protrusion E2, it is possible to prevent the crack from proceeding unexpectedly. Further, by providing the front end surface F2 at the front end of the fitting protrusion E2, it is possible to prevent the worker and the instrument from being damaged and the wedge-shaped front end from being damaged. In addition, when the columnar columnar material is bent, as in the case where the tip of the fitting protrusion E2 is sharp, the sharp wedge-shaped tip hits the groove surface F1, and the columnar columnar members 1a and 1c are prevented from being bent. Nor.
[0015]
In the example of FIG. 2A, the center connecting the fitting protrusion E2 and the fitting groove E1 to both the first and second intermediate portions M1 and M2 between the fitting protrusion E2 and the fitting groove E1. Side surfaces F3 and F4 substantially along the surface L are provided. On the other hand, in the example of FIG. 2B, the first intermediate portion M1 is provided with a side surface F3 substantially along the center plane L, and the other second intermediate portion M2 remains as the corner portion T4. In addition, between each intermediate part M1, M2 and the fitting groove | channel E1, it is slope G1, G2, respectively. Each building columnar material 1 has through holes 2 formed at least in two places from the fitting groove E1 to the front end face F2.
[0016]
When the columnar members for building 1a and 1b are fitted to each other with the fitting groove E1 and the fitting protrusion E2 in close contact with the first protrusion horizontal slope G3 and the second protrusion horizontal slope G4 to the groove surfaces F1 and F1. Adjacent building columnar members 1a and 1b are connected very firmly by fastening fasteners such as long screws and wires, which will be described later. Moreover, when the building columnar member 1 itself expands due to water or the like, these connections are further strengthened. In addition, since the gap 3 is formed between the front end face F2 and the groove faces F1, F1, in addition to suppressing the corrosion of the bottom of the fitting groove E1 that is well ventilated and easily collects water and corrodes, When the fitting protrusion E2 is fitted into the fitting groove E1, even if foreign matter such as gravel is caught, the gap 3 formed by the front end face F2 accepts the foreign matter, so the fitting groove E1 and the fitting protrusion There is no rise between E2.
[0017]
Moreover, when the building columnar members 1a and 1c are fitted and connected in a bent state, the tip end surface F2 can prevent the tip of the fitting ridge E2 from being damaged, and the strength of the wall body and the like can be prevented from being reduced. .
[0018]
In creating the building columnar material 1, a cross-sectional shape is determined by first creating a substantially rectangular column using thinned wood and then cutting the corners. Here, the case where the substantially prismatic shape is a substantially square will be described.
[0019]
A thinning material can form a pair of parallel opposing sides by passing between a pair of saws arranged in parallel. Therefore, if the thinned material is passed between the pair of saws twice, a substantially prismatic column can be easily created. Even when the fitting groove E1 is formed in the first corner portion T1 and the tip surface F2 is formed in the second corner portion T2, when the third triangular portion T3 and the fourth corner portion T4 are left, the thinned wood has an outer shape. It becomes a big thing shown by the code | symbol C1. On the other hand, when the first side face F3 is formed in the first intermediate part M1 by cutting the third triangular part T3, it is necessary to actually form the first corner part T1, the second corner part T2, and the third triangle part T3. For example, it may be located outside the thinned-wood outer shape circle indicated by the symbol C2. At this time, the corner of the substantially prismatic part becomes the curved surface of the thinned material.
[0020]
After the prism is formed, the fitting groove E1 is formed by cutting the groove surfaces F1 and F1 using the first groove lateral slope G1 and the second groove lateral slope G2 using a circular saw or the like protruding at 90 degrees from the reference surface. Form. Also, using a circular saw or the like that protrudes at an angle of 45 degrees with respect to the reference surface, the first ridge transverse slope G3, the second ridge transverse slope G4, and the second groove transverse slope G2 are sequentially used. The first side face F3 and the front end face F2 are formed, and if necessary, the second side face F4 is formed. The tip surface F2 may be created by scraping or cutting the tip of the fitting ridge E2 along the longitudinal direction of the columnar material 1; It is also possible to use the outer surfaces of the circles C2 and C3 as they are or partially. The groove surface F1 may be cut using a circular saw or the like that protrudes with an inclination of 45 degrees with respect to the reference surface.
[0021]
The difference between the building columnar member 1 according to the present invention and the conventional building columnar member 1 ′ will be described while comparing FIG. 1 and FIG. First, in the case where the thickness W of the building columnar materials 1 and 1 ′ is approximately the same, the length of the building columnar material 1 that can be cut out from the thinned material of the same diameter indicated by the symbol C3 is La, whereas the conventional product The length Lb of 1 ′ is shortened. On the other hand, in order to ensure the length Lb of the conventional product 1 ′, it is necessary to reduce the thickness W, and as a result, the strength decreases. In the case of the conventional product 1 ′, when the angle between the groove surfaces F1′F1 ′ is 90 degrees, the angle a1 ′ between the first groove lateral slope G1 ′ and the groove surface F1 ′ is about 45 degrees, and the strength decreases. Is concerned. Moreover, in the conventional product 1 ′, the probability that the center P3 of the thinned-wood outer shape circle C3, which is often eccentric, is located in the fitting groove E1 ′ that is the outside of the building columnar material 1 ′ is high, and the grain is the conventional product 1 'Biasing within causes the entire curve.
[0022]
On the other hand, in this invention, between 1st side F3, 2nd side F4 (1st intermediate part M1, 2nd intermediate part M2), and the fitting groove E1, 1st groove horizontal slope G1, 2nd groove horizontal By providing the slope G2, it is possible to secure both the length La and the thickness W and improve the installation efficiency while maintaining the strength. Further, the angle a1 between the first groove lateral slope G1, the second groove lateral slope G2 and the groove surface F1 is also 90 degrees, and a reduction in strength of the corner portion can be prevented. Moreover, there is a high probability that the center P3 of the thinned material outer circle C3 of the thinned material is located inside the building columnar material 1, and the entire building columnar material 1 is less likely to bend.
[0023]
Then, the structure 4 for buildings, such as a wall body or a board | plate material comprised by connecting sequentially the above-mentioned columnar material 1 for construction below, is demonstrated. In addition, the same code | symbol shall be attached | subjected to the same member, and it shall have the same structure unless there is especially illustration or mention.
[0024]
The first embodiment according to the present invention shown in FIGS. 3 and 4 relates to a horizontal partition wall 10 in which building columnar members are arranged sideways. The horizontal partition bar 10 hangs a top component 13 on an H steel 12 that is embedded in the soil 5 and intermittently supported by a concrete base 11 partially exposed above the ground GL. A 90-degree fitting groove 13a is formed on the lower surface of the top constituent member 13, and the wood screw portion 15a of the wood screw bolt 15 is screwed into the fitting groove. Further, a long screw 17 that is a long member is connected by using a long nut 16 that is screwed to a bolt portion 15 b at the lower end of the wood screw bolt 15, and the lower end of the long screw 17 is embedded and fixed in the concrete foundation portion 11. . The long screw 17 is sequentially inserted with the building columnar member 14 which is the previous building columnar member 1 through the through hole 2, and the fitting groove and the protrusion are sequentially fitted and brought into close contact with each other. Then, by tightening the lower building columnar member 14 upward by a washer 18b and a nut 18a penetrating the long screw 17, the building columnar members 14 forming the horizontal partition rod 10 are firmly connected. Can be fixed to. That is, the wood screw bolt 15, the long nut 16, the long screw 17, the nut 18a and the like constitute a fastener. The tip end face F2 provided at the tip of the ridge forms a gap 3 between each ridge and the fitting groove to improve air permeability and suppress corrosion. In this way, by using a combination of columnar materials having different diameters, it is possible to more efficiently use thinned wood of a small diameter, which leads to effective use of the forest.
[0025]
The second embodiment according to the present invention shown in FIGS. 5 and 6 relates to a vertical partition bar 20 in which building columnar members are arranged vertically. The large-diameter column 22 (1) supported by the concrete foundation 21 embedded in the soil 5 is intermittently arranged, and the small-diameter architectural columnar member 23 (1) is sequentially connected to the large-diameter column 22. Thus, the vertical partition 20 is configured. Wood screw bolts 15 are respectively screwed into both corners of the column 22, and the building columnar members 23 are sequentially connected in a tightened state as in the above-described embodiment. Further, the joint member 24 having the fitting grooves 24a and 24b on both sides is positioned between the other corner of the column 22 and the protrusion of the building columnar member 23, and the wood screw bolt 15, the long nut 16, and the long The whole is tightened and fixed with screws 17 and nuts.
[0026]
A third embodiment according to the present invention shown in FIG. 7 relates to a vertical revetment wall 30 in which building columnar members are arranged vertically. In the vertical revetment wall 30, a plurality of building columnar members 31 (1) are sequentially fitted between the fitting grooves and the protrusions. Each building column 31 is penetrated by a horizontal connecting wire 32 which is a long member, and is fastened and fixed so that each building column 31 is drawn from the end of the building column 31 which is appropriately spaced. To do. Adjacent horizontal connecting wires 32 are bent with a slight margin as between the columnar materials for construction shown by reference numerals 1 a and 1 c in FIG. 1, and a wall surface of a bent river or the like between the water W and the soil 5. It is along. An anchor bolt 33 is connected to the horizontal connecting wire 32 with an appropriate interval between the building columnar members 31 and connected to an anchor 34 embedded in the soil 5, thereby fixing the building columnar member 31 to the soil 5. is there.
[0027]
The fourth embodiment according to the present invention shown in FIGS. 8 and 9 relates to a horizontal revetment wall 40 in which building columnar members are arranged sideways. As shown in FIGS. 1 and 2 (b), the architectural columnar member 42 used in the present embodiment is the architectural columnar member 1 in which the fourth rectangular portion T4 remains in the second intermediate portion M2. The step of forming the second side face F4 is omitted by leaving the fourth square part T4, and the strength is improved by increasing the secondary moment of section. The building columnar member 42 is inserted between the H steels 41 intermittently embedded in the soil 5, and the long screw 17 penetrated through the through hole 2 is tightened from both the upper and lower ends by the nuts 18 a so that the space between the building columnar members 42 is obtained. It is fixed. Moreover, the earth and sand GB is thrown in between the 4th square part T4 side of the columnar material 42 for construction, and the soil 5, and it is preventing that the 4th square part T4 is exposed to the water W side.
[0028]
10 which shows 5th embodiment which concerns on this invention is a figure which shows the relationship between the cross-sectional shape which concerns on different embodiment of the columnar material 1 for construction, and the thinning material which represented the external shape with the code | symbol C4. In this embodiment, what is formed by the reference plane F0, the front end face F2, the first side face F3, and the second side face F4 is used as a substantially prism. Note that the reference surface F0 and the tip surface F2 do not have to be directly cut out, and a part of the thinned material outer circle (surface) indicated by reference numeral C4 may be a part of a substantially prismatic side. After the formation of the substantially rectangular column, the groove surfaces F1, F1, the first and second protrusion horizontal inclined surfaces G3, G4 are formed using a circular saw or the like inclined at 45 degrees with respect to the reference surface. Moreover, after that, the external appearance can be improved by forming the first groove lateral slope G1 and the second groove lateral slope G2 using the same circular saw. Further, in the present embodiment, a plate-like body having a relatively small step can be formed when a plurality of prisms are connected by making the substantially prismatic shape a substantially rectangular shape.
[0029]
The sixth embodiment according to the present invention shown in FIGS. 11 and 12 relates to a floor 50 formed by hanging the building columnar material 52 (1) of FIG. The long screws 17 are passed through the plurality of building columnar members 52, and the plurality of building columnar members 52 are fastened and fixed using the nut 18 a, the washer 18 b, and the long nut 16. Further, the wood screw 53 can be blinded by screwing the wood screw 53 into the groove surface F1 to fix the building columnar material 52 to the base material 51 and fitting another building columnar material 52. . In addition, this embodiment can also be implemented, for example, as a construction material such as a roof base plate, a bench, or a desk.
[0030]
A seventh embodiment according to the present invention shown in FIG. 13 relates to a revetment wall 64 in which building columnar members 42 similar to those in the fourth embodiment shown in FIG. 9 are arranged in the lateral direction. In the fourth embodiment, the building columnar body is installed in the soil 5 by inserting the building columnar member 42 between the H steels 41 embedded intermittently in the ground. On the other hand, this embodiment fills and hardens the concrete 61 which is an example of a hardening material between the square part T4 side of the building columnar member 42 and the soil 5, so that the columnar member 42 for building is used. The difference is that it is firmly fixed to the soil 5. In this case, a revetment wall that is a building foundation structure is formed by the concrete 61, the building structure 4 that is an aggregate of the building columnar members 42, and the foundation wall 62 corresponding to the ground.
[0031]
According to this configuration, each of the building columnar members 42 constituting the building structure 4 is supported and fixed in place by the concrete 61. Thus, even if the load of the laminated building columnar material 42 increases cumulatively as it goes downward, such a cumulative load is prevented from acting on the lower building columnar member 42. Furthermore, the fixing force of the building columnar member 42 by the hardener 61 is further enhanced by the water W water pressure.
[0032]
An anchor bolt 33 is connected to the long screw 17 of the building columnar member 42 and further connected to an anchor 34 embedded in the soil 5. Thereby, the building columnar member 42 is firmly fixed to the soil 5. Moreover, the concrete 61 is penetrated and the drain holes 63 are provided at appropriate intervals so that the water in the soil 5 can be discharged to the river side or the water W on the river side can be discharged to the ground.
[0033]
The eighth embodiment according to the present invention shown in FIG. 14 relates to a revetment wall 65 in which the same building columnar members 31 as those in the third embodiment shown in FIG. 7 are arranged vertically. In the third embodiment, the columnar material 31 for construction is fixed to the soil 5 by connecting the anchor bolts 33 at appropriate intervals of the columnar material 31 for building and connecting to the anchor 34 embedded in the soil 5. In this embodiment, in addition to this, concrete 61 which is an example of a hardening material is filled and hardened between the columnar material 31 for building and the foundation wall 62, so that the columnar material 31 for building is strengthened against the soil 5. It is fixed. Also in this case, the building foundation structure 68 is formed by the concrete 61, the building structure 4 which is an assembly of the building columnar members 31, and the foundation wall 62 corresponding to the ground.
[0034]
According to the same configuration, when arranged in a bent river, as shown in FIG. 14B, a group of building columnar members 31 indicated by symbol J with respect to the flow of the river in the direction of the arrow L1. A tensile force in the direction of the river indicated by the arrow G acts on. Even in this case, since the building columnar member 31 is fixed by the concrete 61, the building columnar member 31 is prevented from being peeled off from the soil 5. Moreover, the concrete 61 is penetrated and the drain holes 63 are provided at appropriate intervals so that the water in the soil 5 can be discharged to the river side or the water W on the river side can be discharged into the soil 5.
[0035]
In the ninth embodiment shown in FIG. 15, unlike the flat front end surface F2 in the first embodiment, the front end surface F2 of the fitting protrusion E2 is formed in a curved surface (arc shape). The curved front end surface F2 may be cut along the longitudinal direction of the columnar material with a curved cutting tool, or a part of the outer surface of the thinned material may be used. By forming the front end surface F2 in such a curved surface shape, the bending through the fitting portion between the adjacent columnar members 1a and 1c becomes smooth.
The tenth embodiment shown in FIG. 16 shows a revetment wall 66 that is a modification of the eighth embodiment of FIG. In the present embodiment, the building structure 4 is configured by penetrating the horizontal connecting wires through the plurality of building columnar members 42 in which the front end surface F2 of the fitting protrusion E2 is formed in an arc shape according to the ninth embodiment. is doing. Moreover, the horizontal strength is improved by embedding the fourth corner portion T4 in the concrete 61, which is a hardening material. Even if the fourth square portion T4 is embedded in the soil 5, the horizontal strength can be improved. By providing a clearance between the through-hole 2 of each columnar member 42 and the long member such as the wire 32, the adjacent columnar members 42 can be easily bent.
The eleventh embodiment shown in FIG. 17 is a composite partition wall 70 (for construction) comprising a pair of first and second walls 71 and 72 (construction structures) formed by connecting columnar members 14 with long bolts 17. Composite structure). Each columnar member 14 for construction has a ridge at the fourth corner T4, and the ridge T4 is opposed to each other by a pair of first and second walls 71 and 72 so as to enter each other. According to this configuration, even if the columnar member 14 has a small diameter, the strength can be improved by combining the first and second walls 71 and 72.
[0036]
Finally, reference is made to the possibilities of yet another embodiment of the invention.
In the embodiment shown in FIG. 7, a wire is used as the long member, but a long screw may be used as the long member as long as it can be bent.
[0037]
In the said embodiment, the columnar material 1 for construction was comprised using the thinning material. However, the architectural columnar member 1 may be configured using a cut-off material or the like. However, the use of thinned wood, which is a core support material, is superior in terms of strength and low warpage.
[0038]
In the seventh and eighth embodiments shown in FIGS. 13 and 14, concrete is used as the hardener 61, but a hardener such as mortar or asphalt may be used. Further, the present invention may be implemented not only as a revetment wall and a decorative base wall 62 in a quay or a dike, but also on a wall of a cliff or an artificial building.
[0039]
【The invention's effect】
As described above, according to the feature of the building columnar material according to the present invention, it is possible to provide a building columnar material that can be efficiently and easily manufactured from a thinning material having a smaller diameter and has excellent handling properties. As a result, it is possible to obtain a building structure with high strength such as a wall or a plate, thereby providing a material and structure suitable for civil works such as found in a building structure such as a revetment wall. I came to get.
[0040]
In addition, the code | symbol entered in the term of the claim is only for the convenience of contrast with drawing, and this invention is not limited to the structure of an accompanying drawing by this entry.
[Brief description of the drawings]
FIG. 1 is a diagram showing a relationship between a cross-sectional shape of a building columnar material and a thinned material.
FIG. 2 is a perspective view of a building columnar material, where (a) has one lateral angle and the other lateral surface, and (b) has two lateral surfaces.
FIG. 3A is a plan view of a horizontal partition wall in which building columnar members are arranged sideways, and FIG. 3B is a front view.
4 is a cross-sectional view taken along the line AA in FIG.
5A is a front view of a vertical partition wall in which building columnar members are arranged vertically, and FIG. 5B is a cross-sectional view taken along line BB in FIG. 5A.
6 is a cross-sectional view taken along the line CC in FIG. 5 (a).
FIG. 7A is a longitudinal sectional view of a vertical revetment wall in which building columnar members are arranged vertically, and FIG. 7B is a DD sectional view of FIG.
FIG. 8A is a plan view of a revetment wall in which building columnar members are arranged sideways, and FIG. 8B is a front view of FIG. 8A.
FIG. 9 is a cross-sectional view taken along line EE in FIG.
FIG. 10 is a diagram showing a relationship between a cross-sectional shape and a thinned material according to different embodiments of a building columnar material.
FIG. 11 is a plan view of a floor formed by hanging a building columnar material on a base material.
12 is a cross-sectional view taken along line FF in FIG.
FIG. 13 is a longitudinal sectional view when the building foundation structure according to the present invention is used as a horizontal revetment wall.
14 (a) is a longitudinal sectional view when the building foundation structure according to the present invention is used as a vertical revetment wall, and FIG. 14 (b) is a DD sectional view of (a).
FIG. 15 is a view corresponding to FIG. 1 and showing another embodiment of a building columnar member.
FIG. 16 is a longitudinal sectional view when the building foundation structure according to the present invention is used as a horizontal revetment wall.
FIG. 17 is a longitudinal sectional view of a composite partition wall (composite structure for building).
FIG. 18 is a view showing a comparative example of a conventional product and a building columnar material according to the present invention.
[Explanation of symbols]
1, 1a, 1b, 1c: Architectural columnar material, 2: Through-hole, 3: Clearance, 4: Building structure, 5: Soil, 10: Horizontal partition, 11: Concrete foundation, 12: H steel, 13: top component material, 13a: fitting groove, 14: building columnar material, 15: wood screw bolt, 15a wood screw portion, 15b bolt portion, 16: long nut, 17: long screw, 18a nut, 18b washer, 20 : Vertical partition, 21: concrete foundation, 22: support, 23: columnar material for building, 24: joint material, 24a, 24b: fitting groove, 30: vertical revetment wall, 31: columnar material for building, 32: Horizontal connecting wire, 33: Anchor bolt, 34: Anchor, 40: Horizontal revetment wall, 41: H steel, 42: Architectural columnar material, 50: Floor, 51: Foundation material, 52: Architectural columnar material, 52a One end, 52b The other end, 53: Wood screw, 61: Hard Material, 62: foundation wall, 63: drainage hole, 64, 65, 66: revetment wall (building foundation structure), 70: composite partition wall, 71: first wall, 72: second wall, C1-4: thinning material Outline circle (surface), P1: center of C1, P2: center of C2, P3: center of C3, E1: fitting groove, E2: fitting protrusion, F0: reference surface, F1: groove surface, F2: tip Surface, F3: first side surface, F4: second side surface, G1: first groove lateral slope, G2: second groove lateral slope, G3: first projection lateral slope, G4: second projection lateral slope, M1: First intermediate part, M2: second intermediate part, GL: ground, GB: earth and sand, T1: first corner part, T2: second corner part, T3: third triangular part, T4: fourth square part, W: water , L: center plane

Claims (10)

断面が長手方向に対しほぼ同一形状の柱状をなす複数の建築用柱状材と、各建築用柱状材に形成した貫通孔を貫通する長尺部材とを備え、これら建築用柱状材の複数本を並べると共に前記長尺部材を貫通孔に貫通させて順次連結して構成した壁体又は板材等の建築用構造体であって、
前記各建築用柱状材は、その一側に長手方向に沿った略直交する一対の第一の平面よりなる嵌合溝を備える一方、他側に略直交する一対の第二の平面を有する突条を備え、この突条の先端には長手方向にほぼ沿って小さな面を有し、第一の平面と第二の平面とを面接触させるように前記嵌合溝に前記突条を嵌合させた状態において前記嵌合溝と前記小さな面との間にクリアランスが形成されるものであり、前記突条及び前記嵌合溝の間に位置する第一、第二中間部と前記嵌合溝との間にそれぞれ斜面を有しており、隣り合う建築用柱状材の間が屈曲可能となるように前記貫通孔と前記長尺部材との間に他のクリアランスを設け、隣り合う建築用柱状材の間を屈曲させた状態でこれらの前記嵌合溝と前記突条とを嵌合させると共に前記長尺部材により締め付け固定してある建築用構造体。
A plurality of building columnar members whose cross sections form columnar shapes that are substantially the same in the longitudinal direction, and a long member that penetrates through holes formed in each building columnar member, and a plurality of these columnar members for building are provided. It is an architectural structure such as a wall body or a plate material that is configured by sequentially connecting the long members through the through holes and arranging them,
Each of the building columnar members is provided with a fitting groove made of a pair of first planes substantially perpendicular to the longitudinal direction on one side thereof, and a protrusion having a pair of second planes substantially orthogonal to the other side. The protrusion has a small surface substantially along the longitudinal direction at the tip of the protrusion, and the protrusion is fitted into the fitting groove so as to bring the first plane and the second plane into surface contact. In this state, a clearance is formed between the fitting groove and the small surface, and the first and second intermediate portions and the fitting groove located between the protrusion and the fitting groove. Each other has a slope between them, and another clearance is provided between the through hole and the elongate member so that the adjacent building columnar material can be bent. The long member and the fitting groove and the protrusion are fitted in a state where the material is bent. Architectural structure that is more fastened.
前記屈曲させた状態において、前記隣り合う建築用柱状材は、前記嵌合溝の端に位置する一方の角部と前記突条の第二の平面とで接触し、さらに、前記小さな面の一部と前記嵌合溝の第一の平面とで接触する請求項1に記載の建築用構造体。  In the bent state, the adjacent building columnar members are in contact with one corner located at the end of the fitting groove and the second flat surface of the ridge, and further, one of the small surfaces. The building structure according to claim 1, wherein the structure and the first flat surface of the fitting groove are in contact with each other. 建築用構造体の一部をなす隣り合う建築用柱状材間において、前記第一の平面と前記第二の平面とを面接触させるように前記嵌合溝と前記突条とを嵌合させて前記長尺部材により締め付け固定してある請求項1に記載の建築用構造体。  Between the adjacent building columnar members forming a part of the building structure, the fitting groove and the protrusion are fitted so that the first plane and the second plane are brought into surface contact with each other. The architectural structure according to claim 1, which is fastened and fixed by the long member. 前記小さな面を円弧状に形成してある請求項1〜3のいずれかに記載の建築用構造体。  The architectural structure according to claim 1, wherein the small surface is formed in an arc shape. 前記建築用柱状材が有芯の間伐材である請求項1〜3のいずれかに記載の建築用構造体。  The building structure according to any one of claims 1 to 3, wherein the building columnar material is a cored thinned material. 護岸壁に使用可能である請求項1〜5のいずれかに記載の建築用構造体。  The building structure according to any one of claims 1 to 5, which can be used for a revetment wall. 請求項1記載の建築用構造体を有する建築基礎構造であって、前記第一、第二中間部の一方が先端が尖った楔状の突条であり、この突条を土中又は硬化材中に埋め込んである建築基礎構造。  It is a building basic structure which has a building structure of Claim 1, Comprising: One of said 1st, 2nd intermediate parts is a wedge-shaped protrusion with the pointed tip, and this protrusion is in soil or hardening material The basic building structure embedded in the building. 他方の中間部が、前記突条と前記嵌合溝との中心を結ぶ中心面にほぼ沿った側面である請求項7記載の建築基礎構造。  The building foundation structure according to claim 7, wherein the other intermediate portion is a side surface substantially along a center plane connecting the centers of the protrusions and the fitting grooves. 断面が長手方向に対しほぼ同一形状の柱状をなす複数の建築用柱状材と、各建築用柱状材に形成した貫通孔を貫通する長尺部材とを備え、これら建築用柱状材の複数本を並べると共に前記長尺部材を貫通孔に貫通させて順次連結して構成した壁体又は板材等の建築用構造体を一対備えた建築用複合構造体であって、
前記各建築用柱状材は、その一側に長手方向に沿った略直交する面よりなる嵌合溝を備える一方、他側に前記嵌合溝に嵌合する突条を備え、この突条の先端には長手方向にほぼ沿って小さな面を有し、前記突条及び前記嵌合溝の間の第一、第二中間部と前記嵌合溝との間にそれぞれ斜面を有しており、前記長尺部材により建築用柱状材を互いに引き寄せることで隣り合う建築用柱状材の前記嵌合溝の斜面と前記突条の斜面とを密接させるように嵌合させることが可能であり、当該嵌合状態において前記嵌合溝と前記小さな面との間にクリアランスが形成される状態で前記各建築用構造体が構成され、前記各建築用柱状材は前記第一、第二中間部の一方が突条であり、この突条を前記一対の建築用構造体で互いに対向させて互いに入り込ませてある建築用複合構造体。
A plurality of building columnar members whose cross sections form columnar shapes that are substantially the same in the longitudinal direction, and a long member that penetrates through holes formed in each building columnar member, and a plurality of these columnar members for building are provided. It is an architectural composite structure comprising a pair of architectural structures such as wall bodies or plate members that are arranged and sequentially connected by penetrating the long members through through holes,
Each of the building columnar members is provided with a fitting groove including a substantially orthogonal surface along the longitudinal direction on one side thereof, and a protrusion that fits in the fitting groove on the other side. The tip has a small surface substantially along the longitudinal direction, and has slopes between the first and second intermediate portions between the ridge and the fitting groove and the fitting groove, It is possible to fit the slopes of the fitting grooves and the slopes of the ridges in close contact with each other by drawing the building pillars together by the long members, In the combined state, each of the building structures is configured in a state where a clearance is formed between the fitting groove and the small surface, and each of the building columnar members has one of the first and second intermediate portions. It is a ridge, and these ridges are made to enter each other with the pair of building structures facing each other. Architectural complex structure that.
他方の中間部が、前記突条と前記嵌合溝との中心を結ぶ中心面にほぼ沿った側面である請求項9記載の建築用複合構造体。  The building composite structure according to claim 9, wherein the other intermediate portion is a side surface substantially along a center plane connecting the centers of the protrusions and the fitting grooves.
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