JP4895046B2 - Cell structure Porous metal material installation structure - Google Patents

Cell structure Porous metal material installation structure Download PDF

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JP4895046B2
JP4895046B2 JP2007259288A JP2007259288A JP4895046B2 JP 4895046 B2 JP4895046 B2 JP 4895046B2 JP 2007259288 A JP2007259288 A JP 2007259288A JP 2007259288 A JP2007259288 A JP 2007259288A JP 4895046 B2 JP4895046 B2 JP 4895046B2
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metal material
porous metal
fixed
installation structure
fixed member
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JP2009085406A5 (en
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健之 末木
啓二 白石
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Railway Technical Research Institute
Sumitomo Electric Toyama Co Ltd
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Sumitomo Electric Toyama Co Ltd
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Description

本発明は、セル構造を有する多孔質金属材の設置構造に関し、特に高い気孔率を有するセル構造多孔質金属材を被固定部材の表面に沿って設置、固定するための設置構造に関する。   The present invention relates to an installation structure for a porous metal material having a cell structure, and particularly to an installation structure for installing and fixing a cell structure porous metal material having a high porosity along the surface of a member to be fixed.

ハニカム構造に組み立てられた金属ハニカム材や、発泡チタン及び発泡アルミニウムに代表される発泡バルク金属材など、多くの種類のセル構造を有する多孔質金属材が知られている。また、近年、メッキ法などを利用してスポンジなどの多孔質形状を転写したセル構造を有する多孔質金属材なども開発されている(例えば、特許文献1参照)。   There are known porous metal materials having many types of cell structures, such as metal honeycomb materials assembled in a honeycomb structure, and foamed bulk metal materials typified by foamed titanium and foamed aluminum. In recent years, a porous metal material having a cell structure in which a porous shape such as a sponge is transferred using a plating method or the like has been developed (for example, see Patent Document 1).

このようなセル構造を有する多孔質金属材は、金属部分の性質の利用を目的とする場合と、セル(気孔)部分の性質の利用を目的とする場合がある。前者には、金属部分の強度や靭性などの機械的性質、伝熱性などの熱的性質、電気伝導度や誘電特性などの電気的・磁気的性質などを利用する場合がある。また、後者には、衝撃吸収、断熱、比重、物質透過などの気孔部分自体の性質の利用、また機能性微粒子の担持など他の機能性物質との組み合わせにおける基材としての利用の場合がある。このようなセル構造を有する多孔質金属材は、その材料としての特徴を活かすように被固定部材上に取り付けられて複合材料として使用されることが多い。   The porous metal material having such a cell structure may be used for the purpose of utilizing the properties of the metal portion or the properties of the cell (pore) portion. The former may utilize mechanical properties such as strength and toughness of the metal part, thermal properties such as heat transfer, and electrical and magnetic properties such as electrical conductivity and dielectric properties. In the latter case, there are cases where the properties of the pore portion itself such as shock absorption, heat insulation, specific gravity, substance permeation, etc. are used, or as a base material in combination with other functional substances such as loading of functional fine particles. . A porous metal material having such a cell structure is often used as a composite material by being mounted on a member to be fixed so as to make use of the characteristics of the material.

ここで被固定部材上に沿ってセル構造を有する多孔質金属材を配置、固定して、複合材料を形成する場合がある。   Here, a composite material may be formed by arranging and fixing a porous metal material having a cell structure along the member to be fixed.

例えば、特許文献2では拡散接合によりセル構造を有する多孔質金属材を被固定部材上に沿って配置、固定する複合材料の形成方法が開示されている。多孔質金属材を被固定部材である金属板上に配置して、金属粉を含む接着剤でこれらを接着させる。これを加熱すると、金属粉が多孔質金属材及び金属板の相互に拡散してこれらを拡散接合するのである。かかる接合では、接合界面が金属組織的に連続になるために強固な接合を得ることができる。
特開平7−150270号公報 特開2000−133277号公報
For example, Patent Document 2 discloses a method of forming a composite material in which a porous metal material having a cell structure is arranged and fixed along a fixed member by diffusion bonding. A porous metal material is arrange | positioned on the metal plate which is a to-be-fixed member, and these are adhere | attached with the adhesive agent containing metal powder. When this is heated, the metal powder diffuses between the porous metal material and the metal plate, and diffuses and joins them. In such joining, since the joining interface is continuous in terms of metal structure, a strong joining can be obtained.
Japanese Patent Laid-Open No. 7-150270 JP 2000-133277 A

近年、90%以上の高い気孔率を有するセル構造多孔質金属材が開発され、その材料としての特徴を活かすように被固定部材の表面に沿って設置、固定する必要が生じている。   In recent years, a cellular porous metal material having a high porosity of 90% or more has been developed, and it is necessary to install and fix it along the surface of the member to be fixed so as to make use of the characteristics of the material.

ここで、特許文献2に開示の拡散接合を用いた方法では、拡散接合される部分が被固定部材と多孔質金属材との接触部分だけである。故に、高い気孔率を有するセル構造多孔質金属材の如きでは、多孔質金属材の接着表面に露出する多くの気孔のため、前記した接触面積が非常に小さいのである。故に、拡散接合によって得られる接合強度は低い。また、被固定部材が金属を拡散しない、熱に弱いFRPやプラスチックである場合にはかかる方法を用いることはできない。   Here, in the method using diffusion bonding disclosed in Patent Document 2, the portion to be diffusion-bonded is only the contact portion between the fixed member and the porous metal material. Therefore, in the case of a cell structure porous metal material having a high porosity, the contact area described above is very small because of many pores exposed on the bonding surface of the porous metal material. Therefore, the bonding strength obtained by diffusion bonding is low. Further, such a method cannot be used when the member to be fixed is FRP or plastic which does not diffuse metal and is weak against heat.

また、高い気孔率を有するセル構造多孔質金属材を被固定部材上にねじやボルトで押圧、固定しようとしても、圧縮に弱い高気孔率多孔質金属材は座屈してしまって固定することは困難である。   Also, even when trying to press and fix a porous metal material having a high porosity on a fixed member with a screw or bolt, the high porosity porous metal material that is weak against compression is buckled and fixed. Have difficulty.

本発明は上記したような状況に鑑みてなされたものであって、FRPやプラスチックなどの熱に弱い素材からなる被固定部材の表面に沿ってもセル構造多孔質金属材を設置、固定が可能であって、しかも互いを強固に固定することが可能なセル構造多孔質金属材の設置構造を提供する。   The present invention has been made in view of the above situation, and it is possible to install and fix a cellular structure porous metal material along the surface of a fixed member made of a heat-sensitive material such as FRP or plastic. And the installation structure of the cellular structure porous metal material which can fix each other firmly is provided.

本発明は、セル構造を有する多孔質金属材を被固定部材の第1面上に配置してこれを固定するための設置構造である。前記多孔質金属材は前記被固定部材側へ向けて圧縮形成された圧縮凹部を有し、前記被固定部材の前記第1面上に固定された軸体は前記圧縮凹部において前記多孔質金属材を貫通する取付穴を貫通し、前記軸体の突出端部は前記圧縮凹部内にて前記多孔質金属材を前記被固定部材に向けて押圧するフランジ部を有することを特徴とする。   The present invention is an installation structure for arranging and fixing a porous metal material having a cell structure on the first surface of a member to be fixed. The porous metal material has a compression recess formed by compression toward the member to be fixed, and the shaft fixed on the first surface of the member to be fixed is the porous metal material in the compression recess. The projecting end portion of the shaft body has a flange portion that presses the porous metal material toward the fixed member in the compression recess.

かかる設置構造によれば、セル構造多孔質金属材を被固定部材に向けて押圧する圧縮凹部の圧縮強度が高いため、セル構造多孔質金属材と被固定部材とを互いに強固に固定することが可能である。しかも、拡散接合法などのように熱を加える必要がないので、被固定部材が金属や無機系材質の場合だけでなく、FRPやプラスチックなどであってもセル構造多孔質金属材の固定が可能である。   According to such an installation structure, since the compressive concave portion that presses the cellular structure porous metal material toward the member to be fixed has high compressive strength, the cell structure porous metal material and the member to be fixed can be firmly fixed to each other. Is possible. Moreover, since it is not necessary to apply heat as in the diffusion bonding method, it is possible to fix the cellular structure porous metal material not only when the member to be fixed is a metal or inorganic material, but also with FRP or plastic. It is.

本発明の1つの実施例は、セル構造を有する多孔質金属材を被固定部材の第1面上に配置してこれを固定する方法であって、多孔質金属材を被固定部材上に向けて押圧して固定する設置構造である。すなわち、多孔質金属材は被固定部材側へ向けて圧縮形成された圧縮凹部を有し、圧縮凹部には多孔質金属材を貫通する取付穴が形成されている。一方、被固定部材の第1面上には軸体が固定されており、該軸体は取付穴を貫通して多孔質金属材の圧縮凹部内に突出している。軸体の突出端部は圧縮凹部内にて多孔質金属材を被固定部材に向けて押圧するフランジ部を有する。   One embodiment of the present invention is a method of disposing a porous metal material having a cell structure on a first surface of a member to be fixed and fixing the same, with the porous metal material facing the member to be fixed. It is an installation structure that is pressed and fixed. That is, the porous metal material has a compression recess that is compressed toward the fixed member side, and an attachment hole that penetrates the porous metal material is formed in the compression recess. On the other hand, a shaft body is fixed on the first surface of the fixed member, and the shaft body passes through the attachment hole and protrudes into the compression recess of the porous metal material. The protruding end portion of the shaft body has a flange portion that presses the porous metal material toward the fixed member in the compression recess.

かかる構造において、圧縮凹部の底部近傍は高い密度を有するため、さらなる圧縮に対して圧縮抵抗が高められている。故に、多孔質金属材を被固定部材に向けてさらに強固に押圧できるので、セル構造多孔質金属材と被固定部材とを互いに強固に固定することが可能である。   In such a structure, since the vicinity of the bottom of the compression recess has a high density, the compression resistance is increased against further compression. Therefore, since the porous metal material can be pressed more firmly toward the member to be fixed, the cell structure porous metal material and the member to be fixed can be firmly fixed to each other.

また、環状板体の中心孔には軸体が貫挿されている。環状板体は、フランジ部と多孔質金属材との間に配置され、フランジ部が多孔質金属材を被固定部材に向けて押圧するとともに、環状板体も多孔質金属材によって押圧されている。環状板体は、その周縁部に沿って突部を有しており、環状板体が多孔質金属材に押圧されるとともに、突部が多孔質金属材のセル内に侵入する。   A shaft body is inserted through the center hole of the annular plate. The annular plate body is disposed between the flange portion and the porous metal material. The flange portion presses the porous metal material toward the fixed member, and the annular plate body is also pressed by the porous metal material. . The annular plate has a protrusion along its peripheral edge, and the annular plate is pressed against the porous metal material, and the protrusion enters the cell of the porous metal material.

かかる構造において、多孔質金属材と軸体とが強固に締結される。軸体は被固定部材に固定されているため、多孔質金属材が被固定部材に強固に固定されるのである。ここで、環状板体とフランジ部とが一体をなしていると、より強固に多孔質金属材と軸体を締結できる。これにより、更に多孔質金属材が被固定部材に強固に固定できるので好ましい。また、金属や無機系材質の場合だけでなく、FRPやプラスチックなどの熱に弱い素材からなる被固定部材の表面に沿ってもセル構造多孔質金属材を設置、固定が可能である。   In such a structure, the porous metal material and the shaft body are firmly fastened. Since the shaft body is fixed to the fixed member, the porous metal material is firmly fixed to the fixed member. Here, when the annular plate body and the flange portion are integrated, the porous metal material and the shaft body can be fastened more firmly. This is preferable because the porous metal material can be firmly fixed to the fixed member. In addition to the case of a metal or an inorganic material, the cell structure porous metal material can be installed and fixed along the surface of a fixed member made of a heat-sensitive material such as FRP or plastic.

ところで、被固定部材にはこれを貫通する固定穴が設けられており、軸体が被固定部材の第1面と対をなす第2面から突出するように固定穴を貫通している。軸体の突出端部は被固定部材の第2面上に固定されている。この第2面に固定された軸体の突出端部は、該第2面に沿って拡がる第2のフランジ部を有する。第2のフランジ部が被固定部材の第2面を第1面側へ向けて押圧することで軸体が被固定部材に固定されている。   By the way, the fixing member is provided with a fixing hole penetrating the fixing member, and the shaft body passes through the fixing hole so as to protrude from the second surface paired with the first surface of the fixing member. The protruding end portion of the shaft body is fixed on the second surface of the fixed member. The protruding end portion of the shaft body fixed to the second surface has a second flange portion that extends along the second surface. The shaft body is fixed to the fixed member by the second flange portion pressing the second surface of the fixed member toward the first surface.

なお、第2のフランジ部は被固定部材の第2面上に与えられた肉盛硬化部に埋入されて被固定部材に固定されている。ここで、肉盛硬化部は、樹脂からなることが好ましい。多孔質金属材がオープンセル構造であると、例えば、多孔質金属材を透過して被固定部材の第1面に達した水分が被固定部材の固定穴を通って、本体内部に浸透してしまうのである。これを肉盛硬化部が防止するのである。   In addition, the 2nd flange part is embed | buried in the build-up hardening part given on the 2nd surface of the to-be-fixed member, and is being fixed to the to-be-fixed member. Here, it is preferable that the build-up hardening part consists of resin. When the porous metal material has an open cell structure, for example, moisture that has permeated through the porous metal material and reached the first surface of the fixed member permeates the inside of the main body through the fixing hole of the fixed member. It ends up. This is prevented by the build-up hardening part.

また、被固定部材の第2面において、固定穴の周囲を切削した凹部を設けて、第2のフランジ部を凹部内に収容してもよい。かかる構造によれば、被固定部材の第2面に凸部がなく、表面の平面性を保てるのである。故に、被固定部材はさらに本体部の面上に沿って配置して、ボルトや接着剤で固定できるのである。   Moreover, the 2nd surface of a to-be-fixed member may provide the recessed part which cut the circumference | surroundings of the fixing hole, and may accommodate a 2nd flange part in a recessed part. According to such a structure, the second surface of the member to be fixed has no convex portion, and the surface flatness can be maintained. Therefore, the member to be fixed can be further arranged along the surface of the main body and fixed with a bolt or an adhesive.

ここで、被固定部材の第1面には熱硬化性樹脂やエポキシなどからなる接着層を与えて多孔質金属材を付加的に固定しても良い。特に、接着層に多孔質金属材が埋入しているとより強固にこれを固定できて好ましいのである。   Here, the porous metal material may be additionally fixed by providing an adhesive layer made of a thermosetting resin or epoxy on the first surface of the fixed member. In particular, it is preferable that a porous metal material is embedded in the adhesive layer because it can be more firmly fixed.

本発明の1つの実施例であるセル構造を有する多孔質金属材を被固定部材の上に配置して固定するための設置構造について、図1乃至図6を用いて詳細に説明する。   An installation structure for arranging and fixing a porous metal material having a cell structure, which is one embodiment of the present invention, on a fixed member will be described in detail with reference to FIGS.

多孔質金属材10は、図1に示すような、ハニカム構造に組み立てられた金属ハニカム材や、図2に示すような、発泡チタンなどの発泡バルク金属材などである。また、オープンセル構造の多孔質体に限らず、クローズドセル構造の多孔質体であってもよい。すなわち、多孔質金属材10は、バルク金属内に多くのセル(気孔)10aを含むような金属材である。   The porous metal material 10 is a metal honeycomb material assembled in a honeycomb structure as shown in FIG. 1 or a foamed bulk metal material such as foamed titanium as shown in FIG. Moreover, the porous body is not limited to the open cell structure, and may be a closed cell structure. That is, the porous metal material 10 is a metal material including many cells (pores) 10a in the bulk metal.

図3に示すように、多孔質金属材10は、FRPや樹脂、金属などからなる被固定部材11の第1面11a上に沿って配置されている。多孔質金属材10の第1面10aには、被固定部材11側に向けて圧縮形成された圧縮凹部12が形成されている。すなわち、圧縮凹部12の底部12a近傍は高い密度を有し、さらなる圧縮に対して圧縮抵抗が高められている。圧縮凹部12の底部12aには、多孔質金属材10を貫通する貫通穴13aが形成されている。なお、被固定部材11には、これを貫通し貫通穴13aと連通する貫通穴13bが形成されている。   As shown in FIG. 3, the porous metal material 10 is disposed along the first surface 11a of the fixed member 11 made of FRP, resin, metal, or the like. A compression recess 12 is formed on the first surface 10a of the porous metal material 10 so as to be compressed toward the fixed member 11 side. That is, the vicinity of the bottom 12a of the compression recess 12 has a high density, and the compression resistance is increased against further compression. A through hole 13 a that penetrates the porous metal material 10 is formed in the bottom 12 a of the compression recess 12. The fixed member 11 is formed with a through hole 13b that passes through the fixed member 11 and communicates with the through hole 13a.

図4を併せて参照すると、リベット体16は、円柱状の軸体16aと軸体の一端部に形成された円盤上のフランジ部16bとからなる。リベット体16の軸体16aは、多孔質金属材10の第1面10aから貫通穴13a及び13bを貫通している。被固定部材11の第2面11bへ突出した軸体16aの突出端部は、被固定部材11の第2面11bに沿って押しつぶされて拡がった変形部17となっている。かかる構造により、変形部17とフランジ部16bとの間に位置する多孔質金属10及び被固定部材11を軸体16aが互いに密着固定せしめるのである。ここで、フランジ部16bは、多孔質金属材10を被固定部材11に向けて押圧しているが、圧縮凹部12の底部12aはこれに対する大なる圧縮抵抗を有しているため、多孔質金属10及び被固定部材11を互いに強固に密着固定せしめることができるのである。換言すれば、被固定部材11に植設されて固定された軸体16aに多孔質金属材10が固定されているのである。なお、リベット体16のフランジ部16bは多孔質金属材10の圧縮凹部12内に収容されていると、多孔質金属材10の第1面10aの平面性を保てるため好ましい。   Referring to FIG. 4 together, the rivet body 16 includes a cylindrical shaft body 16a and a flange portion 16b on a disk formed at one end of the shaft body. The shaft body 16 a of the rivet body 16 passes through the through holes 13 a and 13 b from the first surface 10 a of the porous metal material 10. The protruding end portion of the shaft body 16 a that protrudes to the second surface 11 b of the fixed member 11 is a deformed portion 17 that is crushed and expanded along the second surface 11 b of the fixed member 11. With this structure, the shaft body 16a tightly fixes the porous metal 10 and the fixed member 11 positioned between the deformable portion 17 and the flange portion 16b. Here, the flange portion 16b presses the porous metal material 10 toward the member 11 to be fixed, but the bottom portion 12a of the compression recess 12 has a large compression resistance against this, so the porous metal material 10 10 and the fixed member 11 can be firmly fixed to each other. In other words, the porous metal material 10 is fixed to the shaft body 16a that is implanted and fixed to the fixed member 11. Note that it is preferable that the flange portion 16b of the rivet body 16 is accommodated in the compression recess 12 of the porous metal material 10 because the flatness of the first surface 10a of the porous metal material 10 can be maintained.

ここで図3及び図5に示すように、歯付きワッシャー19をリベット体16のフランジ部16bと多孔質金属材10との間に挿入しても良い。歯付きワッシャー19は環状板体であって、その周縁部に沿って板体から略垂直に立ち上がる突部19aを有する。リベット体16のフランジ部16bが多孔質金属材10を被固定部材11に向けて押圧すると、歯付きワッシャー19の突部19aが多孔質金属材10のセル10a(図1及び2を参照)内に侵入するのである。かかる構造により、リベット体16の軸ぶれが減じられて、多孔質金属10及び被固定部材11を互いに強固に密着固定せしめることができるのである。   Here, as shown in FIGS. 3 and 5, a toothed washer 19 may be inserted between the flange portion 16 b of the rivet body 16 and the porous metal material 10. The toothed washer 19 is an annular plate, and has a protrusion 19a that rises substantially vertically from the plate along its peripheral edge. When the flange portion 16b of the rivet body 16 presses the porous metal material 10 toward the fixed member 11, the protrusion 19a of the toothed washer 19 is in the cell 10a of the porous metal material 10 (see FIGS. 1 and 2). Intrusions. With such a structure, the shaft runout of the rivet body 16 is reduced, and the porous metal 10 and the fixed member 11 can be firmly and firmly fixed to each other.

また、図6に示すように、歯付きワッシャー19はリベット体16のフランジ部16bと一体に形成されていても良い。すなわち、フランジ部16bの周縁部に沿って略垂直に突部16cが形成されているのである。リベット体16のフランジ部16bが多孔質金属材10を被固定部材11に向けて押圧すると、フランジ部16bの突部16cが多孔質金属材10のセル10a内に侵入するのである。かかる構造により、同様に、リベット体16の軸ぶれが減じられて、多孔質金属10及び被固定部材11を互いに強固に密着固定せしめることができるのである。   Further, as shown in FIG. 6, the toothed washer 19 may be formed integrally with the flange portion 16 b of the rivet body 16. That is, the protrusion 16c is formed substantially perpendicularly along the peripheral edge of the flange portion 16b. When the flange portion 16 b of the rivet body 16 presses the porous metal material 10 toward the fixed member 11, the protrusion 16 c of the flange portion 16 b enters the cell 10 a of the porous metal material 10. With this structure, similarly, the shaft runout of the rivet body 16 is reduced, and the porous metal 10 and the fixed member 11 can be firmly and firmly fixed to each other.

ところで、図3に示すように、リベット体16の変形部17は、被固定部材11の第2面11b上に与えられた肉盛り硬化部20に埋め込まれて固定されていてもよい。肉盛り硬化部20はシリコンやエポキシなどの樹脂であることが好ましい。特に、多孔質金属材10がオープンセル構造からなる多孔質材である場合、水がこれを透過するため(図3の矢印Aを参照)、貫通穴13bに沿って被固定部材11の内側に進入することを防止できるのである。   By the way, as shown in FIG. 3, the deformed portion 17 of the rivet body 16 may be embedded and fixed in the build-up curing portion 20 provided on the second surface 11 b of the fixed member 11. The build-up hardening part 20 is preferably a resin such as silicon or epoxy. In particular, when the porous metal material 10 is a porous material having an open cell structure, water passes through the porous metal material 10 (see the arrow A in FIG. 3), so that the inner side of the fixed member 11 along the through hole 13b. It is possible to prevent entry.

多孔質金属材10は、円柱状に取り除いた除去部21を有する。除去部21からは、被固定部材11の第1面11aが露出している。かかる露出部において被固定部材11を貫通する貫通穴22を削孔する。貫通穴22の直径は、除去部21の直径よりも小である。リベット体16によって一体となった多孔質金属材10及び被固定部材11は、本体ステイ23の貫通穴25と貫通穴22とを連通させるように本体ステイ23の上に配置される。固定ボルト24aは貫通穴22を介して本体ステイ23の貫通穴25を貫通し、反対側でナット24bによって固定される。   The porous metal material 10 has a removal portion 21 removed in a columnar shape. From the removal portion 21, the first surface 11a of the fixed member 11 is exposed. The through hole 22 that penetrates the fixed member 11 is drilled in the exposed portion. The diameter of the through hole 22 is smaller than the diameter of the removal portion 21. The porous metal material 10 and the fixed member 11 integrated by the rivet body 16 are disposed on the main body stay 23 so that the through hole 25 and the through hole 22 of the main body stay 23 communicate with each other. The fixing bolt 24a passes through the through hole 25 of the main body stay 23 through the through hole 22, and is fixed by the nut 24b on the opposite side.

なお、被固定部材11の第1面11aに熱硬化性樹脂やエポキシなどからなる接着層を与えてもよい。この接着層に多孔質金属材10が埋入しているとより強固に多孔質金属材10と被固定部材11とを密着固定できて好ましい。   Note that an adhesive layer made of a thermosetting resin or epoxy may be provided on the first surface 11a of the member 11 to be fixed. It is preferable that the porous metal material 10 is embedded in the adhesive layer because the porous metal material 10 and the member 11 to be fixed can be firmly fixed.

上記した実施例によれば、金属や無機系材質の場合だけでなく、FRPやプラスチックなどの熱に弱い素材からなる被固定部材11の表面に沿っても、セル構造を有する多孔質金属材10を設置し、固定することが可能であって、しかも互いを強固に固定することが可能なのである。   According to the above-described embodiment, the porous metal material 10 having a cell structure is formed not only in the case of a metal or an inorganic material but also along the surface of the fixed member 11 made of a heat-sensitive material such as FRP or plastic. Can be installed and fixed, and can be firmly fixed to each other.

本発明のさらなる1つの実施例であるセル構造を有する多孔質金属材を被固定部材の上に配置して固定するための設置構造について、図7を用いて詳細に説明する。   An installation structure for disposing and fixing a porous metal material having a cell structure on a member to be fixed, which is another embodiment of the present invention, will be described in detail with reference to FIG.

図7に示すように、実施例1と同様に、多孔質金属材10及び被固定部材11は、多孔質金属材10の圧縮凹部12からこれらを貫通して設けられた貫通穴13a及び13bに貫挿されたリベット体16によって互いに密着固定されている。なお詳細については実施例1において述べたので、詳述しない。ここで、リベット体16の変形部17は、被固定部材11の第2面11bの表面を切削したざぐり部18内にある。故に、変形部17をその中に埋入する肉盛り硬化部20もざぐり部18内に与えられるのである。かかる構成により、被固定部材11の第2面11bは平面を維持できるのである。   As shown in FIG. 7, as in the first embodiment, the porous metal material 10 and the fixed member 11 are inserted into the through holes 13 a and 13 b provided through the compression recess 12 of the porous metal material 10. The rivet bodies 16 are inserted and fixed to each other. Since details are described in the first embodiment, they will not be described in detail. Here, the deformed portion 17 of the rivet body 16 is in a counterbore portion 18 obtained by cutting the surface of the second surface 11 b of the fixed member 11. Therefore, the build-up hardening part 20 which embeds the deformation | transformation part 17 in it is also given in the counterbore part 18. FIG. With this configuration, the second surface 11b of the fixed member 11 can maintain a flat surface.

以上の如く、リベット体16によって一体となった多孔質金属材10及び被固定部材11は、例えば、アルミニウムの板材からなる取付板27の第1面27a上に接着材によって固定される。若しくは、多孔質金属材10の一部に貫通穴である切削穴31を設けて、露出した被固定部材11の第1面11aから被固定部材11を貫通する貫通穴32を設ける。ここで切削穴31の直径は、貫通穴32の直径よりも大である。取付板27には、貫通穴32とほぼ同じ直径の貫通穴33が設けられており、貫通穴32及び33が一直線で並んで連通するように多孔質金属材10及び被固定部材11と取付板27とが配置される。   As described above, the porous metal material 10 and the fixed member 11 integrated by the rivet body 16 are fixed to the first surface 27a of the mounting plate 27 made of, for example, an aluminum plate by an adhesive. Or the cutting hole 31 which is a through hole is provided in a part of the porous metal material 10, and the through hole 32 which penetrates the to-be-fixed member 11 from the exposed 1st surface 11a of the to-be-fixed member 11 is provided. Here, the diameter of the cutting hole 31 is larger than the diameter of the through hole 32. The mounting plate 27 is provided with a through hole 33 having substantially the same diameter as the through hole 32, and the porous metal material 10 and the fixed member 11 and the mounting plate so that the through holes 32 and 33 communicate with each other in a straight line. 27 are arranged.

固定用ボルト34aは貫通穴32及び33に貫挿されるとともに、固定用ボルト34aの頭部は切削穴31内にある。固定用ボルト34aは取付板27の第2面27b側からナット34bと螺合される。ここで、リベット体16の変形部17及び肉盛り硬化部20はざぐり部18内にあるから、被固定部材11と取付板27とを密着固定できるのである。また、固定用ボルト34aとナット34bとは間に圧縮座屈されやすい多孔質金属材を介在させていないから、互いに強固に固定できるのである。   The fixing bolt 34 a is inserted into the through holes 32 and 33, and the head of the fixing bolt 34 a is in the cutting hole 31. The fixing bolt 34a is screwed to the nut 34b from the second surface 27b side of the mounting plate 27. Here, since the deformed portion 17 and the build-up hardening portion 20 of the rivet body 16 are in the counterbore portion 18, the fixed member 11 and the mounting plate 27 can be tightly fixed. In addition, since the fixing bolt 34a and the nut 34b do not interpose a porous metal material that is easily compressed and buckled, they can be firmly fixed to each other.

なお、本体ステイ23上には、取付板27及び被固定部材11が固定ボルト44a及びナット44bによって固定される。この場合においても固定ボルト44aの頭部は、多孔質金属材10に形成された切削穴35内にあるが、上記した構造と同一であるので詳述しない。   On the main body stay 23, the mounting plate 27 and the fixed member 11 are fixed by fixing bolts 44a and nuts 44b. Also in this case, the head of the fixing bolt 44a is in the cutting hole 35 formed in the porous metal material 10, but it will not be described in detail because it is the same as the structure described above.

上記した取付構造によれば、リベット体16によって一体となった多孔質金属材10及び被固定部材11を剛性の高い取付板27上に沿って設置、固定することができる。故に、FRPなどの被固定部材11の剛性を取付板27で補強することが可能である。これとともに、多孔質金属材10を被固定部材11とともに、取付板27から着脱することが容易にできるのである。故に、多孔質金属材10の経年劣化などにより交換することが簡単にできるのである。   According to the mounting structure described above, the porous metal material 10 and the fixed member 11 integrated by the rivet body 16 can be installed and fixed along the highly rigid mounting plate 27. Therefore, the rigidity of the fixed member 11 such as FRP can be reinforced by the mounting plate 27. At the same time, the porous metal material 10 can be easily detached from the mounting plate 27 together with the fixed member 11. Therefore, it is possible to easily replace the porous metal material 10 due to deterioration over time.

セル構造多孔質金属材の図である。It is a figure of a cell structure porous metal material. セル構造多孔質金属材の図である。It is a figure of a cell structure porous metal material. 本発明による設置構造の要部の部分断面図である。It is a fragmentary sectional view of the principal part of the installation structure by this invention. 本発明による設置構造に使用される部材の斜視図である。It is a perspective view of the member used for the installation structure by this invention. 本発明による設置構造に使用される部材の斜視図である。It is a perspective view of the member used for the installation structure by this invention. 本発明による設置構造に使用される部材の斜視図である。It is a perspective view of the member used for the installation structure by this invention. 本発明による設置構造の要部の部分断面図である。It is a fragmentary sectional view of the principal part of the installation structure by this invention.

符号の説明Explanation of symbols

10 多孔質金属材
10a セル(気孔)
11 被固定部材
11a 第1面
11b 第2面
12 圧縮凹部
16 リベット体
16a 軸体
16b フランジ部
17 変形部
18 ざぐり部
19 歯付きワッシャー
20 肉盛り硬化部
23 本体ステイ
24a、34a、44a 固定ボルト
24b、34b、44b ナット
27 取付板
10 Porous metal material 10a Cell (pore)
11 Fixed member 11a 1st surface 11b 2nd surface 12 Compression recessed part 16 Rivet body 16a Shaft body 16b Flange part 17 Deformation part 18 Counterbore part 19 Toothed washer 20 Overlay hardening part 23 Main body stay 24a, 34a, 44a Fixing bolt 24b , 34b, 44b Nut 27 Mounting plate

Claims (11)

セル構造を有する多孔質金属材を被固定部材の第1面上に配置してこれを固定するための設置構造であって、
前記多孔質金属材は前記被固定部材側へ向けて圧縮座屈形成して圧縮抵抗を高めた圧縮凹部を有し、前記被固定部材の前記第1面上に固定された軸体は前記圧縮凹部において前記多孔質金属材を貫通する取付穴を貫通し、前記軸体の突出端部は前記圧縮凹部内にて前記多孔質金属材を前記被固定部材に向けて押圧するフランジ部を有することを特徴とする多孔質金属材の設置構造。
An installation structure for fixing a porous metal material having a cell structure on the first surface of the member to be fixed,
The porous metal material has a compression recess that is compressed and buckled toward the fixed member side to increase the compression resistance, and the shaft body fixed on the first surface of the fixed member is the compressed member. The recess penetrates through the mounting hole penetrating the porous metal material, and the protruding end of the shaft body has a flange portion that presses the porous metal material toward the fixed member in the compression recess. The installation structure of the porous metal material characterized by this.
前記軸体と同心であって前記フランジ部と前記多孔質金属材との間に配置された環状板体は、その周縁部に沿って突部を有し、前記突部が前記多孔質金属材のセル内に侵入していることを特徴とする請求項1記載の設置構造。   The annular plate body that is concentric with the shaft body and disposed between the flange portion and the porous metal material has a protrusion along its peripheral edge, and the protrusion is the porous metal material. The installation structure according to claim 1, wherein the installation structure penetrates into the cell. 前記環状板体は、前記フランジ部と一体をなしていることを特徴とする請求項2記載の設置構造。   The installation structure according to claim 2, wherein the annular plate body is integrated with the flange portion. 前記軸体は前記被固定部材を貫通する固定穴を通って前記第1面と対をなす第2面から突出するとともにその突出端部が前記第2面上に固定されていることを特徴とする請求項1乃至3のうちの1に記載の多孔質金属材の設置構造。   The shaft body protrudes from a second surface that forms a pair with the first surface through a fixing hole that penetrates the fixed member, and a protruding end portion is fixed on the second surface. The installation structure of the porous metal material according to any one of claims 1 to 3. 前記第2面に固定された前記突出端部は、前記第2面に沿って拡がる第2のフランジ部を有することを特徴とする請求項4記載の多孔質金属材の設置構造。   The installation structure of the porous metal material according to claim 4, wherein the protruding end portion fixed to the second surface has a second flange portion that extends along the second surface. 前記第2のフランジ部を埋入した肉盛硬化部を前記第2面上に与えることを特徴とする請求項5記載の多孔質金属材の設置構造。   6. The porous metal material installation structure according to claim 5, wherein a built-in hardened portion in which the second flange portion is embedded is provided on the second surface. 前記肉盛硬化部は、樹脂からなることを特徴とする請求項6記載の設置構造。   The installation structure according to claim 6, wherein the build-up hardening part is made of resin. 前記固定穴の周囲を切削したざぐり部を前記第2面に有し、前記第2のフランジ部が前記ざぐり部内に収容されていることを特徴とする請求項5乃至7のうちの1に記載の多孔質金属材の設置構造。   The counterbore part which cut the circumference | surroundings of the said fixing hole is provided in the said 2nd surface, and the said 2nd flange part is accommodated in the said counterbore part, The one of Claims 5 thru | or 7 characterized by the above-mentioned. The installation structure of porous metal material. 前記被固定部材はさらに本体部に固定されていることを特徴とする請求項8記載の多孔質金属材の設置構造。   The porous metal material installation structure according to claim 8, wherein the fixed member is further fixed to the main body. 前記被固定部材の前記第1面には接着層を与えることを特徴とする請求項1乃至9のうちの1に記載の多孔質金属材の設置構造。   The porous metal material installation structure according to claim 1, wherein an adhesive layer is provided on the first surface of the fixed member. 前記接着層に前記多孔質金属材が埋入していることを特徴とする請求項10記載の多孔質金属材の設置構造。
The porous metal material installation structure according to claim 10, wherein the porous metal material is embedded in the adhesive layer.
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