JPS62249734A - Manufacture of molded composite board - Google Patents

Manufacture of molded composite board

Info

Publication number
JPS62249734A
JPS62249734A JP9509586A JP9509586A JPS62249734A JP S62249734 A JPS62249734 A JP S62249734A JP 9509586 A JP9509586 A JP 9509586A JP 9509586 A JP9509586 A JP 9509586A JP S62249734 A JPS62249734 A JP S62249734A
Authority
JP
Japan
Prior art keywords
core material
plate
molding
reinforcing
reinforcing plate
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP9509586A
Other languages
Japanese (ja)
Other versions
JPH0622984B2 (en
Inventor
森本 一男
西河 徹
雅夫 伊藤
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Kobelco Wire Co Ltd
Original Assignee
Shinko Wire Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Shinko Wire Co Ltd filed Critical Shinko Wire Co Ltd
Priority to JP61095095A priority Critical patent/JPH0622984B2/en
Publication of JPS62249734A publication Critical patent/JPS62249734A/en
Publication of JPH0622984B2 publication Critical patent/JPH0622984B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

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  • Laminated Bodies (AREA)

Abstract

(57)【要約】本公報は電子出願前の出願データであるた
め要約のデータは記録されません。
(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

【発明の詳細な説明】 (産業上の利用分野) この発明は、膜構造よりなる多孔質金属を芯材とし、金
属板等の板材を補強材とする成形複合板の製造方法に関
するものである1゜ (従来技術) 従来、建材や構′Ili部材には多くの複合板が使用さ
れており、とくに軽は、高強度複合板としてハニカム構
造の軽金属の芯材を金属板で補強したサンドイッチ複合
板が車体や航空機用構造部材等に広く使用されている。
[Detailed Description of the Invention] (Industrial Application Field) The present invention relates to a method for manufacturing a molded composite plate in which a porous metal having a membrane structure is used as a core material and a plate material such as a metal plate is used as a reinforcing material. 1゜(Prior art) Conventionally, many composite boards have been used for building materials and structural components, and especially for light products, sandwich composite boards with a honeycomb structured light metal core reinforced with metal plates are used as high-strength composite boards. Boards are widely used for car bodies, aircraft structural members, etc.

そしてこの複合板は建材や構造部材としで使用される場
合、平板状体に限らず、種々の形状として適用されるた
め、種々の形状に成形加工することが必廿となる。しか
しこれらの複合板は一般に厚く、補強材が予め表裏両面
に接着された複合板は曲げ加[による引張り側および圧
縮側が補強材により拘束されているため、複合板を成形
加工することは困難である、。
When this composite plate is used as a building material or a structural member, it is not limited to a flat plate, but is applied in various shapes, so it is necessary to mold it into various shapes. However, these composite plates are generally thick, and composite plates with reinforcing materials pre-adhered to both the front and back sides are restrained by the reinforcing materials on the tension side and compression side due to bending, so it is difficult to form composite plates. be,.

(発明の目的〉 この発明はこのような従来の欠点を解消するためになさ
れたものであり、膜fi造よりなる多孔質金属を芯材と
し、金属板前の機材を補強材とする軽量、高強度の複合
板を容易に成形することができる方法を提供するもので
ある1゜ (発明の構成) この発明は、膜構造多孔質金属の板状体からなる芯材の
少なくとも−hの面に補強板をやねせた状態で成形加工
し、ついで芯材と補強板とを接着するようにしたもので
ある。
(Purpose of the Invention) This invention was made in order to eliminate such conventional drawbacks, and it provides a lightweight and high-quality product that uses a porous metal made of membrane filament as a core material and the material in front of the metal plate as a reinforcing material. 1゜ (Structure of the Invention) This invention provides a method for easily forming a strong composite plate. The reinforcing plate is formed in a thin state, and then the core material and the reinforcing plate are bonded.

十ン構成では、成形加[の際には芯材と補強数とは互い
に接着されていない!こめに、相Uに拘束されることな
く変形し、このため容易に成形加Lを行うことができ、
しかも両名を重ね合わせた状態で成形加工するために、
加工後にそのまま常温で、あるいは加熱することにより
両者を確実に接着することがCきる。
In the ten structure, the core material and the reinforcement are not bonded to each other during molding! In addition, it deforms without being constrained by the phase U, and therefore can be easily formed and processed.
Moreover, in order to process the two parts together,
After processing, the two can be reliably bonded at room temperature or by heating.

(実施例) 第1図において、膜構造よりなる多孔質金属の平板状の
芯材1の両面に接着材の層3が重ね合わされ、ざらにて
の外側に補強板2が重ね合わされており、これらは互い
に重ね合わされているだけで、接着はされていない。こ
の積層物40は凹型8b上に載置され、上側から凸型8
aで押圧することにより第2図で示1ように所定の形状
に成形して積層物4とする。そしてこの積層を適宜の加
熱手段で加熱することにより接着材の層3を溶融させ、
これによって補強板2を芯材1の両面に接着させる。
(Example) In FIG. 1, adhesive layers 3 are superimposed on both sides of a porous metal flat core material 1 having a membrane structure, and a reinforcing plate 2 is superimposed on the outer side of the rough surface. These are simply placed on top of each other and are not glued together. This laminate 40 is placed on the concave mold 8b, and the convex mold 8 is placed on the concave mold 8b from above.
By pressing with a, the laminate 4 is formed into a predetermined shape as shown in FIG. Then, by heating this laminated layer with an appropriate heating means, the adhesive layer 3 is melted,
As a result, the reinforcing plate 2 is bonded to both sides of the core material 1.

上記膜構造よりなる多孔質金属の板状体を製;告するに
は、例えばフルミニラム等の溶融金属に金属カルシウム
の発泡材および水素化チタンの増粘材を加えて公知の鋳
造法C鋳造し、多数の独立気泡を形成させ、この′Q泡
休体所定の板厚に明所すればよい。発泡の程度は、見掛
比重が0.27、気泡の大きさが2へ・1011111
1.殻層の厚さが10〜200μのh向性のない構造に
なるように設定するのが好ましい。
To produce a porous metal plate having the above-mentioned membrane structure, for example, a foaming material of calcium metal and a thickening material of titanium hydride are added to molten metal such as fluminiram, and cast using a known casting method C. , a large number of closed cells are formed, and these 'Q foams are allowed to rest in a bright place to a predetermined plate thickness. The degree of foaming is as follows: apparent specific gravity is 0.27, bubble size is 2, 1011111
1. It is preferable to set the shell layer to have a structure having a thickness of 10 to 200 μ and no h-tropism.

また接着材としては熱硬化性の自機材のシート状物を用
いるか、あるいは1ボ4°シ系樹脂やゴム系接着44答
の液状接着材を塗布して用い、補強板としてはアルミニ
ウム板等の金属板を用いればよい。
As the adhesive, a thermosetting sheet of own equipment is used, or a liquid adhesive such as 1-bore 4° resin or rubber adhesive is used, and the reinforcing plate is an aluminum plate, etc. It is sufficient to use a metal plate.

上記成形の過程において、芯材1と接着材の層3と補強
板2とC,LUいに接着されていないために、曲げhを
受けると互いの接触面間でづべりが生じ、それ自体では
剛性の小さい各部材ごとに変形することになり、したが
って成形は講堂に容易になされる。すなわち、各部材が
接着された後に曲げ力を加えると、両面の補強材が曲げ
に対する抵抗力を発揮するために成形が困難であり、芯
材が破壊されて曲げ加工部で複合板が圧縮変形(厚さが
減少)し、あるいは接着部が剥離することになるが、各
部材ごとに曲げ力が加えられるようにすると、変形が容
易になされる。。
In the above molding process, since the core material 1, the adhesive layer 3, the reinforcing plate 2, and C and LU are not bonded to each other, when subjected to bending h, the contact surfaces of each other are squeezed, and the In this case, each member having low rigidity is deformed, and therefore, the molding is easily done in the auditorium. In other words, if bending force is applied after each member is bonded, the reinforcing materials on both sides exhibit resistance to bending, making it difficult to form, and the core material is destroyed and the composite plate is compressively deformed at the bending part. (thickness decreases) or the bonded portion peels off, but if bending force is applied to each member, deformation can be easily achieved. .

発泡アルミニウムの機械的特性は、第4図(A)(F3
)(C)に示すようになり、曲げ加[を行った場合、引
張り側は降伏点まで耐えることができ、したがって降伏
点の直下の点11で曲げ加[を行うようにし、また圧縮
側は降伏点を越えると殻層が座屈するが、圧縮強度は変
動しながら座屈が進行することになるのでその途中の点
12r曲げ加工を行うようにし、また曲げ特性について
は曲げ荷重に対して大きな可撓性が発揮されることにな
り、したがって殻層の破壊される直前の点13で加゛[
を行うようにすればよい。このような条件設定の下で成
形を行えば、芯材が破壊されることなく冷間で成形加工
を行うことがCきる。
The mechanical properties of aluminum foam are shown in Figure 4 (A) (F3
) (C), and when bending is performed, the tension side can withstand up to the yield point, so the bending is performed at point 11 just below the yield point, and the compression side is When the yield point is exceeded, the shell layer buckles, but the buckling progresses while the compressive strength fluctuates, so bending is performed at point 12r in the middle, and the bending properties are large against the bending load. Flexibility will be exhibited, and therefore the shell layer will be increased at point 13 just before it is destroyed.
All you have to do is do this. If molding is performed under such conditions, cold molding can be performed without destroying the core material.

第3図は上記1稈を連続して行う方法を示し、18長い
芯材1を図示しない移送1段により移送させるとともに
、その途中に配置した供給手段30から接着材の層3を
芯材1の両面に供給し、さらにその上に供給手段20か
ら補強板2をそれぞれ供給することにより芯材1の両面
に接ANの關3を介して補強板2を積層する。そしてそ
の積層物を凹型9bと凸型9aとによって挟み付け、所
定の形状に成形する。
FIG. 3 shows a method for continuously carrying out one culm, in which the 18-long core material 1 is transported by a single transport stage (not shown), and a layer 3 of adhesive material is applied to the core material 1 from a supply means 30 disposed in the middle. The reinforcing plates 2 are laminated on both sides of the core material 1 via the connecting links 3 by supplying the reinforcing plates 2 onto both sides of the core material 1 from the supplying means 20. The laminate is then sandwiched between a concave mold 9b and a convex mold 9a to form a predetermined shape.

成形部10は一定閤隔で形成され、その間隔で芯材1が
断続的に移送されることにより順次成形がなされる。ま
た成形がなされた部分は加熱炉9中に送り込まれ、ここ
で加熱されることにより接着材の層3が溶融して芯材1
に補強板2が接着され、成形積層板22が形成される。
The molding portions 10 are formed at regular intervals, and the core material 1 is intermittently transferred at the intervals to perform sequential molding. The formed part is sent into a heating furnace 9, where it is heated so that the adhesive layer 3 melts and the core material 1 is heated.
The reinforcing plate 2 is adhered to the molded laminate 22 to form a molded laminate 22.

このように芯441に対して接着材の層3および補強板
2を重ね、それを成形し、加熱接着させる工程を連続的
に行うようにしてもよい。
In this way, the steps of stacking the adhesive layer 3 and the reinforcing plate 2 on the core 441, molding them, and heat-bonding them may be performed continuously.

なお、上記実施例では芯材の両方に接着材の層および補
強板を重ね合わせた状態で成形部:U #t−tう例を
示したが、いずれか−hのみに接着材の層および補強板
を重ねた状態で成形部りおよび加熱接着を1′iい、そ
の後他方の面に補強板を接着させるようにして6よく、
この場合も成形部、[は同様に容易に行うことができる
In addition, in the above example, an example was shown in which the adhesive layer and the reinforcing plate were superimposed on both of the core materials. With the reinforcing plates stacked one on top of the other, heat bond the molded part for 1'i, then bond the reinforcing plate to the other side for 6 minutes.
In this case as well, the forming part [ can be similarly easily performed.

また接着剤の層を用いずに補強板2を芯材1に直接重ね
合わせた状態で成形し、その成形物を通電加熱すること
により芯材と補強板とを融着によって接着さUるように
してもよい。
In addition, the reinforcing plate 2 is molded directly over the core material 1 without using an adhesive layer, and the core material and the reinforcing plate are bonded by fusion by heating the molded product with electricity. You may also do so.

さらに成形後に他方の面に補強材を接着する代りに、レ
ジンセメントや合成樹脂のような可塑竹材料を塗布しC
硬化さゼることにより耐食性の層を形成させるようにし
てもよい、。
Furthermore, instead of gluing reinforcing material to the other side after molding, a plastic bamboo material such as resin cement or synthetic resin is applied to the other side.
A corrosion-resistant layer may be formed by hardening.

(発明の効果) 以上説明したように、この発明は膜構造多孔質金属の板
状体からなる芯材の少なくとも一方の面に補強板を重ね
せだ状態で成形部、[シ、ついで常温または加熱するこ
とにより芯材と補強板とを接着層により接着するように
したものであり、成形加工の際には芯材と補強板とは豆
いに接着されていないために、相互に拘束されることな
く変形し、このため容易に成形加工を行うことができ、
しかしiJ+i fiを重ね合わせた状態で成形部rす
るために、加工後にそのまま常温または加熱することに
より両者を確実に接着することができる。
(Effects of the Invention) As explained above, the present invention provides a method in which a reinforcing plate is overlaid on at least one surface of a core material made of a plate-like body of porous metal with a membrane structure, The core material and reinforcing plate are bonded together by an adhesive layer by heating, and during the molding process, the core material and reinforcing plate are not bonded to each other, so they are restrained from each other. Therefore, it can be easily molded.
However, since the molded part r is made with iJ+i fi superimposed, the two can be reliably bonded by heating at room temperature or heating after processing.

したがってこの発明によれば、膜構)前条孔質金属の板
状体からなる芯材を利用した軽量r:高強度のl!築、
構造部材を安価に提供することができる。。
Therefore, according to the present invention, the membrane structure) uses a core material made of a porous metal plate to provide lightweight r: high strength l! Built,
Structural members can be provided at low cost. .

【図面の簡単な説明】[Brief explanation of drawings]

第1図および第2図はこの発明を実施するし稈の説明図
であって、第1図は成形前の状態の断面図、第2図は成
形後の状態の断面図、第3図は連続的に成形および接着
を行う■稈の説明図、第41!1m(A)は芯材の引張
り一歪特性図、第4図(B)は芯材の圧縮−歪特性図、
第4図(C)は芯材の曲げ一歪特性図である、。 1・・・膜構造多孔質金属の板状体からなる芯材、2・
・・補強板、3・・・接着材の層、4・・・積層物、8
a。 9a・・・凸型、8b、9b・・・凹型、9・・・加熱
炉、10・・・成形部、22・・・成形積層機。 特許出願人     神鋼鋼線工業株式会社代 埋 人
     弁理士   小谷悦i1同       弁
理士   長1)正向       弁理1   板谷
鷹夫第  1  図 第  3  図 第  4  図 (C)
1 and 2 are explanatory diagrams of a culm for carrying out the present invention, in which FIG. 1 is a sectional view of the state before molding, FIG. 2 is a sectional view of the state after molding, and FIG. 3 is a sectional view of the state after molding. ■An explanatory diagram of the culm that is continuously formed and bonded, No. 41!1m (A) is a tensile strain characteristic diagram of the core material, and FIG. 4 (B) is a compression strain characteristic diagram of the core material.
FIG. 4(C) is a bending strain characteristic diagram of the core material. 1... Core material consisting of a plate-shaped body of porous metal with membrane structure, 2.
... Reinforcement plate, 3... Adhesive layer, 4... Laminate, 8
a. 9a... Convex type, 8b, 9b... Concave type, 9... Heating furnace, 10... Molding section, 22... Molding laminate machine. Patent applicant: Shinko Wire Industry Co., Ltd. Representative: Mr. Etsu Kotani, Patent attorney: I1) Patent attorney: Masamukai, Patent attorney: 1 Takao Itaya, Figure 3, Figure 4 (C)

Claims (1)

【特許請求の範囲】[Claims] 1、膜構造多孔質金属の板状体からなる芯材の少なくと
も一方の面に補強板を重ねた状態で成形加工し、ついで
芯材と補強板とを接着することを特徴とする成形複合板
の製造方法。
1. A molded composite board characterized by forming a core material made of a porous metal plate with a membrane structure, with a reinforcing plate overlaid on at least one side, and then bonding the core material and the reinforcing plate. manufacturing method.
JP61095095A 1986-04-23 1986-04-23 Molded composite board manufacturing method Expired - Fee Related JPH0622984B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP61095095A JPH0622984B2 (en) 1986-04-23 1986-04-23 Molded composite board manufacturing method

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP61095095A JPH0622984B2 (en) 1986-04-23 1986-04-23 Molded composite board manufacturing method

Publications (2)

Publication Number Publication Date
JPS62249734A true JPS62249734A (en) 1987-10-30
JPH0622984B2 JPH0622984B2 (en) 1994-03-30

Family

ID=14128335

Family Applications (1)

Application Number Title Priority Date Filing Date
JP61095095A Expired - Fee Related JPH0622984B2 (en) 1986-04-23 1986-04-23 Molded composite board manufacturing method

Country Status (1)

Country Link
JP (1) JPH0622984B2 (en)

Also Published As

Publication number Publication date
JPH0622984B2 (en) 1994-03-30

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