JPH02247069A - Apparatus for manufacturing metal base combined material - Google Patents

Apparatus for manufacturing metal base combined material

Info

Publication number
JPH02247069A
JPH02247069A JP6892089A JP6892089A JPH02247069A JP H02247069 A JPH02247069 A JP H02247069A JP 6892089 A JP6892089 A JP 6892089A JP 6892089 A JP6892089 A JP 6892089A JP H02247069 A JPH02247069 A JP H02247069A
Authority
JP
Japan
Prior art keywords
molten metal
preform
reinforcing material
mold
metal base
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
JP6892089A
Other languages
Japanese (ja)
Other versions
JP2976437B2 (en
Inventor
Yoichi Shimazaki
嶌崎 陽一
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.)
Suzuki Motor Corp
Original Assignee
Suzuki Motor Corp
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 Suzuki Motor Corp filed Critical Suzuki Motor Corp
Priority to JP1068920A priority Critical patent/JP2976437B2/en
Publication of JPH02247069A publication Critical patent/JPH02247069A/en
Application granted granted Critical
Publication of JP2976437B2 publication Critical patent/JP2976437B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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  • Manufacture Of Alloys Or Alloy Compounds (AREA)

Abstract

PURPOSE:To prevent generation of uncombined part in a metal base combined material by forming an air accumulating part at position near a reinforcing material preform in the inner wall of a metallic mold, and fitting a porous heat resistant material as removable in this are accumulating part. CONSTITUTION:The metallic mold is heated with a heating device and in the inner bottom part thereof, the heated reinforcing material preform 11 is set. In the inner part of the metallic mold, molten metal 12 of Al, etc., is poured with a ladle 26 from a molten metal vessel. In the inner part of the metallic mold, a pressurizing punch 13 is inserted to pressurize the reinforcing material preform 11 and the molten metal 12. By this pressurizing, the molten metal 12 is penetrated into voids in the reinforcing material preform 11 to manufacture the metal base combined material 27. The air accumulated on the surface of the reinforcing material preform 11 during this pressuriz ing, is transferred into the porous heat resistant material 25 of pottery, refractory brick, etc., and not remains in the inner part of the metal base combined material 27. When the metal base combined material 27 solidifies, movable molds 22a, 22b are shifted to right and left directions and the formed based combined material 27 can be taken off.

Description

【発明の詳細な説明】 〔発明の目的〕 (産業上の利用分野) 本発明は、金属基複合材料の製造装置に係り、特に複合
材料中に空気が残留しないようにした金属基複合材料の
製造装置に関する。
Detailed Description of the Invention [Object of the Invention] (Industrial Field of Application) The present invention relates to an apparatus for manufacturing a metal matrix composite material, and in particular to an apparatus for manufacturing a metal matrix composite material in which no air remains in the composite material. Regarding manufacturing equipment.

(従来の技術) 最近、製品の比強度、比剛性を高くする目的でボロン、
炭素、アルミナ、炭化ケイ素等の繊維を有する強化材プ
リフォームに純アルミニュウムの如き金属または合金を
マトリックス金属とする強化繊維成形体を複合させる繊
維強化複合部材料即ち金属基複合材料の開発がされてい
る。
(Prior technology) Recently, boron,
A fiber-reinforced composite material, that is, a metal matrix composite material, has been developed in which a reinforcing fiber molded body having a metal or alloy as a matrix metal such as pure aluminum is combined with a reinforcing material preform having fibers such as carbon, alumina, and silicon carbide. There is.

この金属基複合材料の製造方法は、第5図に示すよなも
ので金型10の内部に強化材プリフォーム11が固定さ
れ、この金型内に強化繊維成形体である溶湯12がラド
ル等により注入され、この溶湯12と前記強化材プリフ
ォーム11が加圧パンチ13により加圧される。この溶
湯は加圧により強化材プリフォーム11の各構成繊維間
に浸透させられ凝固し金属基複合材料が製造される。
The manufacturing method of this metal matrix composite material is as shown in FIG. 5, in which a reinforcing material preform 11 is fixed inside a mold 10, and a molten metal 12, which is a reinforcing fiber molded body, is placed in a ladle or the like. This molten metal 12 and the reinforcing material preform 11 are pressurized by a pressurizing punch 13. This molten metal is forced to penetrate between the constituent fibers of the reinforcing material preform 11 under pressure and solidify, producing a metal matrix composite material.

(発明が解決しようとする課題) このような製造において、−船釣に、強化材プリフォー
ム11の表面等には空気が滞留しているため溶湯12と
強化材プリフォーム11を加圧するときに、この空気が
強化材プリフォーム11の側部等に滞留し複合ができな
い未複合化部14か生じる。この未複合化部]4は溶湯
12や強化材プリフォーム11の比強度、比剛性を低下
させ良質な金属基複合材料を得ることができない。その
ため金型10の内部を真空にしたりあるいは低圧にし、
強化材プリフォーム11に残留する空気を除去する方法
が採用されるが、この方法は溶湯12を注入するときに
周囲の空気が同時に金型10に送り込まれてしまい満足
な結果が得られない。
(Problems to be Solved by the Invention) In such manufacturing, - During boat fishing, air remains on the surface of the reinforcing material preform 11, so when pressurizing the molten metal 12 and the reinforcing material preform 11, This air stays on the sides of the reinforcing material preform 11, resulting in uncompounded portions 14 where compounding cannot be performed. This uncomposited portion] 4 reduces the specific strength and specific rigidity of the molten metal 12 and the reinforcing material preform 11, making it impossible to obtain a high-quality metal matrix composite material. Therefore, the inside of the mold 10 is made vacuum or low pressure,
A method of removing air remaining in the reinforcing material preform 11 is adopted, but this method does not provide a satisfactory result because surrounding air is simultaneously sent into the mold 10 when the molten metal 12 is injected.

これに代わって、第6図に示すように底部に空気ベント
15を有する空気抜孔16を設け、加圧力中の強化材プ
リフォーム11等に残留する空気を空気ベント15、空
気抜孔16を介して大気に放出し、未複合化部が生じな
いような方法が取られている。
Instead, as shown in FIG. 6, an air vent hole 16 having an air vent 15 is provided at the bottom, and the air remaining in the reinforcing material preform 11 etc. under pressure is removed through the air vent 15 and the air vent hole 16. Methods are being taken to ensure that no uncompounded parts are produced by releasing it into the atmosphere.

この方法である程度未複合化部の生成を除去できるが、
数回の加圧を行うと空気ベント15や空気抜孔16に溶
湯]2か差込み反復使用かできなくなる。そこで作業中
度々、空気ベント15や空気抜孔]6の溶湯12を取除
かなければな゛らず、作業に時間がかかり多量の工業的
生産には適さない等の問題があった。
Although this method can eliminate the generation of uncompounded parts to some extent,
If pressurization is performed several times, it becomes impossible to insert the molten metal into the air vent 15 or air vent hole 16 and use it repeatedly. Therefore, it is often necessary to remove the molten metal 12 from the air vents 15 and air vents 6 during the work, which poses problems such as the work is time-consuming and unsuitable for large-scale industrial production.

本発明は、上記問題を解決すべくなされたものであって
滞留する空気により未複合化部が生成されないようにし
た金属基複合飼料の製造装置を得るにある。
The present invention has been made to solve the above-mentioned problems, and it is an object of the present invention to provide an apparatus for producing metal-based composite feed in which uncompounded portions are not generated due to stagnant air.

〔発明の構成〕[Structure of the invention]

(課題を解決するための手段) 本発明は、金型内に強化材プリフォームを配置し、この
金型内にアルミニューム等の溶湯を注入して後強化祠プ
リフォームとアルミニューム等の溶湯を加圧するように
したものにおいて、前記金型の内壁であって強化材プリ
フォームに近接する位置に空気溜部を形成し、この空気
溜部に多孔質耐熱材を取外し自在に装着するようにした
ものである。
(Means for Solving the Problems) The present invention involves arranging a reinforcing material preform in a mold, injecting a molten metal such as aluminum into the mold, and then forming a reinforcing preform and a molten metal such as aluminum. An air pocket is formed in the inner wall of the mold at a position close to the reinforcing material preform, and a porous heat-resistant material is removably attached to this air pocket. This is what I did.

(作 用) 金型の内部位置に強化材プリフォームを配置し、この強
化材プリフォームに近接する位置に設けられた空気溜部
に取外す自在な多孔質耐熱材を設けてから、アルミニュ
ーム等の溶湯が注入され、これ等強化材プリフォーム、
溶湯が加圧パンチにより加圧される。この加圧により強
化材プリフォーム等に残留していた空気が多孔質耐熱材
に移動される。したがって強化材プリフォーム内に空気
が残留することなく、強化材プリフォームと溶湯との金
属基複合材料に未複合化部が生ずるのが防止される。
(Function) A reinforcing material preform is placed inside the mold, and a removable porous heat-resistant material is provided in the air pocket provided in the vicinity of the reinforcing material preform, and then aluminum, etc. The molten metal is injected into the reinforcing material preform,
The molten metal is pressurized by a pressure punch. Due to this pressurization, air remaining in the reinforcing material preform etc. is moved to the porous heat-resistant material. Therefore, no air remains in the reinforcing material preform, and the formation of uncompounded parts in the metal matrix composite material of the reinforcing material preform and the molten metal is prevented.

(実施例) 以下図面について本発明装置の一実施例を説明する。な
お、第5図および第6図と同一部分は同一符号を付しそ
の詳細な説明を省略する。
(Embodiment) An embodiment of the apparatus of the present invention will be described below with reference to the drawings. Note that the same parts as in FIGS. 5 and 6 are designated by the same reference numerals, and detailed explanation thereof will be omitted.

第1図において、金1型20は、底部が四角または円形
等の固定型21と、この固定型21を左右から包囲する
ように移動自在に設けられ短形また半円弧状の移動型2
2a、22bとにより構成されている。この移動型22
a、22bには操作装置(図示せず)に連結される連結
部23a。
In FIG. 1, the mold 1 mold 20 includes a fixed mold 21 with a square or circular bottom, and a movable mold 2 with a rectangular or semicircular arc shape, which is movably provided so as to surround the fixed mold 21 from the left and right.
2a and 22b. This mobile type 22
A and 22b have a connecting portion 23a connected to an operating device (not shown).

23bか設けられており、この連結部23a。23b is provided, and this connecting portion 23a.

23bにより移動操作がされる。この金型20の上部に
は型内を上下動する加圧パンチ13が設けられており、
後述する溶湯等が加圧される。
A moving operation is performed by 23b. A pressure punch 13 that moves up and down within the mold is provided at the top of the mold 20.
Molten metal, etc., which will be described later, are pressurized.

この金型20において固定型2]の上面2]aには空気
溜部24が形成され、この空気溜部24に安価な陶器、
耐火レンガ等の多孔質耐熱材25が取外し自在に装置す
るようにしである。
In this mold 20, an air reservoir 24 is formed on the upper surface 2]a of the fixed mold 2.
The porous heat-resistant material 25, such as firebrick, is designed to be removable.

しかして、このように構成された金型20は加熱装置(
図示せず)により250℃に加熱され、その内底部に7
00℃に加熱された強化材プリフォーム11が配置され
る。この金型20の内部には700℃のアルミニュム等
の溶湯12が溶湯槽(図示せず)からラドル26により
汲込み注がれる(第2図参照)。この金型20の内部に
加圧パンチ13が挿入され、強化材プリフォーム11と
溶湯12とが例えば1000気圧の圧力で加圧される(
第3図参照)。この加圧により溶湯12が強化材プリフ
ォーム11の組織内に浸透され金属基複合月27が製造
される。その加圧中に強化材プリフォーム11の表面に
滞留する空気は陶器、耐火レンガ等の多孔質耐熱材25
に移され、金属基複合材27の内部には残存されない。
Therefore, the mold 20 configured in this way is equipped with a heating device (
(not shown) to 250°C, and the inner bottom of the
A reinforcing material preform 11 heated to 00° C. is placed. A molten metal 12 of aluminum or the like at 700° C. is pumped into the mold 20 from a molten metal tank (not shown) by a ladle 26 (see FIG. 2). A pressure punch 13 is inserted into the mold 20, and the reinforcing material preform 11 and the molten metal 12 are pressurized at a pressure of, for example, 1000 atmospheres (
(See Figure 3). Due to this pressurization, the molten metal 12 penetrates into the structure of the reinforcing material preform 11, and the metal matrix composite moon 27 is manufactured. Air that remains on the surface of the reinforcing material preform 11 during the pressurization is removed from the porous heat-resistant material 25 such as ceramics or firebrick.
, and does not remain inside the metal matrix composite material 27 .

このようにして金属基複合材が凝固すると、移動型22
a、22bが左右に移動することによって(第4図参照
)形成された金属基複合材27を取外すことができる。
When the metal matrix composite material solidifies in this way, the moving mold 22
The formed metal matrix composite material 27 can be removed by moving left and right a and 22b (see FIG. 4).

この場合、金属基複合材27と多孔質耐熱材25との熱
膨張係数の違いにより容易に分離される。
In this case, the metal matrix composite material 27 and the porous heat-resistant material 25 are easily separated due to the difference in coefficient of thermal expansion.

上記場合において数10回の加圧操作により溶湯12が
多孔質耐熱材25に差込まれて多孔質耐熱材25が使用
できなくなるが、この場合には安価な他の多孔質耐熱材
25を取替えて使用すればよい。このときの作業時間は
僅かな時間ですませることがで、作業効率を妨げること
もない。
In the above case, the molten metal 12 is inserted into the porous heat-resistant material 25 after several tens of pressurization operations, and the porous heat-resistant material 25 becomes unusable, but in this case, replace the porous heat-resistant material 25 with another inexpensive one. Just use it. The working time at this time is only a short time, and work efficiency is not hindered.

また、多孔質耐熱材25の大ぎさは強化制プリフォーム
11や溶湯12等の材質にもよるが、概路次のような1
・1安で選定される。
In addition, the size of the porous heat-resistant material 25 depends on the materials of the reinforced preform 11, the molten metal 12, etc., but the general outline is as follows.
・Selected at 1 low.

また、金型20における空気溜部24の位置は強化材プ
リフォーム11に接し、溶湯12が侵入したときに強化
材プリフォーム中の空気が排気される位置に選定される
Further, the position of the air reservoir portion 24 in the mold 20 is selected to be in contact with the reinforcing material preform 11 and at a position where the air in the reinforcing material preform is exhausted when the molten metal 12 enters.

〔発明の効果〕〔Effect of the invention〕

強化材プリフォームを配置した金型内に空気溜部を形成
し、この空気溜部に安価で取外し自在な多孔質耐熱材を
装置し、この金型に溶湯を注入して加圧して金属基複合
材を製造するようにしたから、加圧により強化材プリフ
ォームの残留空気が多孔質耐熱材を移され金属基複合材
に未複合部を生成することがない。
An air pocket is formed in the mold in which the reinforcing material preform is placed, an inexpensive and removable porous heat-resistant material is installed in the air pocket, and molten metal is poured into the mold and pressurized to form a metal base. Since the composite material is manufactured, residual air in the reinforcement preform is transferred through the porous refractory material by pressurization, and no uncomposite portions are created in the metal matrix composite material.

また、加圧生成により多孔質耐熱材に溶湯が差込んだら
、この多孔質耐熱材を金型から外し、他の多孔質耐熱材
に取替えるだけでよいから、取替え作業が簡単にでき量
産される金属基複合材の製造に最適である。
In addition, once the molten metal is inserted into the porous heat-resistant material by pressure generation, it is only necessary to remove the porous heat-resistant material from the mold and replace it with another porous heat-resistant material, making the replacement work easy and mass production possible. Ideal for manufacturing metal matrix composites.

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

第1図は、本発明金属基複合材の製造装置に使用される
金型の概略断面図、第2図、第3図および第4図は、同
金型の加圧工程を説明するための説明図、第5図および
第6図は、従来の金属基複合材の製造装置に使用される
金型の概略断面図である。 ]0・・・金型、11・・・強化材プリフォーム、12
・・・溶湯、13・・・加圧パンチ、14・・・未複合
部、15・・・空気ベンド、16・・・空気抜孔、20
・・・金型、21−・・固定型、22a、22b・・・
移動型、23a23b・・・連結部、24・・・空気溜
部、25・・・多孔質耐熱材、26・・・ラドル、27
・・・金属基複合材。
FIG. 1 is a schematic cross-sectional view of a mold used in the apparatus for manufacturing the metal matrix composite material of the present invention, and FIGS. 2, 3, and 4 are diagrams for explaining the pressurizing process of the mold. The explanatory drawings, FIGS. 5 and 6, are schematic cross-sectional views of a mold used in a conventional metal matrix composite manufacturing apparatus. ]0... Mold, 11... Reinforcement preform, 12
... Molten metal, 13 ... Pressure punch, 14 ... Uncompounded part, 15 ... Air bend, 16 ... Air vent hole, 20
...Mold, 21-...Fixed mold, 22a, 22b...
Movable type, 23a23b... Connecting part, 24... Air reservoir part, 25... Porous heat resistant material, 26... Ladle, 27
...Metal matrix composite material.

Claims (1)

【特許請求の範囲】[Claims] 金型内に強化材プリフォームを配置し、この金型内にア
ルミニュム等の溶湯を注入して後強化材プリフォームと
アルミニュム等の溶湯を加圧するようにしたものにおい
て、前記金型の内壁であって強化材プリフォームに近接
する位置に空気溜部を形成し、この空気溜部に多孔質耐
熱材を取外し自在に装着したことを特徴とする金属基複
合材料の製造装置
A reinforcing material preform is placed in a mold, a molten metal such as aluminum is injected into the mold, and the reinforcing material preform and molten metal such as aluminum are then pressurized. An apparatus for manufacturing a metal matrix composite material, characterized in that an air reservoir is formed in a position close to a reinforcing material preform, and a porous heat-resistant material is removably attached to the air reservoir.
JP1068920A 1989-03-20 1989-03-20 Manufacturing method of metal matrix composite material Expired - Lifetime JP2976437B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP1068920A JP2976437B2 (en) 1989-03-20 1989-03-20 Manufacturing method of metal matrix composite material

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP1068920A JP2976437B2 (en) 1989-03-20 1989-03-20 Manufacturing method of metal matrix composite material

Publications (2)

Publication Number Publication Date
JPH02247069A true JPH02247069A (en) 1990-10-02
JP2976437B2 JP2976437B2 (en) 1999-11-10

Family

ID=13387570

Family Applications (1)

Application Number Title Priority Date Filing Date
JP1068920A Expired - Lifetime JP2976437B2 (en) 1989-03-20 1989-03-20 Manufacturing method of metal matrix composite material

Country Status (1)

Country Link
JP (1) JP2976437B2 (en)

Also Published As

Publication number Publication date
JP2976437B2 (en) 1999-11-10

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