JPS6338894A - Heat exchanger with pin fin of laminated structure and manufacture thereof - Google Patents

Heat exchanger with pin fin of laminated structure and manufacture thereof

Info

Publication number
JPS6338894A
JPS6338894A JP17863186A JP17863186A JPS6338894A JP S6338894 A JPS6338894 A JP S6338894A JP 17863186 A JP17863186 A JP 17863186A JP 17863186 A JP17863186 A JP 17863186A JP S6338894 A JPS6338894 A JP S6338894A
Authority
JP
Japan
Prior art keywords
flat plate
heat transfer
pin
fin
fins
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.)
Pending
Application number
JP17863186A
Other languages
Japanese (ja)
Inventor
Sukeaki Hamanaka
亮明 浜中
Yoshiaki Aoki
美昭 青木
Yoshinori Watanabe
吉典 渡辺
Akihiro Kawada
章広 川田
Mitsuo Kamisaka
光男 神坂
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.)
Mitsubishi Heavy Industries Ltd
Original Assignee
Mitsubishi Heavy Industries 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 Mitsubishi Heavy Industries Ltd filed Critical Mitsubishi Heavy Industries Ltd
Priority to JP17863186A priority Critical patent/JPS6338894A/en
Publication of JPS6338894A publication Critical patent/JPS6338894A/en
Pending legal-status Critical Current

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  • Heat-Exchange Devices With Radiators And Conduit Assemblies (AREA)

Abstract

PURPOSE:To eliminate discrepancy between a heat transfer passage for high temperature gases and a heat transfer passage for low temperature gases and provide effective heat exchange by providing both on the outside surface and on the reverse surface of a heat transfer plate a plurality of pin fins of a certain shape and dimension with the central axes of fins on both surfaces mutually matching and both pins being erected continuously and as one body and providing dents each of which is concentric with and has about the same diameter as the tip of the pin fin and which is made on another heat transfer plate and stacking those heat transfer plates in a laminated arrangement. CONSTITUTION:On both surfaces at the outside and at the reverse side of a flat plate 16 a member on which pin fins 17A are installed and a member on which pin fins 17B are installed are provided with the center axes n-n for a 17A and 17B on a line, and on another flat plate a member on which dents 18A installed and a member on which dents 18B are installed are provided with the center axes n'-n' aligned with axes n-n provided. Those flat plates are alternately stacked to form a laminated structure and they are soldered together. Then on a flat face with the dents 18 a soldering material in pasts state with a flux contained is spreaded and pressed down by a flat tool 10 like a trowel to place a complete fill 21 in each dent 18.

Description

【発明の詳細な説明】 〈産業上の利用分野〉 この発明はカーエアコン等の空調用熱交換器や、排熱利
用機器等において利用されるガスとガス間に熱交換を効
率的に行わせろ積層構造のビンフィン熱交換器およびそ
の作製方法に関する。
[Detailed Description of the Invention] <Industrial Application Field> This invention is intended to efficiently exchange heat between gases used in air conditioning heat exchangers such as car air conditioners, waste heat utilization equipment, etc. The present invention relates to a bin fin heat exchanger with a laminated structure and a method for manufacturing the same.

〈従来の技術〉 本発明者等は、実願昭54−43369号、実願昭57
−159017号および実願昭57−173312号に
おいて、偏平冷媒管の外面を蛇行状にコルゲート成形し
た熱交換器の代りにビンフィンを取り付けることによっ
て熱交換の高性能化、小型化および軽量化を図ることが
できろことを示した。
<Prior art> The present inventors have disclosed Utility Application No. 54-43369 and Utility Application No. 57
In No. 159017 and Utility Model Application No. 173312/1987, the heat exchange is improved in performance, smaller in size, and lighter in weight by attaching bin fins instead of the heat exchanger in which the outer surface of the flat refrigerant tube is corrugated into a meandering shape. It showed what could be done.

しかし、ガス−ガス間のクロスフロー(交叉流)、カウ
ンターフロー(対交流)を利用して熱交換させるタイプ
の積層構造をもつ熱交換器において、ビンフィン構造を
導入することによって、熱交換器をもっと高性能化、小
型軽墓化することができる。たとえば第9図に示すよう
に、矩形状の隔壁兼用の伝熱平板1と所定の径、所定長
さ、所定配列の複数のビンフィン3A、3Bを交互に積
層し、各ビンフィン端を平板1にろう付け(又は接着)
させろとともに、積層配設した平板1の対向端部に一層
おきに閉塞板2A(又は2B)を接合させた構成の積層
構造のビンフィン熱交換器が知られておった。
However, by introducing a bin-fin structure, the heat exchanger can be It is possible to improve the performance and make the tomb smaller and lighter. For example, as shown in FIG. 9, a rectangular heat transfer flat plate 1 that also serves as a partition wall and a plurality of bin fins 3A and 3B of a predetermined diameter, a predetermined length, and a predetermined arrangement are stacked alternately, and each bin fin end is attached to the flat plate 1. Brazing (or gluing)
In addition, there has been known a bin-fin heat exchanger having a laminated structure in which closing plates 2A (or 2B) are joined to opposite ends of flat plates 1 arranged in a laminated manner every other layer.

また、この種の積層構造の熱交換器を効率的に、また正
確に組立てろ作製方法がなく、ガスタービン燃焼筒の組
立て技術の方法を利用した作製方法にしt:がって作製
していた。
In addition, there is no efficient and accurate method for assembling this type of heat exchanger with a laminated structure, and the fabrication method has been based on the assembly technology of gas turbine combustion tubes. .

このガスクービン燃焼筒の組立て方法は第10図に示す
ように、二枚の平板間を複数の円柱を介して接合するも
のであった。すなわち、耐熱合金(Ni基、CO基など
)製平板1と所定長の円柱3および円柱径よりも若干大
径の貫通孔7を所定数配列で設けた炭素鋼板製介挿板6
 (鋼板厚さは、円柱3の長さと同等もしくは若干短い
)を貫通孔7へ円柱3を挿入(第10図(III)参照
)させて積層し、拡散接合(真空中で加熱加圧)もしく
は予め平板1と円柱3端面にろう打箔(不記載)を介挿
して液相拡散接合(一種のろう付)を行なった後(第1
0図(bl参照)、エツチング液中で炭素鋼のみを溶解
除去する方法が知られておった(第10図(C)参照)
As shown in FIG. 10, the method for assembling this gas cubicle combustion tube was to join two flat plates via a plurality of cylinders. That is, a flat plate 1 made of a heat-resistant alloy (Ni-based, CO-based, etc.), a cylinder 3 of a predetermined length, and a carbon steel insert plate 6 provided with a predetermined number of through holes 7 having a diameter slightly larger than the cylinder diameter.
(The thickness of the steel plates is the same as or slightly shorter than the length of the cylinder 3) are laminated by inserting the cylinder 3 into the through hole 7 (see Figure 10 (III)) and bonding by diffusion bonding (heating and pressing in a vacuum) or After preliminarily inserting brazing foil (not shown) between the end faces of the flat plate 1 and the cylinder 3 and performing liquid phase diffusion bonding (a type of brazing) (first
0 (see BL), a method was known in which only carbon steel was dissolved and removed in an etching solution (see Fig. 10 (C)).
.

〈発明が解決しようとする問題点〉 ところが、上述した従来の積層構造をもつビンフィン熱
交換器の作製は、 ■ 積層した平板1間において、所定長さの円柱3の画
先端面で接合してビンフィンを形成させるため、第11
図falに示すように各段の平板の表裏二面のビンフィ
ン3Aと3Bの中心軸が一致する確率は小さく、殆んど
の場合第11図(blに示すようにビンフィン3Aと3
Bの中心軸にずれ(g)を生じる。
<Problems to be Solved by the Invention> However, in the production of the above-mentioned conventional bin-fin heat exchanger having a laminated structure, ■ the laminated flat plates 1 are joined at the top surfaces of the cylinders 3 of a predetermined length; In order to form a bin fin, the 11th
As shown in Figure fal, the probability that the central axes of the bin fins 3A and 3B on the front and back sides of the flat plate of each stage coincide is small, and in most cases, as shown in Figure 11 (bl)
A shift (g) occurs in the central axis of B.

■ その結果、第11図(blに示すように高温排ガス
流4aから低ンWガス流5aへの熱交換に当って、熱交
換部材(通常、金属)中の伝熱通路は9となり第11図
(alに示す伝熱通路8よりも長くなり伝熱性能の低下
を招く。
■ As a result, as shown in Figure 11 (bl), when exchanging heat from the high temperature exhaust gas stream 4a to the low temperature W gas stream 5a, the number of heat transfer passages in the heat exchange member (usually metal) becomes 9 and the 11th It becomes longer than the heat transfer passage 8 shown in Figure (al), leading to a decrease in heat transfer performance.

■ ずれ(glの発生は単に性能面ばかりでなく、強度
面での低下も招(。すなわちビンフィンの軸方向の圧縮
荷重又は引張り荷重を受けると、(b)の場合には平板
は曲げモーメン1−を受け、前曲する。その結果ビンフ
ィンも曲げを受けて熱交の耐荷重が大幅に低下する欠点
があった。
■ The occurrence of misalignment (gl) causes not only a decrease in performance but also a decrease in strength. - and bends forward.As a result, the bottle fins are also bent, which has the disadvantage that the load capacity of the heat exchanger is significantly reduced.

■ 従来製法においては、円柱3の切断、介挿板6の貫
通孔7内への円柱挿入に莫大な工数を要し、製造コスト
の高騰を招くと共に、円柱3の切断長さのばらつきはそ
のまま平板lとの接合欠陥、平板の変形となる欠点があ
った。
■ In the conventional manufacturing method, cutting the cylinder 3 and inserting the cylinder into the through hole 7 of the insertion plate 6 requires a huge amount of man-hours, leading to a rise in manufacturing costs, and the variation in the cut length of the cylinder 3 remains unchanged. There were defects in joining with the flat plate 1 and deformation of the flat plate.

そこでこの発明は、このような従来の積層構造のビンフ
ィン熱交換器の欠点を除去するためになされたものであ
って、高温ガス流から低温ガス流への熱交換に当って、
ビンフィンによって形成される伝熱通路のずれgがなく
、熱伝動率の高い積層構造をもつビンフィン熱交換器を
提供しようとするものである。
Therefore, this invention was made in order to eliminate the drawbacks of such a conventional stacked-structure bin-fin heat exchanger.
It is an object of the present invention to provide a bin fin heat exchanger having a laminated structure with high thermal conductivity and no deviation g of the heat transfer passage formed by the bin fins.

また、この発明は、このような積層構造をもつビンフィ
ン熱交換器の作製方法を提供しようとするものである。
The present invention also provides a method for manufacturing a bin-fin heat exchanger having such a laminated structure.

く問題点を解決するための手段〉 以上の目的を達成するための本発明の積層構造をもつビ
ンフィン熱交換器は、 平板の表裏二面の対向する位置にそれぞれ一定形状、寸
法および配列にしたがって複数のビンフィンをそれぞれ
表裏二面のビンフィンの中心軸が互いに一致するように
連続一体的に直立させた伝熱平板と、平板の表裏二面に
それぞれ前記伝熱平板の複数のビンフィンの先端が当接
する位置にそれぞれビンフィンの先;15径とほぼ同径
の凹みを形成した伝熱平板とを一定の間隔を隔てて互い
に平行に積層配置したことを特徴とするものである。
Means for Solving the Problems> In order to achieve the above objects, the bin-fin heat exchanger with the laminated structure of the present invention has the following features: A heat transfer flat plate in which a plurality of bottle fins are continuously and integrally stood upright so that the central axes of the bottle fins on the front and back surfaces coincide with each other; It is characterized in that heat transfer flat plates each having a concave diameter approximately the same as the tips of the bottle fins and 15 diameters are stacked and arranged parallel to each other at a constant interval.

また、本発明の積層構造をもつビンフィン熱交換器の作
製方法は、 第1の平板の少なくとも一方の面に予め設定した形状、
寸法および配列にしたがって複数のビンフィンをそれぞ
れ連続一体的に直立させて形成する工程と、 第2の平板の少なくとも一方の面に、前記第1の伝熱平
板に形成したビンフィンの中心軸と一致した軸心を有す
るとともに、当該ビンフィンの先端径とほぼ同径の凹み
を形成した後、その凹みにペースト状ろう材を充填し、
先記第1の伝熱平板のビンフィン先端と凹みとを合せ第
1の伝熱平板と第2の伝熱平板を一定の間隔を隔てて積
層配設する工程とから成ることを特徴とするものである
Further, the method for manufacturing a bin-fin heat exchanger having a laminated structure according to the present invention includes: a shape set in advance on at least one surface of the first flat plate;
a step of forming a plurality of bottle fins in a continuous and integral manner according to their dimensions and arrangement; After forming a recess having an axis and approximately the same diameter as the tip diameter of the bottle fin, filling the recess with a paste brazing material,
It is characterized by comprising the step of aligning the tip of the bottle fin of the first heat transfer flat plate with the recess and arranging the first heat transfer flat plate and the second heat transfer flat plate in a stacked manner at a constant interval. It is.

〈作   用〉 以上のように構成されているから、 ■ 平板とビンフィンは、靭性加工法(熱間あるいは温
間)又は加圧鋳造法などで連続一体的に成形されている
ので、莫大な数のビンフィン部品点数がmRし、かつビ
ンフィン長さのばらつきが低減できる。
〈Function〉 Since they are constructed as described above, ■ Since the flat plate and the pin fins are formed continuously and integrally by toughness processing method (hot or warm) or pressure casting method, they can be manufactured in huge numbers. The number of bottle fin parts can be reduced to mR, and variations in bottle fin length can be reduced.

O型成形であるためビンフィン軸と凹みの中心軸のずれ
がない。
Since it is O-shaped molded, there is no misalignment between the bottle fin axis and the center axis of the recess.

O凹みを設定することにより積層時に他部材のビンフィ
ン先端が凹みに陥入するので積層組立時の位置決めが容
易でかつ積層後の搬送時やろう何時のずれを生じにくく
、高精度の接合が可能となる。
By setting the O recess, the tips of the pin fins of other parts will sink into the recess during stacking, making positioning easy during stack assembly, and preventing misalignment during transport after stacking, enabling high-precision joining. becomes.

el!l!lIみの設定により手段Oにより、凹み部の
みに定量のペースト状ろう材が確実に充填でき、ろう材
不足を来たすことがない。
El! l! With the setting of 1I, by means O, a fixed amount of paste-like brazing material can be reliably filled only in the recessed portion, and there is no shortage of brazing material.

(第3図参照) ■ ペースト状ろう材を凹みに充填するので積層時にビ
ン先端が凹みに陥入時、ペースト状ろう材が凹みから溢
れ出てビン先端外周を取巻くので(第4図22参照)、
ろう付後に良好なフィレットを形成する。(第5図23
参照) Q 凹みの深さの設定はピンフィン長さのバラツキ量(
本来作用(2)により小さい)以上にすることによりバ
ラツキを完全に吸収しうろと共に、短いビンフィンにも
ペースト状ろう材は完全充填されている。
(See Figure 3) ■ Since the paste filler metal is filled into the recess, when the tip of the bottle falls into the recess during stacking, the paste filler metal overflows from the recess and surrounds the outer periphery of the bottle tip (see Figure 4, 22). ),
Forms a good fillet after brazing. (Fig. 5 23
(Refer to) Q: The depth of the recess is set depending on the amount of variation in pin fin length (
By setting the filler metal to be more than 100% (which is originally small due to the effect (2)), the variation is completely absorbed and the short pin fins are completely filled with the paste brazing filler metal.

■ 以上の作用により、多段積層時にも各段の所定位置
のビンフィンの中心軸は全て合致する。(第4図22参
照) ■ ビンフィン17の両根元には、コーン状鉱大径部7
aとフィレット部23が形成されるのでフィン強度の増
大と平板からビンフィンへの熱流が効果的に行われる。
(2) Due to the above-mentioned effects, even when stacking in multiple stages, the central axes of the bin fins at predetermined positions in each stage all match. (See Fig. 4 22) ■ At both bases of the bottle fin 17, there are cone-shaped ore large diameter portions 7.
Since the fillet portions 23 and 23 are formed, the fin strength is increased and heat flow from the flat plate to the bin fins is effectively achieved.

く実 施 例〉 つぎに、本発明の代表的な実施例について説明する。Example of implementation Next, typical embodiments of the present invention will be described.

実施例−1 第1図ないし第5図に第1の実施例の積層構造をもつビ
ンフィン熱交換器の作製要領を示す工程図を示す。
Example 1 FIGS. 1 to 5 are process diagrams showing the procedure for manufacturing a bin-fin heat exchanger having a laminated structure according to the first example.

先ず底板11上に断面矩形状の外筒12を配置し、外筒
12の内部に、外筒の内壁面と接するようにダイス13
を設置する。ダイス13は所定の抜き勾配0を有する貫
通孔13aが素材の流動抵抗を下げる逆届斗部13bを
介して設けられている。一方、外筒内壁と接する抑圧ラ
ム15の底面にはダイスの盲通孔頓と合致する徐J−J
上に円錐台形状の突起15aが設けられている。素材1
4を所定温度てダイス13と押圧ラム15間に投入した
後、ラム15を押下すると、ダイスの空間内に素材が流
入する(第1図)。ラム15を旧位置に1話帰させ後、
ダイスから成形品を雛型ずろど第2図の如き、部材を得
ろ。この部材は平板部16、ビレフィン部17が連続一
体化されかつ凹み部18を有する。(この部材成形は、
上記の如くt足間又は熱間塑性加工法や18γ→加圧法
などL)ずれであっても良い)。
First, an outer cylinder 12 having a rectangular cross section is placed on the bottom plate 11, and a die 13 is placed inside the outer cylinder 12 so as to be in contact with the inner wall surface of the outer cylinder.
Set up. The die 13 is provided with a through hole 13a having a predetermined draft angle of 0 through an inverted reach portion 13b that reduces the flow resistance of the material. On the other hand, on the bottom surface of the suppression ram 15 in contact with the inner wall of the outer cylinder, there is a
A truncated cone-shaped projection 15a is provided on the top. Material 1
4 is put between the die 13 and the pressing ram 15 at a predetermined temperature, and when the ram 15 is pressed down, the material flows into the space of the die (FIG. 1). After letting Ram 15 return to his old position for one episode,
Obtain a molded product from the die as shown in Figure 2. This member has a flat plate portion 16 and a fillet fin portion 17 that are continuous and integrated, and has a recessed portion 18. (This part molding is
As mentioned above, it may be L) deviation such as the t-tooth or hot plastic working method or the 18γ→pressing method.

また、ビンフィンの配列位置は格子配列あるいは千鳥配
列のいずれてあっても良い。次いて凹み18を有する平
面にフラックスを含有するペースト状ろう材19をヘラ
状物体10て押圧IMり込むことにより、凹み18内に
完全充填21される(第3図)。これらの部材を第4図
の如く、ビンフィン先端と凹み部を陥入積層することに
より、各ビンフィン軸はmmnの如く合致すると共に、
ビンフィン先端外周にはペースト状ろう材が包囲形成部
22を形成する。これらの積層板組体を加熱冷却するこ
とにより22は溶融、凝固して健全なフィレット部23
を形成する。なお、強度を要しない、熱交換器の場合に
はろう材に代って接着剤が用いられろことがある。
Furthermore, the bin fins may be arranged in either a lattice arrangement or a staggered arrangement. Next, a paste brazing filler metal 19 containing flux is pushed IM into the flat surface having the recess 18 using a spatula-shaped object 10, thereby completely filling the recess 18 (21) (FIG. 3). By laminating these members with the tip of the bottle fin and the recessed part as shown in Fig. 4, the axes of each bottle fin match as mmn, and
A paste-like brazing material forms an enveloping portion 22 on the outer periphery of the tip of the bottle fin. By heating and cooling these laminated plate assemblies, the parts 22 are melted and solidified to form a healthy fillet part 23.
form. Note that in the case of a heat exchanger that does not require strength, an adhesive may be used instead of the brazing material.

実施例−2 第6図に他の実施例を示す。Example-2 FIG. 6 shows another embodiment.

先ず第6図(a)に示すように、平板16の表裏二面に
、中心軸n−nが合致するようにビ〉フィン17Aおよ
び17Bを設けた部材と同図(blに示すように、平板
の両面にn −n軸と合致するn′−n′軸上に凹み1
8A及び18Bを設けた部材を交互に積層してろう付が
なされる。ろう材の塗布は、第3図と同様の方式が取れ
る。本例では、実施例]とほぼ同様の作用効果があるが
成形型を2種類必要とする。すなわち、部材<al用に
は第1図のダイス13と同様のラムを部材fbl用には
、第1図のラム15と同様の下型を必要とする。
First, as shown in FIG. 6(a), a member is prepared in which bifins 17A and 17B are provided on the front and back sides of a flat plate 16 so that the central axes nn coincide with each other. A depression 1 is formed on both sides of the flat plate on the n'-n' axis that coincides with the n-n axis.
The members provided with 8A and 18B are laminated alternately and brazed. The brazing filler metal can be applied using the same method as shown in FIG. This example has almost the same effect as the example], but requires two types of molds. That is, for the member <al, a ram similar to the die 13 of FIG. 1 is required, and for the member fbl, a lower die similar to the ram 15 of FIG. 1 is required.

実施例−3 次に、本発明の第3の実施例を示す。Example-3 Next, a third embodiment of the present invention will be described.

第7図に示すように平板16の表裏二面にビンフィンを
もつが、一方の面にビンフィン17B(又は17A)が
あれば裏面には凹み18B(又は18A)が交互に設け
ろ部材で、17B(又は17A)のピン先端は凹み18
B(又1よ18A)に陥入して積層、接合される。
As shown in FIG. 7, the flat plate 16 has bin fins on both sides, and if there is a bin fin 17B (or 17A) on one side, the back side is provided with recesses 18B (or 18A) alternately. Or the pin tip of 17A) is recessed 18
B (also 1 to 18A) is invaginated, laminated, and bonded.

この実施例では型、シt:がって部材は一種類で済むが
、ペースト状ろう材の摺込みが困難となるのでスプレー
塗布などを採用する必要がある。又、各段の積層作業時
に、ビンフィンが干渉、接触して変形する危惧があるの
で実施例−1,−2に比へて細心の積層作業が必要とな
る。
In this embodiment, only one type of mold and sheet is required, but since it is difficult to insert the paste brazing filler metal, it is necessary to use spray coating or the like. Furthermore, during the lamination work of each stage, there is a risk that the bin fins may interfere or contact each other and deform, so that the lamination work must be performed more carefully than in Examples-1 and -2.

実施例−4 次に、本発明の第4の実施例を示す。Example-4 Next, a fourth embodiment of the present invention will be described.

第8図に示すごとく、平板16の片面にビンフィン17
を連続一体的に直立させ、裏面は平ift餌24である
部材を用いろ方法である。
As shown in FIG.
This method uses a member that stands continuously and integrally and has a flat ifft bait 24 on the back.

したがってろう材としてシート状のろう打箔を介挿する
だけて済む。反面各段のビンフィン17の中心軸のずれ
を生じろこととなる欠点を生じるが、第10図に示した
従来方式に /比べて部材点数は激減できろっ 〈発明の効果〉 以上の説明から明らかなように、本発明の積層構造をも
つビンフィン熱交換器は、伝熱板の表裏二面に、それぞ
れ一定形状、寸法および配列で複数のビンフィンを中心
軸が互いに一致するように連続一体的に直立させると共
に、この伝熱板と対向ずろように互いに平行かつ一定の
距離をおいて、別の伝熱板を配置し、かつこの伝熱板の
表面に前記ビンフィンの先端と同心でかつほぼ同径の凹
みを形成した平板を積層配置uシであるから、高温ガス
と低温ガスの伝熱路にずれがなく、有効に熱交換させる
ことができると共に、作製の場きは、削記第1の伝熱板
に配設したビンフィン先端を第2の伝熱板の凹所にはま
るように当て、かつろう付などの方法で接合すればよい
から、その作製方法も極めて簡単に済ませろことができ
る。
Therefore, it is sufficient to insert a sheet-shaped brazed foil as a brazing material. On the other hand, there is a drawback that the central axes of the bin fins 17 in each stage are misaligned, but the number of parts can be drastically reduced compared to the conventional method shown in FIG. 10. <Effect of the invention> From the above explanation As is clear, the bin fin heat exchanger with the laminated structure of the present invention has a plurality of bin fins of fixed shape, size, and arrangement on the front and back sides of the heat exchanger plate in a continuous and integral manner so that their central axes coincide with each other. At the same time, another heat exchanger plate is arranged parallel to and at a certain distance from this heat exchanger plate so as to face this heat exchanger plate. Since flat plates with concave portions of the same diameter are stacked one on top of the other, there is no misalignment between the heat transfer paths of high-temperature gas and low-temperature gas, allowing effective heat exchange. The manufacturing method is also extremely simple, as the tip of the bottle fin provided on the first heat exchanger plate can be fitted into the recess of the second heat exchanger plate, and the two can be joined by a method such as brazing. Can be done.

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

第1図ないし第5図は本発明の積層構造をもっビンフィ
ン熱交換器の作製方法の第1の実施例の作製工程図、第
6図ta+ (b+は本発明の積層構造をもつピンフィ
ン熱交換器の作製方法の第2の実施例の作製工程図、第
7図は本発明の積層111造をもつビンフィン熱交換器
のビンフィン部の作製方法の他の実施例を示す図、第8
図は本発明のf]!層構造をもつピンフィン熱交換器の
ビンフィン部の作製方法の他の実施例の説明図、積層構
造をもつビンフィン熱交換器の作製方法゛:を示す工程
図、第11図(よビンフィン軸ずれの有無による熱流の
差異の説明図である。 図     中、 1.16・・・平板、 3A、3B、17.17A、17B・・ビンフィン、8
 ・伝熱通路。 第5図 ;」 第6図 (a)           (b) n 第7図    第8図 O 第9図
Figures 1 to 5 are manufacturing process diagrams of the first embodiment of the method for manufacturing a pin fin heat exchanger having a laminated structure according to the present invention, and Figure 6 ta+ (b+ is a pin fin heat exchanger having a laminated structure according to the present invention). FIG. 7 is a manufacturing process diagram of a second embodiment of the method for manufacturing a container, and FIG.
Figure f]! An explanatory diagram of another embodiment of the method for manufacturing the pin fin portion of a pin fin heat exchanger with a layered structure, a process diagram showing a method for manufacturing a pin fin heat exchanger with a layered structure, and FIG. It is an explanatory diagram of the difference in heat flow depending on the presence or absence. In the diagram, 1.16...flat plate, 3A, 3B, 17.17A, 17B...bin fin, 8
・Heat transfer passage. Figure 5; Figure 6 (a) (b) n Figure 7 Figure 8O Figure 9

Claims (2)

【特許請求の範囲】[Claims] (1)平板の表裏二面の対向する位置にそれぞれ一定形
状、寸法および配列にしたがって複数のピンフィンをそ
れぞれ表裏二面のピンフィンの中心軸が互いに一致する
ように連続一体的に直立させた伝熱平板と、平板の表裏
二面にそれぞれ前記伝熱平板の複数のピンフィンの先端
が当接する位置にそれぞれピンフィンの先端径とほぼ同
径の凹みを形成した伝熱平板とを一定の間隔を隔てて互
いに平行に積層配置したことを特徴とする積層構造をも
つピンフィン熱交換器。
(1) Heat transfer in which a plurality of pin fins are continuously and integrally erected at opposing positions on the front and back sides of a flat plate according to a fixed shape, size, and arrangement so that the central axes of the pin fins on the front and back sides coincide with each other. A flat plate and a heat transfer flat plate having recesses having approximately the same diameter as the tip diameter of the pin fins at the positions where the tips of the plurality of pin fins of the heat transfer flat plate abut on the front and back sides of the flat plate, respectively, are spaced apart at a certain interval. A pin fin heat exchanger with a laminated structure characterized by laminated layers arranged parallel to each other.
(2)第1の平板の少なくとも一方の面に予め設定した
形状、寸法および配列にしたがって複数のピンフィンを
それぞれ連続一体的に直立させて形成する工程と、 第2の平板の少なくとも一方の面に、前記 第1の伝熱平板に形成したピンフィンの中心軸と一致し
た軸心を有するとともに、当該ピンフィンの先端径とほ
ぼ同径の凹みを形成した後、その凹みにペースト状ろう
材を充填し、先記第1の伝熱平板のピンフィン先端と凹
みとを合せ第1の伝熱平板と第2の伝熱平板を一定の間
隔を隔てて積層配設する工程から成ることを特徴とする
積層構造をもつピンフィン熱交換器の作製方法。
(2) forming a plurality of pin fins in a continuous and integral manner in accordance with a predetermined shape, size, and arrangement on at least one surface of the first flat plate; and on at least one surface of the second flat plate. , after forming a recess having an axis that coincides with the center axis of the pin fin formed on the first heat transfer flat plate and having a diameter approximately the same as the tip diameter of the pin fin, the recess is filled with a paste brazing filler metal. , lamination comprising the step of aligning the tip of the pin fin of the first heat transfer flat plate with the recess and arranging the first heat transfer flat plate and the second heat transfer flat plate in a stacked manner at a constant interval. A method for manufacturing a pin-fin heat exchanger with a structure.
JP17863186A 1986-07-31 1986-07-31 Heat exchanger with pin fin of laminated structure and manufacture thereof Pending JPS6338894A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP17863186A JPS6338894A (en) 1986-07-31 1986-07-31 Heat exchanger with pin fin of laminated structure and manufacture thereof

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP17863186A JPS6338894A (en) 1986-07-31 1986-07-31 Heat exchanger with pin fin of laminated structure and manufacture thereof

Publications (1)

Publication Number Publication Date
JPS6338894A true JPS6338894A (en) 1988-02-19

Family

ID=16051836

Family Applications (1)

Application Number Title Priority Date Filing Date
JP17863186A Pending JPS6338894A (en) 1986-07-31 1986-07-31 Heat exchanger with pin fin of laminated structure and manufacture thereof

Country Status (1)

Country Link
JP (1) JPS6338894A (en)

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH035071U (en) * 1989-05-24 1991-01-18
JP2007507684A (en) * 2003-10-02 2007-03-29 ハイフラックス リミティッド Heat exchanger and its use
WO2009078168A1 (en) * 2007-12-17 2009-06-25 Panasonic Corporation Heat exchange device and device for receiving heat generation body
JP2009168435A (en) * 2007-12-17 2009-07-30 Panasonic Corp Heat exchanging device and heating element storage device using the same

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH035071U (en) * 1989-05-24 1991-01-18
JP2007507684A (en) * 2003-10-02 2007-03-29 ハイフラックス リミティッド Heat exchanger and its use
WO2009078168A1 (en) * 2007-12-17 2009-06-25 Panasonic Corporation Heat exchange device and device for receiving heat generation body
JP2009168435A (en) * 2007-12-17 2009-07-30 Panasonic Corp Heat exchanging device and heating element storage device using the same

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