JP2003331807A - Battery power unit - Google Patents

Battery power unit

Info

Publication number
JP2003331807A
JP2003331807A JP2003044206A JP2003044206A JP2003331807A JP 2003331807 A JP2003331807 A JP 2003331807A JP 2003044206 A JP2003044206 A JP 2003044206A JP 2003044206 A JP2003044206 A JP 2003044206A JP 2003331807 A JP2003331807 A JP 2003331807A
Authority
JP
Japan
Prior art keywords
positive
battery
negative electrodes
fitted
battery module
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
JP2003044206A
Other languages
Japanese (ja)
Other versions
JP3828870B2 (en
Inventor
Masashi Bando
真史 板東
Mitsuhiro Naganuma
充浩 長沼
Akiyoshi Oya
聡義 大矢
Kentaro Shibuya
健太郎 渋谷
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.)
Honda Motor Co Ltd
Original Assignee
Honda Motor 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 Honda Motor Co Ltd filed Critical Honda Motor Co Ltd
Priority to JP2003044206A priority Critical patent/JP3828870B2/en
Priority to US10/377,105 priority patent/US7029787B2/en
Publication of JP2003331807A publication Critical patent/JP2003331807A/en
Application granted granted Critical
Publication of JP3828870B2 publication Critical patent/JP3828870B2/en
Anticipated expiration legal-status Critical
Expired - Fee Related legal-status Critical Current

Links

Classifications

    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E60/00Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
    • Y02E60/10Energy storage using batteries

Landscapes

  • Battery Mounting, Suspending (AREA)
  • Connection Of Batteries Or Terminals (AREA)

Abstract

<P>PROBLEM TO BE SOLVED: To provide a battery power unit capable of avoiding breakage between positive and negative electrodes of every battery of a battery module and realizing easy connection between the negative and positive electrodes of the battery module and bus bars. <P>SOLUTION: The battery power unit 1 comprises plural cylindrical battery modules 9 each having plural batteries 6 connected in series. Between both sides of the every battery 6, insulating rings 27 having circular hollows fitted therewith are interposed. Each battery module 9 is supported by being inserted through two plate members 11 via the insulating rings 27, the plate members 11 being kept standing on a base plate 10 by a frame member F. Each plate member 11 is a collection of plural grommets comprising of two half bodies. Connecting portions 45, 48 of the bus bars 16, 43 to be connected to the positive and negative electrodes of the battery module 9 are movable in the forward and backward directions against the negative and positive electrodes. <P>COPYRIGHT: (C)2004,JPO

Description

【発明の詳細な説明】Detailed Description of the Invention

【0001】[0001]

【発明の属する技術分野】本発明はバッテリ式電源装
置,特に,直列に接続された複数のバッテリを有する複
数の棒状バッテリモジュールを,それらの軸線が互に平
行し,且つそれらの軸線と交差する仮想平面にて各軸線
とその仮想平面との交点が上,下方向および左,右方向
に並ぶように配列したバッテリ集合体を備えた電源装置
に関する。
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a battery-type power supply device, and more particularly to a plurality of rod-shaped battery modules having a plurality of batteries connected in series, the axes of which are parallel to each other and intersect the axes. The present invention relates to a power supply device including a battery assembly in which the intersections of each axis and a virtual plane on a virtual plane are arranged in the upward, downward, left, and right directions.

【0002】[0002]

【従来の技術】従来,この種の電源装置としては,合成
樹脂製ボックスの両端壁外面にそれぞれ複数のバスバー
を埋設した合成樹脂製エンドプレートをビス止めし,ボ
ックスを貫通する各バッテリモジュールの両端に在る正
極および負極と各バスバーとを,そのバスバーを貫通し
て正,負極にねじ込まれたボルトによって接続し,また
各バッテリモジュールの軸線方向中間部を複数の防振ゴ
ムシートによってフローティング支持したものが知られ
ている。この場合,各バッテリモジュールの相隣る両バ
ッテリ間には,正,負極間の短絡を防止する絶縁リング
が設けられている(例えば,特許文献1参照)。
2. Description of the Related Art Conventionally, as a power supply device of this type, a synthetic resin end plate having a plurality of bus bars embedded in the outer surfaces of both end walls of a synthetic resin box is screwed to both ends of each battery module penetrating the box. The positive and negative electrodes present in the above and each bus bar are connected by bolts that penetrate the bus bar and are screwed into the positive and negative electrodes, and the axially intermediate portion of each battery module is floatingly supported by a plurality of anti-vibration rubber sheets. Things are known. In this case, an insulating ring that prevents a short circuit between the positive and negative electrodes is provided between the adjacent batteries of each battery module (see, for example, Patent Document 1).

【0003】[0003]

【特許文献1】特開平11−111349号公報[Patent Document 1] Japanese Patent Laid-Open No. 11-113349

【0004】[0004]

【発明が解決しようとする課題】しかしながら従来装置
においては各バッテリモジュールの実質的な支持部が,
その両端であることから振動による各バッテリモジュー
ルの振幅が大となって,相隣る両バッテリの正,負極間
の接続部が破断されるおそれがあった。またバスバーが
エンドプレート内に埋設されていて不動であることか
ら,バッテリモジュールにその軸線方向の寸法にばらつ
きが生じた場合,それに対応することが困難であり,そ
の上,合成樹脂製ボックスが比較的大型で,またかなり
の寸法精度を要求されることから,成形用金型コストが
非常に高く,電源装置のコスト上昇を招くと共に重量増
の原因となっていた。
However, in the conventional device, the substantial support portion of each battery module is
Since it is at both ends, the amplitude of each battery module becomes large due to vibration, and there is a risk of breaking the connection between the positive and negative electrodes of adjacent batteries. In addition, since the bus bar is embedded in the end plate and is immovable, it is difficult to deal with variations in the axial dimension of the battery module. In addition, synthetic resin boxes are not suitable for comparison. Since it is relatively large and requires considerable dimensional accuracy, the cost of the molding die is very high, leading to an increase in the cost of the power supply device and a weight increase.

【0005】[0005]

【課題を解決するための手段】本発明は,各バッテリモ
ジュールにおける相隣る両バッテリの正,負極間の接続
部の破断を回避し,また各バッテリモジュールに,その
軸線方向の寸法にばらつきが生じても,その正,負極と
バスバーとの接続を容易に行い,その上コストが安く,
軽量な前記バッテリ式電源装置を提供することを目的と
する。
The present invention avoids breakage of the connection between the positive and negative electrodes of both adjacent batteries in each battery module, and each battery module has a variation in its axial dimension. Even if it occurs, the positive and negative electrodes can be easily connected to the bus bar, and the cost is low.
It is an object of the present invention to provide a lightweight battery type power supply device.

【0006】前記目的を達成するため本発明によれば,
直列に接続された複数のバッテリより構成されて,一端
部に正極を,また他端部に負極をそれぞれ有する複数の
棒状バッテリモジュールを,それらの軸線が互に平行
し,且つそれらの軸線と交差する仮想平面にて各軸線と
その仮想平面との交点が上,下方向および左,右方向に
並ぶように配列すると共に,バッテリモジュール軸線方
向両端部側にそれぞれ複数の正極と複数の負極とよりな
る正,負極群を存在させたバッテリ集合体を備え,各バ
ッテリモジュールの相隣る両バッテリの相対向する両端
部間に,それら両端部と嵌合する環状凹部を持つ絶縁リ
ングが挟着されると共にその絶縁リングの内周面で囲ま
れる領域に前記正極と負極との接続部が在り,各バッテ
リモジュールは,前記仮想平面と平行で,且つベースプ
レート上に立てられた複数の板状部材に,それらを貫通
するように保持され,各板状部材は,門型をなすと共に
上部連結部をその板状部材の上端面に当てて,両脚部を
前記ベースプレートに固定されたフレーム部材により直
立状態に保たれ,各板状部材は,二つ割りの両半体より
なる複数のグロメットの集合体であって,両半体はそれ
らの分割面に開口して前記絶縁リング外周面の半周部分
に嵌まる半環状凹部を有し,前記バッテリ集合体の各
正,負極群と対向する各バスバープレートに,各正,負
極と嵌合する複数の貫通孔と,各貫通孔と嵌合した各
正,負極と接続される複数のバスバーとが設けられ,各
バスバーの前記正,負極との接続部が前記正,負極に対
してそれぞれ進退可能であるバッテリ式電源装置が提供
される。
According to the present invention to achieve the above object,
A plurality of rod-shaped battery modules composed of a plurality of batteries connected in series, each having a positive electrode at one end and a negative electrode at the other end, the axes of which are parallel to each other and intersect the axes. On the virtual plane, the intersections of each axis and the virtual plane are arranged so as to line up, down, left, and right, and a plurality of positive electrodes and a plurality of negative electrodes are arranged on both ends of the battery module in the axial direction. A battery assembly having positive and negative electrode groups is provided, and an insulating ring having an annular recess that engages with both ends of each battery module is sandwiched between opposite ends of both batteries. At the same time, there is a connecting portion between the positive electrode and the negative electrode in a region surrounded by the inner peripheral surface of the insulating ring, and each battery module is parallel to the virtual plane and is erected on the base plate. It is held by a plurality of plate-shaped members so as to penetrate therethrough, and each plate-shaped member has a gate shape and its upper connecting portion is applied to the upper end surface of the plate-shaped member, and both legs are fixed to the base plate. The plate-shaped member is an assembly of a plurality of grommets made up of two half halves, which are kept upright by a frame member, and the both halves are opened at their dividing surfaces to form the outer peripheral surface of the insulating ring. Has a semi-annular recess that fits in a half-circumferential portion of the battery assembly, and each bus bar plate facing the positive and negative electrode groups of the battery assembly has a plurality of through holes fitted with the positive and negative electrodes and the through holes. A battery-type power supply device is provided in which a plurality of combined positive and negative electrodes and a plurality of bus bars connected to the positive and negative electrodes are provided, and connection portions of the respective bus bars with the positive and negative electrodes can advance and retreat with respect to the positive and negative electrodes, respectively. .

【0007】前記のように構成すると,各バッテリモジ
ュールがその軸線方向複数箇所において,絶縁リングを
介して板状部材およびフレーム部材によってベースプレ
ート上に保持され,しかも相隣る両バッテリの正,負極
間の接続部は絶縁リングによって補強されているので,
振動による正,負極間の接続部の破断を確実に回避する
ことができる。
According to the above construction, each battery module is held on the base plate by the plate member and the frame member via the insulating ring at a plurality of positions in the axial direction thereof, and between the positive and negative electrodes of the two adjacent batteries. Since the connection part of is reinforced by the insulating ring,
It is possible to reliably avoid breakage of the connection between the positive and negative electrodes due to vibration.

【0008】また各バッテリモジュールに,その軸線方
向の寸法にばらつきが生じても,その正,負極に対し各
バスバーの正,負極側接続部を進退させて,その正,負
極とバスバーとを容易に接続することができる。その
上,バッテリ集合体の支持のために,かなりの寸法精度
を要求される比較的大型の合成樹脂製ボックスを使用し
ないので,バッテリ式電源装置のコストを低減し,また
その軽量化を図ることができる。
Further, even if the axial dimension of each battery module varies, the positive and negative side connecting portions of each bus bar are moved forward and backward with respect to the positive and negative sides thereof to facilitate the positive and negative electrodes and the bus bar. Can be connected to. In addition, because a relatively large synthetic resin box that requires considerable dimensional accuracy is not used to support the battery assembly, the cost of the battery-type power supply device is reduced and its weight is reduced. You can

【0009】[0009]

【発明の実施の形態】図1,2において,バッテリ式電
源装置1は薄肉の合成樹脂製ボックス2を備え,そのボ
ックス2は,一端面に冷却風導入口3を有し,また他端
部内に吸引ファン4を有する。そのボックス2内におい
て,冷却風導入口3と吸引ファン4との間,つまりボッ
クス2内中間部にバッテリ集合体5が収容されている。
1 and 2, a battery-type power supply device 1 is provided with a thin synthetic resin box 2, the box 2 having a cooling air inlet 3 at one end surface and inside the other end portion. Has a suction fan 4. In the box 2, a battery assembly 5 is housed between the cooling air inlet 3 and the suction fan 4, that is, in the middle of the box 2.

【0010】そのバッテリ集合体5は,直列に接続され
た複数,実施例では6個のバッテリ6より構成されて,
一端部に正極7を,また他端部に負極8をそれぞれ有す
る複数,実施例では20本の棒状バッテリモジュール9
よりなる。それらバッテリモジュール9は,それらの軸
線Aが互に平行し,且つそれらの軸線Aと交差する仮想
平面Bにて各軸線Aとその仮想平面Bとの交点Cが上,
下方向に4つおよび左,右方向に5つ並ぶように配列さ
れており,バッテリモジュール軸線方向D両端部側にそ
れぞれ複数,つまり10個の正極7と,複数,つまり1
0個の負極8とよりなる正,負極群が存在する。各バッ
テリモジュール9は,前記仮想平面Bと平行で,且つ鋼
製ベースプレート10上に立てられた複数,実施例では
2つの板状部材11に,それらを貫通するように保持さ
れている。各板状部材11は,門型をなすと共に上部連
結部12をその板状部材11の上端面に当てて,両脚部
13を前記ベースプレート10にボルト14およびナッ
ト15(図8参照)によって固定された鋼製フレーム部
材Fにより直立状態に保たれている。最上位およびその
下の両バッテリモジュール9ならびに最下位およびその
上の両バッテリモジュール9の軸線方向中間部はそれぞ
れ合成樹脂製クリップCL によって連結されている。
The battery assembly 5 comprises a plurality of, in the embodiment, six batteries 6 connected in series,
A plurality of, for example, 20 rod-shaped battery modules 9 each having a positive electrode 7 at one end and a negative electrode 8 at the other end.
Consists of. In the battery modules 9, the axes C of the battery modules 9 are parallel to each other, and the intersection C between the axes A and the virtual plane B is upward at an imaginary plane B intersecting the axes A.
It is arranged so as to line up four in the downward direction and five in the leftward and rightward directions, and there are a plurality of positive electrodes 7, that is, ten positive electrodes 7, and a plurality of one positive electrodes, one on each side of the battery module axial direction D.
There are positive and negative electrode groups consisting of zero negative electrodes 8. Each battery module 9 is held by a plurality of, in the embodiment, two plate-shaped members 11 that are parallel to the virtual plane B and are erected on the steel base plate 10 so as to penetrate them. Each plate-shaped member 11 is in the form of a gate, the upper connecting portion 12 is abutted against the upper end surface of the plate-shaped member 11, and both legs 13 are fixed to the base plate 10 by bolts 14 and nuts 15 (see FIG. 8). The steel frame member F keeps it upright. The axially intermediate portions of the uppermost and lower battery modules 9 and the lowermost and upper battery modules 9 are connected by a synthetic resin clip C L , respectively.

【0011】例えば,図1において,冷却風導入口3側
からバッテリ集合体5を見たとき,手前側最上位の棒状
バッテリモジュール9[a]は,図2,3に示すよう
に,右端に負極8を,また左端に正極7をそれぞれ有す
る。その負極8は,それよりも吸引ファン4側に在って
隣接するバッテリモジュール9[b]の正極7と第1バ
スバー16を介して接続される。一方,正極7は,その
下側に在るバッテリモジュール9[c]の負極8と第1
バスバー16を介して接続される。
For example, in FIG. 1, when the battery assembly 5 is viewed from the side of the cooling air inlet 3, the topmost rod-shaped battery module 9 [a] is located at the right end as shown in FIGS. It has a negative electrode 8 and a positive electrode 7 at the left end. The negative electrode 8 is connected via the first bus bar 16 to the positive electrode 7 of the adjacent battery module 9 [b] on the suction fan 4 side. On the other hand, the positive electrode 7 and the negative electrode 8 of the battery module 9 [c] located below
It is connected via the bus bar 16.

【0012】1つのバッテリ(セコンダリ・バッテリ)
6は,負極側の鋼製有底筒体17と,その開口端に存す
る環状ビード部18内周面に絶縁シールリング19を介
して取付けられた正極側の鋼製蓋板20とを有する。実
施例ではバッテリ6の内部構造は省略されている。相隣
る一方のバッテリ6の有底筒体17と他方のバッテリ6
の蓋板20間に鋼製接続リング21が溶接されている。
接続リング21は,有底筒体17外周面に嵌合し溶接さ
れた大径短筒部22と,その一端の周縁部分に連設さ
れ,且つ有底筒体17の底壁外面に密着する内向きの環
状大径突出部23と,その環状大径突出部23の内周縁
部分に連設され,且つ大径短筒部22とは逆方向に突出
する小径短筒部24と,その小径短筒部24の周縁部分
に連設され,且つ蓋板20の円形突出部25を開口部分
に挿通させてその円形突出部25周りに溶接された内向
きの環状小径突出部26とを有する。
One battery (secondary battery)
Reference numeral 6 has a bottomed cylindrical steel body 17 on the negative electrode side, and a steel lid plate 20 on the positive electrode side attached to the inner peripheral surface of the annular bead portion 18 existing at the open end thereof via an insulating seal ring 19. In the embodiment, the internal structure of the battery 6 is omitted. The bottomed cylindrical body 17 of one battery 6 and the other battery 6 adjacent to each other
A steel connecting ring 21 is welded between the cover plates 20 of the above.
The connection ring 21 is connected to a large-diameter short tubular portion 22 that is fitted and welded to the outer peripheral surface of the bottomed tubular body 17, and is connected to the peripheral portion of one end thereof, and is in close contact with the outer surface of the bottom wall of the bottomed tubular body 17. An inward annular large-diameter protruding portion 23, a small-diameter short cylindrical portion 24 that is connected to the inner peripheral edge portion of the annular large-diameter protruding portion 23, and protrudes in a direction opposite to the large-diameter short cylindrical portion 22, and its small diameter. It has an inward annular small-diameter protrusion 26 that is connected to the peripheral portion of the short tubular portion 24 and that has the circular protrusion 25 of the cover plate 20 inserted into the opening and is welded around the circular protrusion 25.

【0013】また相隣る両バッテリ6の相対向する両端
部間に合成樹脂製絶縁リング27が挟着される。その絶
縁リング27は,一方のバッテリ6の端部を構成する接
続リング21の大径短筒部22外周面のほぼ半部に嵌合
する短筒部28と,その一端の周縁部分に連設され,且
つ接続リング21の,内向きの環状大径突出部23外面
に密着する,内向きの環状突出部29とを有する。これ
ら短筒部28および内向きの環状突出部29とにより,
一方のバッテリ6の端部と嵌合する環状凹部30が形成
される。また内向きの環状突出部29は,他方のバッテ
リ6の環状ビード部18およびそれに嵌着された絶縁シ
ールリング19,つまり他方のバッテリ6の端部と嵌合
する環状凹部31を有する。内向きの環状突出部29の
開口部分は接続リング21の小径短筒部24外周面に密
着され,これにより蓋板20と接続リング21との接続
部,つまり正極と負極との接続部が絶縁リング27の内
周面で囲まれる領域に存する。この絶縁リング27は,
両バッテリ6の正,負極間の短絡防止機能と,それらの
接続部に対する補強機能とを有する。
An insulating ring 27 made of synthetic resin is sandwiched between the opposite ends of both batteries 6 adjacent to each other. The insulating ring 27 is connected to a short tube portion 28 fitted to almost half of the outer peripheral surface of the large-diameter short tube portion 22 of the connection ring 21 forming the end portion of one battery 6, and to a peripheral portion of one end thereof. And an inward annular protrusion 29 that is in close contact with the outer surface of the inward annular large diameter protrusion 23 of the connection ring 21. Due to the short tubular portion 28 and the inward annular protruding portion 29,
An annular recess 30 that fits into the end of one battery 6 is formed. The inward annular protrusion 29 has an annular bead portion 18 of the other battery 6 and an insulating seal ring 19 fitted to the annular bead portion 18, that is, an annular recess 31 that fits with the end of the other battery 6. The opening portion of the inward annular protrusion 29 is brought into close contact with the outer peripheral surface of the small-diameter short tubular portion 24 of the connection ring 21, so that the connection portion between the lid plate 20 and the connection ring 21, that is, the connection portion between the positive electrode and the negative electrode is insulated. It exists in a region surrounded by the inner peripheral surface of the ring 27. This insulating ring 27 is
It has a function of preventing a short circuit between the positive and negative electrodes of both batteries 6 and a function of reinforcing the connecting portions thereof.

【0014】図4にも示すように,バッテリ6,接続リ
ング21および絶縁リング27は1つのユニットUを構
成し,バッテリモジュール9の製作に当っては,一方の
ユニットUにおける接続リング21の大径短筒部22に
他方のユニットUにおける有底筒体17の底部側を嵌着
して,その大径短筒部22および有底筒体17の周壁間
を溶接し,これを必要回数繰返し,また一端に存するユ
ニットUの有底筒体17底部に接続リング21の大径短
筒部22を嵌着して溶接する。さらに他端に存する接続
リング21の大径短筒部22に,断面凸形をなす鋼製正
極7の大径部32が嵌着され,その大径部32と大径短
筒部22とが溶接される。大径部32から突出する六角
ナット形部33はその端面に開口するねじ孔34を有す
る。また一端に存する接続リング21の小径短筒部24
に,断面ほぼ凸形をなす鋼製負極8の大径部35端面に
存する凹部36が嵌合され,その環状小径突出部26と
大径部35とが溶接される。大径部35から突出する四
角ナット形部37はその端面に開口するねじ孔38を有
する。
As shown in FIG. 4, the battery 6, the connecting ring 21 and the insulating ring 27 form one unit U, and when the battery module 9 is manufactured, the connecting ring 21 in one unit U is large. The bottom side of the bottomed tubular body 17 of the other unit U is fitted to the short diameter tubular portion 22, and the large diameter short tubular portion 22 and the peripheral walls of the bottomed tubular body 17 are welded, and this is repeated as many times as necessary. Also, the large-diameter short tubular portion 22 of the connecting ring 21 is fitted and welded to the bottom portion of the bottomed tubular body 17 of the unit U at one end. Further, the large diameter portion 32 of the steel positive electrode 7 having a convex cross-section is fitted to the large diameter short tubular portion 22 of the connection ring 21 existing at the other end, and the large diameter portion 32 and the large diameter short tubular portion 22 are Welded. The hexagonal nut-shaped portion 33 protruding from the large-diameter portion 32 has a screw hole 34 that opens at its end face. Also, the small-diameter short tubular portion 24 of the connection ring 21 present at one end
The concave portion 36 existing on the end surface of the large diameter portion 35 of the steel negative electrode 8 having a substantially convex cross section is fitted into this, and the annular small diameter protruding portion 26 and the large diameter portion 35 are welded. The square nut-shaped portion 37 protruding from the large-diameter portion 35 has a screw hole 38 opened at its end face.

【0015】図3,5,6に示すように,バッテリ集合
体5における一方の正,負極群側に第1バスバープレー
ト39が配置され,また他方の正,負極群側に第2バス
バープレート40が配置される。第1,第2バスバープ
レート39,40は正,負極7,8の六角ナット形部3
3および四角ナット形部37と嵌合する複数の貫通孔と
しての六角孔41および四角孔42を有する。図5に示
す第1バスバープレート39において,正,負極群と対
向する面と反対側の面に形状を異にする複数の第1,第
2バスバー16,43が取付けられている。各第1バス
バー16の,ボルト孔44を有する一方の環状接続部4
5が六角孔41に,また同様にボルト孔44を有する他
方の環状接続部45が四角孔42にそれぞれ臨んでい
る。さらに各第2バスバー43の,ボルト孔47を有す
る1つの環状接続部48が六角孔41および四角孔42
の一方に臨んでいる。図6に示す第2バスバープレート
40において,正,負極群と対向する面と反対側の面に
前記と同種形状の複数の第1バスバー16が取付けられ
ており,各第1バスバー16の,ボルト孔44を有する
一方の環状接続部45が六角孔41に,また同様にボル
ト孔44を有する他方の環状接続部45が四角孔42に
それぞれ臨んでいる。
As shown in FIGS. 3, 5 and 6, a first bus bar plate 39 is arranged on one side of the positive and negative electrode groups in the battery assembly 5, and a second bus bar plate 40 is arranged on the other side of the positive and negative electrode groups. Are placed. The first and second busbar plates 39, 40 are hexagonal nut-shaped parts 3 of positive and negative electrodes 7, 8.
It has a hexagonal hole 41 and a square hole 42 as a plurality of through holes that fit with the 3 and the square nut-shaped portions 37. In the first bus bar plate 39 shown in FIG. 5, a plurality of first and second bus bars 16, 43 having different shapes are attached to the surface opposite to the surface facing the positive and negative electrode groups. One annular connecting portion 4 of each first bus bar 16 having a bolt hole 44
5 faces the hexagonal hole 41, and the other annular connecting portion 45 also having the bolt hole 44 faces the square hole 42. Further, one annular connecting portion 48 having the bolt hole 47 of each second bus bar 43 has a hexagonal hole 41 and a square hole 42.
Facing one side. In the second bus bar plate 40 shown in FIG. 6, a plurality of first bus bars 16 of the same shape as described above are attached to the surface opposite to the surface facing the positive and negative electrode groups. One annular connecting portion 45 having the hole 44 faces the hexagonal hole 41, and the other annular connecting portion 45 also having the bolt hole 44 faces the square hole 42.

【0016】各第1バスバー16の両環状接続部45の
ボルト孔44にそれぞれ絶縁性,実施例ではガラス繊維
強化合成樹脂製ボルト49が挿通されて,正,負極7,
8のねじ孔34,38にねじ込まれ,これにより複数組
の正極7および負極8が複数の第1バスバー16を介し
て電気的に接続される。
Insulating, glass fiber reinforced synthetic resin bolts 49 in the embodiment, are inserted into the bolt holes 44 of both annular connecting portions 45 of each first bus bar 16 to form positive and negative electrodes 7,
8 are screwed into the screw holes 34 and 38, whereby a plurality of sets of positive electrodes 7 and negative electrodes 8 are electrically connected via a plurality of first bus bars 16.

【0017】また各第2バスバー43の環状接続部48
のボルト孔47に前記同様のボルト49が挿通されて正
極7または負極8のねじ孔34,38にねじ込まれ,こ
れにより複数の正極7および負極8と複数の第2バスバ
ー43とが電気的に接続される。
The annular connecting portion 48 of each second bus bar 43 is also provided.
A bolt 49 similar to the above is inserted into the bolt hole 47 of the positive electrode 7 or the negative electrode 8 and screwed into the screw holes 34 and 38 of the positive electrode 7 or the negative electrode 8, whereby the positive electrodes 7 and the negative electrodes 8 and the second bus bars 43 are electrically connected. Connected.

【0018】前記のように,第1,第2バスバープレー
ト39,40に複数の正極7の六角ナット形部33と嵌
合する複数の六角孔41および複数の負極8の四角ナッ
ト形部37と嵌合する複数の四角孔42を形成すると,
バッテリ集合体5におけるバッテリモジュール9の誤組
みを容易に見付けることができる。
As described above, the first and second bus bar plates 39 and 40 are fitted with the hexagonal nut-shaped portions 33 of the positive electrodes 7 and the hexagonal holes 41 and the square-nut shaped portions 37 of the negative electrodes 8. When a plurality of square holes 42 to be fitted are formed,
A wrong assembly of the battery module 9 in the battery assembly 5 can be easily found.

【0019】図7に明示するように,第1バスバー16
は鋼板より構成され,第1,第2バスバープレート3
9,40に,一端部をリベット50によって接合された
被取付部51と,その被取付部51の他端にU字形折曲
げ部52を介し連設されて被取付部51と対向する二股
部53と,その二股部53の両端にそれぞれ連設されて
被取付部51側に折曲がる2つの繋ぎ部54とを有し,
両繋ぎ部54に両環状接続部45がそれぞれ被取付部5
1と同一平面上に位置するように連設されている。また
繋ぎ部54および環状接続部45の各連設部分と,第
1,第2バスバープレート39,40との干渉を避ける
ため,両バスバープレート39,40において,各連設
部分と対向する部分には六角孔41および四角孔42に
連なる切欠き55が形成されている。これにより各環状
接続部45は,撓み性を有するU字形折曲げ部52を介
して正,負極7,8,つまり六角ナット形部33,四角
ナット形部37に対し進退可能であり,したがって,バ
ッテリモジュール9の軸線方向長さに長短が生じてもそ
れに容易に対応して,両環状接続部45と,正,負極
7,8とを確実に接続することができる。第2バスバー
43は鋼板より構成され,第1バスバープレート39に
一端部をリベット50によって接合された被取付部56
を有し,その他端に環状接続部48が連設されている。
この場合にも環状接続部48は,被取付部56の撓み性
により正,負極7,8に対して進退可能である。
As clearly shown in FIG. 7, the first bus bar 16
Is composed of a steel plate, and the first and second bus bar plates 3
9 and 40, an attached portion 51 whose one end is joined by a rivet 50, and a bifurcated portion that is connected to the other end of the attached portion 51 via a U-shaped bent portion 52 and faces the attached portion 51. 53, and two connecting portions 54 that are connected to both ends of the bifurcated portion 53 and are bent toward the attached portion 51 side,
Both ring-shaped connecting portions 45 are attached to both connecting portions 54, respectively.
1 are continuously provided so as to be located on the same plane. In addition, in order to avoid interference between the connecting portions of the connecting portion 54 and the annular connecting portion 45 and the first and second bus bar plates 39, 40, in both bus bar plates 39, 40, the portions facing the connecting portions are provided. Has a notch 55 continuous with the hexagonal hole 41 and the square hole 42. As a result, each annular connecting portion 45 can advance and retreat with respect to the positive and negative electrodes 7 and 8, that is, the hexagonal nut-shaped portion 33 and the square nut-shaped portion 37 through the flexible U-shaped bent portion 52. Even if the length of the battery module 9 in the axial direction is shortened, the both ring-shaped connecting portions 45 and the positive and negative electrodes 7 and 8 can be surely connected to each other easily. The second bus bar 43 is made of a steel plate, and an attached portion 56 whose one end is joined to the first bus bar plate 39 by a rivet 50.
And an annular connecting portion 48 is connected to the other end.
Also in this case, the annular connecting portion 48 can move forward and backward with respect to the positive and negative electrodes 7 and 8 due to the flexibility of the attached portion 56.

【0020】一方の板状部材11は,各バッテリモジュ
ール9の一端部側において,最も端に在るバッテリ6
と,その隣りのバッテリ6との接続部に位置し,また他
方の板状部材11は,各バッテリモジュール9の他端部
側において,最も端に在るバッテリ6と,その隣りのバ
ッテリ6との接続部に位置する。
One plate-shaped member 11 is located at the end of the battery 6 on one end side of each battery module 9.
And the other plate-shaped member 11 located at the connecting portion with the adjacent battery 6 and the battery 6 at the end on the other end side of each battery module 9 and the adjacent battery 6 Located at the connection part of.

【0021】各板状部材11は同一の構造を有し,図8
に示すように二つ割りの両半体よりなる複数の合成樹脂
製グロメットの集合体である。実施例では,ベースプレ
ート10上に長い第1半体57が配置され,その第1半
体57は,それの上向きの分割面58に開口して最下段
の5本のバッテリモジュール9の絶縁リング27外周面
に嵌まる5つの半環状凹部59を有する。第1半体57
上に1つの第2半体60と3つの第3半体61とが重ね
られており,その第2半体60は,それの下向きの分割
面62に開口して最下段の2本のバッテリモジュール9
の絶縁リング27外周面に嵌まる2つの半環状凹部63
を有し,また各第3半体61は,それの下向きの分割面
64に開口して最下段の各1本のバッテリモジュール9
の絶縁リング27外周面に嵌まる1つの半環状凹部65
を有する。このように第1半体57と,それと二つ割り
関係にある第2,各第3半体60,61とによって最下
段の5本のバッテリモジュール9が保持される。
Each plate-shaped member 11 has the same structure.
As shown in FIG. 2, it is an assembly of a plurality of synthetic resin grommets composed of two halves. In the embodiment, a long first half body 57 is arranged on the base plate 10, and the first half body 57 is opened in the upward dividing surface 58 to insulate the insulating rings 27 of the five battery modules 9 in the lowermost stage. It has five semi-annular recesses 59 that fit on the outer peripheral surface. First half 57
One second half body 60 and three third half bodies 61 are stacked on top of each other, and the second half body 60 is opened to the downward dividing surface 62 thereof and the two batteries at the lowermost stage are stacked. Module 9
Two semi-annular recesses 63 fitted on the outer peripheral surface of the insulating ring 27 of
Further, each third half body 61 has an opening in the downward dividing surface 64, and each one of the battery modules 9 in the lowermost stage.
One semi-annular recess 65 fitted on the outer peripheral surface of the insulating ring 27 of
Have. In this way, the first half body 57 and the second and third third halves 60 and 61 having a split relationship with the first half body 57 hold the five battery modules 9 in the lowermost stage.

【0022】また第2半体60は,それの上向きの分割
面62に開口して下から2段目の2本のバッテリモジュ
ール9の絶縁リング27外周面に嵌まる2つの半環状凹
部63を有し,同様に各第3半体61は,それの上向き
の分割面64に開口して下から2段目の各1本のバッテ
リモジュール9の絶縁リング27外周面に嵌まる1つの
半環状凹部65を有する。第2,各第3半体60,61
上に長い第4半体66が重ねられており,その第4半体
66は,それの下向きの分割面67に開口して下から2
段目の5本のバッテリモジュール9の絶縁リング27外
周面に嵌まる5つの半環状凹部68を有する。このよう
に第2,各第3半体60,61と,それらと二つ割り関
係にある第4半体66とによって下から2段目の5本の
バッテリモジュール9が保持される。
Further, the second half body 60 has two semi-annular recesses 63 which are opened in the upward dividing surface 62 and are fitted on the outer peripheral surfaces of the insulating rings 27 of the two battery modules 9 in the second stage from the bottom. Similarly, each third half body 61 has one semi-annular shape that is opened in the upward dividing surface 64 and fits on the outer peripheral surface of the insulating ring 27 of each one battery module 9 in the second stage from the bottom. It has a recess 65. Second and third third halves 60, 61
A long fourth half body 66 is superposed on the upper side, and the fourth half body 66 is opened from the downward dividing surface 67 thereof and the second half body 66 is opened from below.
It has five semi-annular recesses 68 that fit on the outer peripheral surface of the insulating ring 27 of the five battery modules 9 in the tier. As described above, the second and third third halves 60, 61 and the fourth half 66 having a split relationship with them hold the five battery modules 9 in the second stage from the bottom.

【0023】同様に,第4半体66の上に第1半体57
が,またその第1半体57上に1つの第2半体60と3
つの第3半体61が,さらにそれら第2,各第3半体6
0,61上に第4半体66がそれぞれ重ねられており,
これにより第1半体57と,それと二つ割り関係にある
第2,各第3半体60,61とによって下から3段目の
5本のバッテリモジュール9が保持され,また第2,各
第3半体60,61と,それらと二つ割り関係にある第
4半体66とによって最上段の5本のバッテリモジュー
ル9が保持される。
Similarly, the first half 57 is placed on the fourth half 66.
But also one second half 60 and three on its first half 57
Three third halves 61, and the second and each third half 6
4th half 66 is piled up on 0 and 61 respectively,
As a result, the first half body 57 and the second and third third halves 60 and 61 having a split relationship with the first half body 57 hold the five battery modules 9 in the third stage from the bottom, and the second and third third halves. The uppermost five battery modules 9 are held by the half bodies 60 and 61 and the fourth half body 66 which has a split relationship with them.

【0024】実施例では,第1,第4半体57,66を
共通に使用して,第1,第2半体57,60;第1,第
3半体57,61;第4,第2半体66,60;第4,
第3半体66,61はそれぞれ1つのグロメット69を
構成する。なお,グロメットとしては,分割面に1つの
半環状凹部を有する2つの半体よりなるもの等を用いる
こともできる。
In the embodiment, the first and fourth halves 57 and 66 are commonly used, and the first and second halves 57 and 60; the first and third halves 57 and 61; the fourth and fifth halves. 2 halves 66, 60; 4th
Each of the third halves 66, 61 constitutes one grommet 69. It should be noted that the grommet may be composed of two halves having one semi-annular recess on the dividing surface.

【0025】図9にも示すように,第1半体57の下面
にバッテリモジュール9の軸線と交差する方向に延びる
複数の小凹部70が形成され,それら小凹部70と対応
する複数の突起71が第4半体66の上面に形成されて
いる。上,下方向中間位置において,第1,第4半体5
7,66の各小凹部70と各突起71との嵌合によって
上側の複数のグロメット69と下側の複数のグロメット
69とが相互に位置決めされる。
As shown in FIG. 9, a plurality of small recesses 70 extending in a direction intersecting the axis of the battery module 9 are formed on the lower surface of the first half body 57, and a plurality of protrusions 71 corresponding to the small recesses 70. Is formed on the upper surface of the fourth half body 66. At the intermediate position in the upper and lower directions, the first and fourth halves 5
By fitting the small recesses 70 and 66 with the protrusions 71, the upper grommets 69 and the lower grommets 69 are positioned relative to each other.

【0026】図10にも示すように,第1半体57の上
向きの分割面58全体にバッテリモジュール9の軸線と
交差する方向に延びる小凹部72が形成され,その小凹
部72と対応する突起73が第2,各第3半体60,6
1の下向きの分割面62,64全体にそれぞれ形成され
ている。また図11にも示すように,第4半体66の下
向きの分割面67全体にバッテリモジュール9の軸線と
交差する方向に延びる小凹部74が形成され,その小凹
部74と対応する突起73が第2,各第3半体60,6
1の上向きの分割面62,64全体にそれぞれ形成され
ている。これら小凹部72および各突起73ならびに小
凹部74および各突起73の凹,凸嵌合によって,第1
および第2,各第3半体57,60,61間ならびに第
2,各第3半体60,61および第4半体66間のバッ
テリモジュール9軸線方向の位置決めがなされる。
As shown in FIG. 10, a small concave portion 72 extending in the direction intersecting the axis of the battery module 9 is formed on the entire upward dividing surface 58 of the first half body 57, and a projection corresponding to the small concave portion 72. 73 is the second and third halves 60, 6
1 is formed on the whole of the downward dividing surfaces 62, 64. Also, as shown in FIG. 11, a small concave portion 74 extending in a direction intersecting the axis of the battery module 9 is formed on the entire downward dividing surface 67 of the fourth half body 66, and a projection 73 corresponding to the small concave portion 74 is formed. Second and third halves 60,6
It is formed on the whole of the divided surfaces 62, 64 facing upward. The small recesses 72 and the projections 73, and the recesses and the convex fittings of the small recesses 74 and the projections 73, are used to
The battery module 9 is axially positioned between the second and third third halves 57, 60, 61 and between the second and third third halves 60, 61 and fourth half 66.

【0027】最上位にある第4半体66の上面とフレー
ム部材Fの上部連結部12との間に複数の板ばね75が
配置され,それら板ばね75の弾発力によって複数のグ
ロメット69,したがって板状部材11がベースプレー
ト10に圧着される。図12に示すように,フレーム部
材Fは,門形の内側に溝76が位置するように,溝形断
面を有し,上部連結部12においてはその溝76内に各
板ばね75が収められて,その外れ止めがなされてい
る。
A plurality of leaf springs 75 are disposed between the upper surface of the uppermost fourth half body 66 and the upper connecting portion 12 of the frame member F, and a plurality of grommets 69 are generated by the elastic force of the leaf springs 75. Therefore, the plate member 11 is pressure-bonded to the base plate 10. As shown in FIG. 12, the frame member F has a groove-shaped cross section so that the groove 76 is located inside the gate shape, and the leaf springs 75 are housed in the groove 76 in the upper connecting portion 12. Therefore, the disengagement is prevented.

【0028】図13に示すように各グロメット69を形
成する両半体,つまり第1,第2半体57,60等の両
半環状凹部59,63内周面およびそれら半環状凹部5
9,63内周面に嵌まる各絶縁リング27外周面に,相
互に嵌合する凹,凸部,実施例では絶縁リング27側に
環状凸部77が,また第1,第2半体57,60等の半
環状凹部59,63側に半環状凹部78がそれぞれ形成
されている。これら環状凸部77と両半環状凹部78と
の嵌合によってバッテリモジュール9とグロメット69
との位置決めを容易に行うことができる。なお,環状凸
部77を有する絶縁リング27を,グロメット69に対
応しない位置にある絶縁リングとして使用してもよい。
As shown in FIG. 13, both halves forming each grommet 69, that is, the inner peripheral surfaces of both semi-annular recesses 59 and 63 of the first and second halves 57 and 60 and the semi-annular recess 5 thereof.
On the outer peripheral surface of each insulating ring 27 fitted on the inner peripheral surface of the inner ring 9, 63, a concave portion and a convex portion which are fitted to each other are formed. , 60 and the like are formed on the sides of the semi-annular recesses 59, 63, respectively. The battery module 9 and the grommet 69 are fitted to each other by fitting the annular convex portion 77 and the two semi-annular concave portions 78.
Can be easily positioned. The insulating ring 27 having the annular convex portion 77 may be used as an insulating ring at a position not corresponding to the grommet 69.

【0029】図14〜16に示すように各グロメット6
9を形成する両半体,つまり第2,第4半体60,66
等の両半環状凹部63,68内周面およびそれら半環状
凹部63,68内周面に嵌まる各絶縁リング27外周面
に,相互に嵌合する凹,凸部,実施例では絶縁リング2
7側に環状凸部77が,また第2,第4半体60,66
等の半環状凹部63,68側に半環状凹部78がそれぞ
れ形成されている。この場合,相隣る両バッテリモジュ
ール9の一方における凹,凸部77,78の嵌合位置X
1 と,他方における前記凹凸部77,78の嵌合位置X
2 とがバッテリモジュール軸線方向Dにて距離dだけ食
違っている。
As shown in FIGS. 14 to 16, each grommet 6
Both halves forming the 9, namely the second and fourth halves 60, 66
Etc. The inner peripheral surfaces of the two semi-annular recesses 63, 68 and the outer peripheral surfaces of the insulating rings 27 fitted in the inner peripheral surfaces of the semi-annular recesses 63, 68 are recesses and protrusions which are fitted to each other, and the insulating ring 2 in the embodiment.
The annular convex portion 77 is provided on the 7 side and the second and fourth halves 60, 66 are also provided.
A semi-annular recess 78 is formed on the side of the semi-annular recesses 63 and 68. In this case, the fitting position X of the concave and convex portions 77 and 78 in one of the battery modules 9 adjacent to each other
1 and the fitting position X of the uneven portions 77 and 78 on the other side
2 differs from the battery module axial direction D by a distance d.

【0030】このように構成すると,バッテリモジュー
ル9とグロメット69との位置決めを容易に行うことが
できる。また,図14において,例えば左側のバッテリ
モジュール9を右側に配置すると,そのバッテリモジュ
ール9の正極7および負極8の位置が第1,第2バスバ
ープレート39,40に対して狂ってくるので,両嵌合
位置X1 ,X2 の食違い構造はバッテリモジュール9の
誤組防止効果をもたらす。図1等において,80は各バ
スバープレート39,40を覆う端子板プレートであ
る。
With this structure, the battery module 9 and the grommet 69 can be easily positioned. Further, in FIG. 14, for example, when the left battery module 9 is arranged on the right side, the positions of the positive electrode 7 and the negative electrode 8 of the battery module 9 are misaligned with respect to the first and second bus bar plates 39, 40. The staggered structure of the fitting positions X 1 and X 2 has an effect of preventing the battery module 9 from being erroneously assembled. In FIG. 1 and the like, reference numeral 80 is a terminal plate plate that covers the bus bar plates 39 and 40.

【0031】[0031]

【発明の効果】請求項1記載の発明によれば,前記のよ
うに構成することによって,各バッテリモジュールにお
ける相隣る両バッテリの正,負極間の接続部の破断を回
避し,また各バッテリモジュールに,その軸線方向の寸
法にばらつきが生じても,その正,負極とバスバーとの
接続を容易に行い,その上コストが安く,軽量なバッテ
リ式電源装置を提供することができる。
According to the first aspect of the present invention, with the above-mentioned structure, breakage of the connection between the positive and negative electrodes of the two adjacent batteries in each battery module can be avoided, and each battery can be avoided. Even if the module has a variation in the dimension in the axial direction, the positive and negative electrodes can be easily connected to the bus bar, and the cost can be reduced and a lightweight battery type power supply device can be provided.

【0032】請求項2記載の発明によれば,前記効果に
加え,各グロメットと各バッテリモジュールとの位置決
めを容易に行うことが可能なバッテリ式電源装置を提供
することができる。
According to the second aspect of the present invention, in addition to the above effects, it is possible to provide a battery-type power supply device capable of easily positioning each grommet and each battery module.

【0033】請求項3記載の発明によれば,前記効果に
加えて,バッテリモジュールの誤組防止効果を得ること
ができる。
According to the third aspect of the present invention, in addition to the above effects, the effect of preventing the battery module from being erroneously assembled can be obtained.

【0034】請求項4記載の発明によれば,各バッテリ
モジュールに,その軸線方向の寸法にばらつきが生じて
も,その正,負極とバスバーとの接続を容易に行うこと
が可能なバッテリ式電源装置を提供することができる。
According to the invention described in claim 4, the battery type power source which can easily connect the positive and negative electrodes to the bus bar even if the dimension in the axial direction varies among the battery modules. A device can be provided.

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

【図1】バッテリ式電源装置の第1実施例の斜視図であ
る。
FIG. 1 is a perspective view of a first embodiment of a battery type power supply device.

【図2】バッテリモジュールの斜視図である。FIG. 2 is a perspective view of a battery module.

【図3】図1,図2の3−3線断面図である。FIG. 3 is a sectional view taken along line 3-3 of FIGS. 1 and 2.

【図4】バッテリモジュールの分解斜視図である。FIG. 4 is an exploded perspective view of a battery module.

【図5】第1バスバープレートの斜視図である。FIG. 5 is a perspective view of a first bus bar plate.

【図6】第2バスバープレートの斜視図である。FIG. 6 is a perspective view of a second bus bar plate.

【図7】第1バスバーの斜視図である。FIG. 7 is a perspective view of a first bus bar.

【図8】板状部材と,フレーム部材およびベースプレー
トとの関係を示す要部破断側面図である。
FIG. 8 is a fragmentary side view showing the relationship between a plate member, a frame member and a base plate.

【図9】図8の9−9線断面図である。9 is a sectional view taken along line 9-9 of FIG.

【図10】図8の10−10線断面図である。10 is a sectional view taken along line 10-10 of FIG.

【図11】図8の11−11線断面図である。11 is a cross-sectional view taken along line 11-11 of FIG.

【図12】図8の12−12線断面図である。12 is a sectional view taken along line 12-12 of FIG.

【図13】バッテリ式電源装置の第2実施例におけるグ
ロメットとバッテリモジュールの絶縁リングとの関係を
示す斜視図である。
FIG. 13 is a perspective view showing the relationship between the grommet and the insulating ring of the battery module in the second embodiment of the battery type power supply device.

【図14】バッテリ式電源装置の第3実施例におけるグ
ロメットとバッテリモジュールの絶縁リングとの関係を
示すもので,図8の14−14矢視図に相当する。
FIG. 14 shows the relationship between the grommet and the insulating ring of the battery module in the third embodiment of the battery type power supply device, and corresponds to the view taken along the arrow 14-14 in FIG.

【図15】第2半体の平面図で,図8の14−14矢視
図に相当する。
15 is a plan view of the second half body and corresponds to a view taken along arrow 14-14 in FIG. 8. FIG.

【図16】第4半体の断面図で,図8の16−16線断
面図に相当する。
16 is a sectional view of a fourth half body and corresponds to a sectional view taken along line 16-16 of FIG.

【符号の説明】[Explanation of symbols]

1………………バッテリ式電源装置 5………………バッテリ集合体 6………………バッテリ 7………………正極 8………………負極 9………………バッテリモジュール 10……………ベースプレート 11……………板状部材 12……………上部連結部 13……………脚部 16……………第1バスバー 27……………絶縁リング 30……………環状凹部 31……………環状凹部 39……………第1バスバープレート 40……………第2バスバープレート 41……………六角孔(貫通孔) 42……………四角孔(貫通孔) 43……………第2バスバー 45……………環状接続部 48……………環状接続部 57……………第1半体 60……………第2半体 61……………第3半体 66……………第4半体 69……………グロメット 77……………環状凸部 78……………環状凹部 A………………軸線 B………………仮想平面 C………………交点 D………………バッテリモジュール軸線方向 F………………フレーム部材 d………………距離 1 ……………… Battery type power supply 5 ……………… Battery assembly 6 ……………… Battery 7 ……………… Positive electrode 8 ……………… Negative electrode 9 ……………… Battery module 10 ……………… Base plate 11 ……………… Plate member 12 ……………… Top connection part 13 ……………… Legs 16 ……………… First bus bar 27 ……………… Insulation ring 30 ……………… Annular recess 31 ……………… Annular recess 39 ……………… First bus bar plate 40 ……………… Second bus bar plate 41 ……………… Hexagonal hole (through hole) 42 ……………… Square hole (through hole) 43 ……………… Second bus bar 45 ……………… Ring connection 48 ……………… Ring connection 57 ……………… the first half 60 …………… the second half 61 ……………… The third half 66 ……………… the fourth half 69 …………… Grommet 77 ……………… Ring-shaped convex part 78 ……………… Annular recess A ……………… Axis line B ……………… Virtual plane C ……………… Intersection D ……………… Battery module axial direction F ……………… Frame member d ……………… distance

───────────────────────────────────────────────────── フロントページの続き (72)発明者 大矢 聡義 埼玉県和光市中央1丁目4番1号 株式会 社本田技術研究所内 (72)発明者 渋谷 健太郎 埼玉県和光市中央1丁目4番1号 株式会 社本田技術研究所内 Fターム(参考) 5H022 AA19 CC02 CC09 CC12 5H040 AA20 AA22 AT01 AY06 CC59 DD03 DD05 DD13 DD21    ─────────────────────────────────────────────────── ─── Continued front page    (72) Inventor Satoshi Oya             1-4-1 Chuo Stock Market, Wako City, Saitama Prefecture             Inside Honda Research Laboratory (72) Inventor Kentaro Shibuya             1-4-1 Chuo Stock Market, Wako City, Saitama Prefecture             Inside Honda Research Laboratory F-term (reference) 5H022 AA19 CC02 CC09 CC12                 5H040 AA20 AA22 AT01 AY06 CC59                       DD03 DD05 DD13 DD21

Claims (4)

【特許請求の範囲】[Claims] 【請求項1】 直列に接続された複数のバッテリ(6)
より構成されて,一端部に正極(7)を,また他端部に
負極(8)をそれぞれ有する複数の棒状バッテリモジュ
ール(9)を,それらの軸線(A)が互に平行し,且つ
それらの軸線(A)と交差する仮想平面(B)にて各軸
線(A)とその仮想平面(B)との交点(C)が上,下
方向および左,右方向に並ぶように配列すると共に,バ
ッテリモジュール軸線方向(D)両端部側にそれぞれ複
数の正極(7)と複数の負極(8)とよりなる正,負極
群を存在させたバッテリ集合体(5)を備え,各バッテ
リモジュール(9)の相隣る両バッテリ(6)の相対向
する両端部間に,それら両端部と嵌合する環状凹部(3
0,31)を持つ絶縁リング(27)が挟着されると共
にその絶縁リング(27)の内周面で囲まれる領域に前
記正極(7)と負極(8)との接続部が在り,各バッテ
リモジュール(9)は,前記仮想平面(B)と平行で,
且つベースプレート(10)上に立てられた複数の板状
部材(11)に,それらを貫通するように保持され,各
板状部材(11)は,門型をなすと共に上部連結部(1
2)をその板状部材(11)の上端面に当てて,両脚部
(13)を前記ベースプレート(10)に固定されたフ
レーム部材(F)により直立状態に保たれ,各板状部材
(11)は,二つ割りの両半体(57,60;57,6
1;60,66;61,66)よりなる複数のグロメッ
ト(69)の集合体であって,両半体(57,60;5
7,61;60,66;61,66)はそれらの分割面
(58,62,64,67)に開口して前記絶縁リング
(27)外周面の半周部分に嵌まる半環状凹部(59,
63,65,68)を有し,前記バッテリ集合体(5)
の各正,負極群と対向する各バスバープレート(39,
40)に,各正,負極(7,8)と嵌合する複数の貫通
孔(41,42)と,各貫通孔(41,42)と嵌合し
た各正,負極(7,8)と接続される複数のバスバー
(16,43)とが設けられ,各バスバー(16,4
3)の前記正,負極(7,8)との接続部(45,46
,48)が前記正,負極(7,8)に対してそれぞれ
進退可能であることを特徴とするバッテリ式電源装置。
1. A plurality of batteries (6) connected in series
A plurality of rod-shaped battery modules (9) each having a positive electrode (7) at one end and a negative electrode (8) at the other end, the axes (A) of which are parallel to each other, and In the virtual plane (B) intersecting with the axis (A), the intersections (C) of each axis (A) and the virtual plane (B) are arranged so as to line up, down, left and right. , A battery assembly (5) in which positive and negative electrode groups each including a plurality of positive electrodes (7) and a plurality of negative electrodes (8) are present on both ends of the battery module in the axial direction (D). 9) Between the two opposite ends of both batteries (6) adjacent to each other, an annular recess (3
0, 31) having an insulating ring (27) sandwiched between them, and a connecting portion between the positive electrode (7) and the negative electrode (8) is present in a region surrounded by the inner peripheral surface of the insulating ring (27). The battery module (9) is parallel to the virtual plane (B),
In addition, a plurality of plate-shaped members (11) that are erected on the base plate (10) are held so as to penetrate them, and each plate-shaped member (11) forms a gate shape and an upper connection part (1).
2) is applied to the upper end surface of the plate-like member (11) and both legs (13) are kept upright by the frame member (F) fixed to the base plate (10). ) Is the two halves (57,60; 57,6)
1; 60,66; 61,66) consisting of a plurality of grommets (69), both halves (57,60; 5)
7, 61; 60, 66; 61, 66) are semi-annular recesses (59, 59) which are opened in the dividing surfaces (58, 62, 64, 67) and fit into a half of the outer peripheral surface of the insulating ring (27).
63, 65, 68), and the battery assembly (5)
Of each bus bar plate (39,
40), a plurality of through holes (41, 42) fitted to the positive and negative electrodes (7, 8), and positive and negative electrodes (7, 8) fitted to the through holes (41, 42). A plurality of connected bus bars (16, 43) are provided, and each bus bar (16, 4)
3) The connection part (45, 46) with the positive and negative electrodes (7, 8)
, 48) can move forward and backward with respect to the positive and negative electrodes (7, 8), respectively.
【請求項2】 各グロメット(69)における前記両半
体(57,60;57,61;60,66;61,6
6)の前記半環状凹部(59,63,65,68)内周
面および両半環状凹部(59,63,65,68)内周
面に嵌まる各絶縁リング(27)の外周面に,相互に嵌
合する凹,凸部(77,78)が設けられている,請求
項1記載のバッテリ式電源装置。
2. The halves (57, 60; 57, 61; 60, 66; 61, 6) of each grommet (69).
6) on the inner peripheral surface of the semi-annular recess (59, 63, 65, 68) and on the outer peripheral surface of each insulating ring (27) fitted in the inner peripheral surface of both semi-annular recesses (59, 63, 65, 68), The battery type power supply device according to claim 1, wherein concave and convex portions (77, 78) that are fitted to each other are provided.
【請求項3】 各グロメット(69)における前記両半
体(57,60;57,61;60,66;61,6
6)の前記半環状凹部(59,63,65,68)内周
面および両半環状凹部(59,63,65,68)内周
面に嵌まる各絶縁リング(27)の外周面に,相互に嵌
合する凹,凸部(77,78)が設けられており,相隣
る両バッテリモジュール(9)の一方における前記凹,
凸部(77,78)の嵌合位置(X1 )と,他方におけ
る前記凹,凸部(77,78)の嵌合位置(X2 )とが
バッテリモジュール軸線方向(D)にて食違っている,
請求項1記載のバッテリ式電源装置。
3. The halves (57, 60; 57, 61; 60, 66; 61, 6) of each grommet (69).
6) on the inner peripheral surface of the semi-annular recess (59, 63, 65, 68) and on the outer peripheral surface of each insulating ring (27) fitted in the inner peripheral surface of both semi-annular recesses (59, 63, 65, 68), A concave portion and a convex portion (77, 78) that are fitted to each other are provided, and the concave portion on one of the adjacent battery modules (9),
The fitting position (X 1 ) of the convex portion (77, 78) and the fitting position (X 2 ) of the concave portion and the convex portion (77, 78) on the other side are different in the battery module axial direction (D). ing,
The battery-type power supply device according to claim 1.
【請求項4】 直列に接続された複数のバッテリ(6)
より構成されて,一端部に正極(7)を,また他端部に
負極(8)をそれぞれ有する複数の棒状バッテリモジュ
ール(9)を,それらの軸線(A)が互に平行し,且つ
それらの軸線(A)と交差する仮想平面(B)にて各軸
線(A)とその仮想平面(B)との交点(C)が上,下
方向および左,右方向に並ぶように配列すると共に,バ
ッテリモジュール軸線方向(D)両端部側にそれぞれ複
数の正極(7)と複数の負極(8)とよりなる正,負極
群を存在させたバッテリ集合体(5)を備えたバッテリ
式電源装置であって,前記バッテリ集合体(5)の各
正,負極群と対向する各バスバープレート(39,4
0)に,各正,負極(7,8)と嵌合する複数の貫通孔
(41,42)と,各貫通孔(41,42)と嵌合した
各正,負極(7,8)と接続される複数のバスバー(1
6,43)とが設けられ,各バスバー(16,43)の
前記正,負極(7,8)との接続部(45,46,4
8)が前記正,負極(7,8)に対してそれぞれ進退可
能であることを特徴とするバッテリ式電源装置。
4. A plurality of batteries (6) connected in series
A plurality of rod-shaped battery modules (9) each having a positive electrode (7) at one end and a negative electrode (8) at the other end, the axes (A) of which are parallel to each other, and In the virtual plane (B) intersecting with the axis (A), the intersections (C) of each axis (A) and the virtual plane (B) are arranged so as to line up, down, left and right. , A battery type power supply device provided with a battery assembly (5) in which positive and negative electrode groups each having a plurality of positive electrodes (7) and a plurality of negative electrodes (8) are present on both end sides of the battery module axial direction (D) The bus bar plates (39, 4) facing the positive and negative electrode groups of the battery assembly (5).
0), a plurality of through holes (41, 42) fitted with the positive and negative electrodes (7, 8), and positive and negative electrodes (7, 8) fitted with the through holes (41, 42). Multiple connected busbars (1
6, 43) are provided, and the connection portions (45, 46, 4) of the bus bars (16, 43) with the positive and negative electrodes (7, 8) are provided.
The battery type power supply device is characterized in that 8) can move forward and backward with respect to the positive and negative electrodes 7, 8, respectively.
JP2003044206A 2002-03-05 2003-02-21 Battery powered power supply Expired - Fee Related JP3828870B2 (en)

Priority Applications (2)

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JP2003044206A JP3828870B2 (en) 2002-03-05 2003-02-21 Battery powered power supply
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JP2002058836 2002-03-05
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JP2003297334A (en) * 2002-04-08 2003-10-17 Nissan Motor Co Ltd Connecting structure of thin form batteries and pack battery
JP2006222043A (en) * 2005-02-14 2006-08-24 Yazaki Corp Battery connecting plate
KR100783871B1 (en) * 2006-11-29 2007-12-10 현대자동차주식회사 Holder for battery module
JP2010533953A (en) * 2007-07-16 2010-10-28 エルジー・ケム・リミテッド Secondary battery pack with mechanical connection style
WO2012035683A1 (en) * 2010-09-17 2012-03-22 パナソニック株式会社 Battery block and battery module
CN108832069A (en) * 2018-08-27 2018-11-16 苏州安靠电源有限公司 Battery modules
CN109244279A (en) * 2018-09-13 2019-01-18 常州微宙电子科技有限公司 A kind of Split insulation formula high-energy density lithium battery casing
CN110168767A (en) * 2016-11-02 2019-08-23 E-7***技术管理有限公司 For electrically securely connecting the plate and battery of cell negative terminal
CN111063838A (en) * 2019-11-25 2020-04-24 武汉理工大学 Power battery system of unmanned test target vehicle and assembly method thereof

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JP2001155702A (en) * 1999-11-30 2001-06-08 Sony Corp Battery device
JP2001185103A (en) * 1999-12-28 2001-07-06 Honda Motor Co Ltd Battery element device
JP2001185102A (en) * 1999-12-28 2001-07-06 Sanyo Electric Co Ltd Battery pack

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JP2001155702A (en) * 1999-11-30 2001-06-08 Sony Corp Battery device
JP2001185103A (en) * 1999-12-28 2001-07-06 Honda Motor Co Ltd Battery element device
JP2001185102A (en) * 1999-12-28 2001-07-06 Sanyo Electric Co Ltd Battery pack

Cited By (11)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2003297334A (en) * 2002-04-08 2003-10-17 Nissan Motor Co Ltd Connecting structure of thin form batteries and pack battery
JP2006222043A (en) * 2005-02-14 2006-08-24 Yazaki Corp Battery connecting plate
KR100783871B1 (en) * 2006-11-29 2007-12-10 현대자동차주식회사 Holder for battery module
JP2010533953A (en) * 2007-07-16 2010-10-28 エルジー・ケム・リミテッド Secondary battery pack with mechanical connection style
WO2012035683A1 (en) * 2010-09-17 2012-03-22 パナソニック株式会社 Battery block and battery module
KR101275347B1 (en) * 2010-09-17 2013-06-17 파나소닉 주식회사 Battery block and battery module
US8507119B2 (en) 2010-09-17 2013-08-13 Panasonic Corporation Battery block and battery module
CN110168767A (en) * 2016-11-02 2019-08-23 E-7***技术管理有限公司 For electrically securely connecting the plate and battery of cell negative terminal
CN108832069A (en) * 2018-08-27 2018-11-16 苏州安靠电源有限公司 Battery modules
CN109244279A (en) * 2018-09-13 2019-01-18 常州微宙电子科技有限公司 A kind of Split insulation formula high-energy density lithium battery casing
CN111063838A (en) * 2019-11-25 2020-04-24 武汉理工大学 Power battery system of unmanned test target vehicle and assembly method thereof

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