JPS59102711A - Vibrating part supply device - Google Patents
Vibrating part supply deviceInfo
- Publication number
- JPS59102711A JPS59102711A JP20902082A JP20902082A JPS59102711A JP S59102711 A JPS59102711 A JP S59102711A JP 20902082 A JP20902082 A JP 20902082A JP 20902082 A JP20902082 A JP 20902082A JP S59102711 A JPS59102711 A JP S59102711A
- Authority
- JP
- Japan
- Prior art keywords
- parts
- floor
- component
- side wall
- transfer path
- 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
Links
Classifications
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65G—TRANSPORT OR STORAGE DEVICES, e.g. CONVEYORS FOR LOADING OR TIPPING, SHOP CONVEYOR SYSTEMS OR PNEUMATIC TUBE CONVEYORS
- B65G47/00—Article or material-handling devices associated with conveyors; Methods employing such devices
- B65G47/02—Devices for feeding articles or materials to conveyors
- B65G47/04—Devices for feeding articles or materials to conveyors for feeding articles
- B65G47/12—Devices for feeding articles or materials to conveyors for feeding articles from disorderly-arranged article piles or from loose assemblages of articles
- B65G47/14—Devices for feeding articles or materials to conveyors for feeding articles from disorderly-arranged article piles or from loose assemblages of articles arranging or orientating the articles by mechanical or pneumatic means during feeding
- B65G47/1407—Devices for feeding articles or materials to conveyors for feeding articles from disorderly-arranged article piles or from loose assemblages of articles arranging or orientating the articles by mechanical or pneumatic means during feeding the articles being fed from a container, e.g. a bowl
- B65G47/1414—Devices for feeding articles or materials to conveyors for feeding articles from disorderly-arranged article piles or from loose assemblages of articles arranging or orientating the articles by mechanical or pneumatic means during feeding the articles being fed from a container, e.g. a bowl by means of movement of at least the whole wall of the container
- B65G47/1421—Vibratory movement
Landscapes
- Engineering & Computer Science (AREA)
- Mechanical Engineering (AREA)
- Jigging Conveyors (AREA)
- Feeding Of Articles To Conveyors (AREA)
Abstract
Description
【発明の詳細な説明】 本発明は振動部品供給装置に関する。[Detailed description of the invention] The present invention relates to a vibrating component supply device.
振動部品供給装置は一般にパーツフィーダとも呼ばれ、
スパイラル式のパーツフィーダによればスパイラル状の
トラックを形成させたボールにねじシ振動力が与えられ
、部品はトラック上を上昇して行き該トラックの排出端
から次工程に一個宛供給される。然るに部品を一個宛排
出するためにはトラックの排出端に部品は単層及び単列
で到来しなければならない。すなわち、部品が重なった
シ、複数列で到来してはいけない。従来はこの目的でワ
イパーを用いたり、トラックの巾を部分的に部品の巾に
はゾ等しいか、これよりわずかに小さくしていた。ワイ
パーにより重なった部品はボール内方へと除去され、複
数列の部品は巾が/J’%ざくなっているトラック部分
でボール内方側の列の部品がボール内方へと落下するこ
とによシ単列に矯正された。然るに異なる種類のまたは
形状の異なった部品を処理する場合にはワイパーの取付
位置を変更したり、単列矯正用のトラック部分の巾を変
更しなければならない。ワイパーの取付位置の変更は容
易であるが、トラック部分の巾の変更はトラックに再加
工を施す力\、他のボールと交換しなければ々らないの
で面倒である。The vibrating parts feeding device is generally also called a parts feeder.
According to a spiral type parts feeder, a screw vibration force is applied to a ball forming a spiral track, and the parts ascend on the track and are fed one by one to the next process from the discharge end of the track. However, in order to discharge the parts one by one, the parts must arrive at the discharge end of the truck in a single layer and in a single row. In other words, parts must not overlap or arrive in multiple rows. Traditionally, wipers have been used for this purpose, or the width of the track has been made partially equal to or slightly less than the width of the part. The overlapping parts are removed inward by the wiper, and the parts in multiple rows fall into the inside of the ball at the track section where the width is reduced by /J'%. It was straightened into a single row. However, when processing parts of different types or shapes, it is necessary to change the mounting position of the wiper or the width of the track portion for single-row correction. Changing the mounting position of the wiper is easy, but changing the width of the track part is troublesome because it requires reworking the track and replacing it with another ball.
本発明は上述の問題に鑑みてなされ、いかなる種類の部
品にも適用可能な振動部品供給装置を提供することを目
的とする。この目的は本発明の第1発明によれば、側壁
部と床部とによって形成される部品移送用トラックの排
出端またはこのワト出端の近傍に、前記側壁部と整列す
る側面を有する取付ブロックと;この取付ブロックに対
し前記床部の巾方向に摺動可能で、かつ該床部と整列す
る床面な形成する床面形成部材と;前記取付ブロックの
前記側面に対し前記側壁部の巾方向に摺動可能で前記床
面からの高さを調節する移送路高さ調節部材と;摺動位
置保持手段とから成る部品単層・単列排出装置iirを
設け、前記部品移送用トラックから排出される部品の形
状、姿勢に応じて前記床面形成部材と前記移送路高さ調
節部材の谷摺動位fItを調節し、該調節摺動位置を前
記摺動位置保持手段により保持させ、よって部品を一個
宛供給するようにしたことを特徴とする振動部品供給装
置、によって達成される。The present invention has been made in view of the above-mentioned problems, and an object of the present invention is to provide a vibrating component supply device that can be applied to any type of component. According to the first aspect of the present invention, this object is achieved by providing a mounting block, which has a side surface aligned with the side wall part, in the vicinity of the discharge end of the parts transfer truck formed by the side wall part and the floor part or the exit end of the track. a floor forming member that is slidable in the width direction of the floor with respect to the mounting block and forms a floor that is aligned with the floor; a width of the side wall relative to the side surface of the mounting block; A component single-layer/single-row discharging device IIR is provided, which comprises a transfer path height adjusting member that is slidable in the direction and adjusts the height from the floor surface; and a sliding position holding means; adjusting the valley sliding position fIt of the floor surface forming member and the transfer path height adjusting member according to the shape and posture of the parts to be discharged, and holding the adjusted sliding position by the sliding position holding means; Therefore, this can be achieved by a vibrating parts feeding device characterized in that parts are fed one by one.
また本発明の第2発明によれば、側壁部と床部とによっ
て形成される部品移送用トラックの排出端またはこの排
出端の近傍に、前記側壁部と整列する側面を有する取付
ブロックと;この取付ブロックに対し前記床部の巾方向
に摺動可能で、かつ該床部と整列する床面な形成する床
面形成部材と;前記取付ブロックの前記側面に対し前記
側壁部の巾方向に摺動可能で前記床面からの高さを調節
する移送路高さ調節部材と;摺動位置保持手段とから成
る部品単層・単列排出装置を設け、かつ該部品単層・単
列排出装置の上流側に前記部品移送用トラックの前記側
壁部または前記床部と整列し得る整列面を部分的に備え
、該整列面と前記1111I壁部または前記床部との相
対的位置7al−調整可能とする調整ブロックから成る
部品流量調整手段を設け、前記部品移送用トラックから
排出される部品の形状、姿勢に応じて前記床面形成部材
と前記移送路高さ調節部材の谷摺動位置を調節し、該調
節摺動位置を前記摺動位置保持手段によシ保持させ、よ
って部品を一個宛供給するようにし、かつ前記調整ブロ
ックの調整により該調整ブロックの側方をとを特徴とす
る振動部品供給装置、によって達成される。According to a second aspect of the present invention, a mounting block having a side surface aligned with the side wall at or near the discharge end of the parts transfer truck formed by the side wall and the floor; a floor surface forming member that is slidable in the width direction of the floor portion with respect to the mounting block and forms a floor surface that is aligned with the floor portion; A component single-layer/single-row discharging device is provided, comprising a transfer path height adjusting member that is movable and adjusts the height from the floor surface; and a sliding position holding means, and the component single-layer/single-row discharging device partially comprises an alignment surface that can be aligned with the side wall or the floor of the parts transfer truck on the upstream side of the 1111I, and the relative position 7al between the alignment surface and the 1111I wall or the floor is adjustable. A parts flow rate adjustment means consisting of an adjustment block is provided, and the valley sliding position of the floor surface forming member and the transfer path height adjustment member is adjusted according to the shape and orientation of the parts discharged from the parts transfer truck. and the adjustment sliding position is held by the sliding position holding means, so that parts are fed one by one, and the adjustment of the adjustment block causes vibration characterized by: This is accomplished by a parts supply device.
以下、本発明の実施例によるパーツフィーダについて図
面を参照して説明する。DESCRIPTION OF THE PREFERRED EMBODIMENTS Parts feeders according to embodiments of the present invention will be described below with reference to the drawings.
本実施例のパーツフィーダは電子部品であるチップ抵抗
をカウントするのに適用されるが、第1図に?いてパー
ツフィーダは全体として(IJで示きれ、はゾわん状の
ボール(2)ヲ備えている。このボール(2)の底部に
は可動コア(3)が固定され、一定角度で傾斜し、等角
度間隔で配役δれた複数の板はネ(4)によりベース(
5)と結合されている。ベース(5)上には電磁石(6
)が固定され、コイル(7)を巻装している。ボール(
2)に公知のねじ9振動を与えるねじシ振動駆動部は以
上のような可動コア(3)、板はね(4)、電磁石(6
)コイル(7)々どによって構成されるが、これらは円
筒形のカバー(8)によって被覆されている。パーツフ
ィーダ(1)全体は防振ゴム(9ンによって基礎上に支
持される。The parts feeder of this embodiment is applied to count chip resistors, which are electronic components. The parts feeder as a whole (indicated by IJ) is equipped with a bowl-shaped ball (2). A movable core (3) is fixed to the bottom of this ball (2), and is tilted at a certain angle. A plurality of plates arranged at equal angular intervals by δ are created by Ne (4) as a base (
5) is combined with On the base (5) is an electromagnet (6
) is fixed and a coil (7) is wound around it. ball(
2) The screw vibration drive unit that gives the known screw vibration is composed of the movable core (3), the plate spring (4), and the electromagnet (6) as described above.
) coils (7), which are covered by a cylindrical cover (8). The entire parts feeder (1) is supported on the foundation by anti-vibration rubber (9).
ボール(2)の内周壁面には第2図及び第3図に示すよ
うにスパイラル状の部品移送用トラックaOが形成され
る。このトラック0(多は床部’11% T’、’14
・・・・・・・・・・・・ と側壁部01)とによって
構成され、側壁部αηの巾は一定であるが、床部T、、
T、、T、・・・・・・・・・の巾は下段に向うにつれ
順次大きくなっている。すなわち、第3図に示すように
同一の断面で見た場合、最上段の床部T1の巾をaとず
れば、2段目の床部T、の巾はa+bであり、3段目の
床部T、の巾はa+2b・・・・・・・・・というよう
に順次大きくなっている。As shown in FIGS. 2 and 3, a spiral component transfer track aO is formed on the inner peripheral wall surface of the ball (2). This track 0 (many is floor part '11% T', '14
The width of the side wall part αη is constant, but the width of the floor part T,...
The widths of T, , T, . . . gradually increase toward the bottom. That is, when viewed from the same cross section as shown in Fig. 3, if the width of the top floor T1 is shifted from a, the width of the second floor T1 is a+b, and the width of the third floor T1 is a+b. The width of the floor portion T gradually increases as follows.
このようなスパイラル峡のトラックOqを形成させてい
るボール(2)については本出願人は先に特願昭56−
200597号で開示しているので、その絆細々説明は
省略する。Regarding the ball (2) forming such a spiral gorge track Oq, the present applicant previously filed a patent application filed in 1983-
Since it is disclosed in No. 200597, detailed explanation of the bond will be omitted.
ボール(2)の中央底部に投入された多量の長方形状の
チップ抵抗mはねじ9振動力を受けてトラック0(身を
上昇して行くが、第3図に示すように大部分は表面また
は裏面を側壁部Qυに当接させて移送される。最上段の
床部T、では表面または裏面を床部に当接きせて移送さ
れて来たチップ抵抗mは下段の床部へと落下する。A large amount of rectangular chip resistor m inserted into the center bottom of the ball (2) receives the vibration force of the screw 9 and moves upwards on track 0 (body), but as shown in Fig. 3, most of it is on the surface or The chip resistor m is transferred with its back side in contact with the side wall Qυ.At the top floor T, the chip resistor m that has been transferred with its front side or back side in contact with the floor falls to the lower floor. .
第2図に示すようにボール(2)のトラックOOの最上
段部分のポール側壁部には第11図〜第14図に構造が
明示される部品流i調整装#(6)が取シ付けられ、ま
たトラックOQの排出端には第4図〜第8図に構造が明
示される部品単層・単列排出装#0が取り付けられてい
る。後述するように部品流量調整装置(ロ)によってこ
の側刃を通過する。部品mの流量が調整され、部品単層
・単列排出装置(至)によって確実に部品mが一個宛供
給される。As shown in Figure 2, a component flow adjustment device # (6) whose structure is clearly shown in Figures 11 to 14 is attached to the side wall of the pole at the top of the track OO of the ball (2). Furthermore, a component single-layer/single-row discharge device #0 whose structure is clearly shown in FIGS. 4 to 8 is attached to the discharge end of the truck OQ. As will be described later, the parts flow rate adjustment device (b) passes through this side blade. The flow rate of the component m is adjusted, and the component single layer/single row discharge device (to) reliably supplies the component m to one piece.
ます、第4図〜第1O図を参照して部品単層・単列排出
装置(2)の詳細について説明する。The details of the component single-layer/single-row discharging device (2) will now be described with reference to FIGS. 4 to 1O.
本装置(ハ)においては、各種部品を取付ける取付ブロ
ックα4に一対の貫通孔(ハ)が形成され、これに一対
のねじに)が挿通されてボール(2)のトラック01の
排出端部に固定される。取付ブロックα弔の下面には切
欠き(14a)が形成され、これにT字状の床面形成部
材0Iが嵌め込まれた上で取付ブロックα尋がボール(
2)のトラックtJ1の排出端部に一対のねじ(イ)に
よシ固定される。第4図に示すように床面形成部材αり
の下方に位置するボール(2)の側壁部上端には切9込
みα力が形成され、こ\に0リング(ト)が装着される
。これにより床面形成部材四は矢印Bに示す方向に滑ら
かに摺動自在とされる。In this device (C), a pair of through holes (C) are formed in the mounting block α4 for attaching various parts, and a pair of screws (2) are inserted into the holes to connect to the discharge end of the track 01 of the ball (2). Fixed. A notch (14a) is formed on the lower surface of the mounting block α, into which the T-shaped floor forming member 0I is fitted, and the mounting block α is fitted with a ball (14a).
It is fixed to the discharge end of the track tJ1 in 2) with a pair of screws (A). As shown in FIG. 4, a cut 9 force is formed at the upper end of the side wall of the ball (2) located below the floor surface forming member α, and an O ring (T) is attached to this. Thereby, the floor surface forming member 4 can be smoothly slid in the direction shown by the arrow B.
第4図に示すように取付ブロックα→のボール(2)の
内方側にある面σlは部品移送路Sの側面を形成するが
、この面ff1)に摺接して移送路高さ調節ブロック翰
が取付ブロックα4に上下動可能に取9付けられる。す
なわちブロック(ホ)は断面形状がL字状であり、その
垂直部(20a)が取付ブロックα複に摺接し、その水
平部(20b)には第5図に明示されるように一対の貫
通孔CDが形成され、これに取付ブロック(ロ)に植設
された一対のガイドビン(2zが挿通する。また一対の
貫通孔Qυの中央部には調整ねじ貫通孔@が形成され、
これに高さ調整ねじ(ホ)の軸部(2)を挿通させ、更
にコイルスプリングの41挿通させて、取付ブロックα
荀のねじ孔(ハ)に螺合させる。As shown in FIG. 4, the surface σl on the inner side of the ball (2) of the mounting block α→ forms the side surface of the component transfer path S, and the transfer path height adjustment block is in sliding contact with this surface ff1). A fence is attached to the mounting block α4 so as to be vertically movable. In other words, the block (E) has an L-shaped cross section, and its vertical part (20a) is in sliding contact with the mounting block α, and its horizontal part (20b) has a pair of through holes as shown in FIG. A hole CD is formed, into which a pair of guide bins (2z) implanted in the mounting block (b) are inserted.Also, an adjustment screw through hole @ is formed in the center of the pair of through holes Qυ.
Insert the shaft part (2) of the height adjustment screw (E) into this, and then insert the coil spring 41 into the mounting block α.
Screw it into the screw hole (c) of the screw.
コイルスプリング(241は取付ブロックα荀と移送路
高さ調節ブロック(1)との間で圧縮状態に8かれ、ブ
ロック(1)をガイドビン(2渇に沿って上方に付勢す
る。A coil spring (241) is compressed between the mounting block (α) and the transfer path height adjustment block (1), and urges the block (1) upward along the guide pin (2).
これによりブロック(ホ)の水平部(20b)はねじ(
至)の増径軸部弼に圧接される。よって一定の移送路高
さaが保持される。また第7図、第9図及び第10図に
示すように移送路高さ調節ブロック(イ)の垂直面部(
20a)の移送路入口側にはテーパ(21が形成されて
いる。As a result, the horizontal part (20b) of the block (E) is screwed (
(to) is pressed against the diameter-increasing shaft part. Therefore, a constant transfer path height a is maintained. In addition, as shown in FIGS. 7, 9, and 10, the vertical surface portion (
A taper (21) is formed on the transfer path entrance side of 20a).
取付ブロックa4には更に貫通孔■が形成され、これに
床面形成部材四の摺動位&を調節するための床面中調節
装置1(3Iのビン部c3℃が挿通される。ビン部Oυ
の上端部には作動用ビン(3りが側刃に延びて一体的に
形成され、中間部には一対の溝(ト)が形成されている
。溝(ハ)にはOリング(ロ)が装着され、これによシ
ビン部0υの貫通孔■内での回動を安定なものとしてい
る。ビン部OI)の下端部には偏心して偏心係合部6つ
が形成され、これは床面形成部材09の脚部(19a)
に形成されている長孔(37)に係合している。従って
、作動用ビンI33を貫通孔例の周シに回動させること
によって床面形成部材αつはその脚部(19a)が取付
ブロックαaの切欠溝(14a)で案内されて前後する
。すなわち、床面形成部材四は第4図及び第8図に示す
ように矢印入方向に移動し、これにより移送路Sの床面
中すが調節される。床面は床面形成部材α陣のアーム部
(19c)によって形成され、アーム部(19c)の移
送路入口側のエツジ部分には所定距離にわたってテーパ
(19b)が施されている。これにより排除すべき部品
の落下を容易なものとしている。床面形成部材αりのB
方向における摺動位置が調節された後は止めねじ06)
を取付ブロック(ロ)の側面に形成されたねじ孔(ハ)
に螺合締めつけることによp床面中調節装置(至)のビ
ン部(3I)の回動位置が固定きれる。The mounting block a4 is further formed with a through hole (2), into which is inserted the bottle part c3° of the floor surface adjustment device 1 (3I) for adjusting the sliding position & of the floor surface forming member 4. Oυ
At the upper end, an operating bottle (3) extends to the side blade and is integrally formed, and a pair of grooves (G) are formed in the middle part.The grooves (C) have an O-ring (B) is attached, thereby stabilizing the rotation within the through hole ■ of the shim part 0υ.Six eccentric engaging parts are formed eccentrically at the lower end of the bin part OI), which are connected to the floor surface. Legs (19a) of forming member 09
It is engaged with a long hole (37) formed in. Therefore, by rotating the actuating bin I33 around the periphery of the through hole, the floor forming member α moves back and forth with its legs (19a) being guided by the notch grooves (14a) of the mounting block αa. That is, the floor forming member 4 moves in the direction of the arrow as shown in FIGS. 4 and 8, thereby adjusting the floor surface of the transfer path S. The floor surface is formed by the arm portion (19c) of the floor forming member α group, and the edge portion of the arm portion (19c) on the transfer path entrance side is tapered (19b) over a predetermined distance. This makes it easier for parts to be removed to fall. B of floor forming member α
After the sliding position in the direction is adjusted, set screw 06)
Screw holes (c) formed on the side of the mounting block (b)
By screwing and tightening, the rotational position of the bin part (3I) of the p-floor intermediate adjustment device (to) can be fixed.
次に以上のように構成される部品単層・単列排出装置C
L1の上流側に設けられる部品流量調節装置(2)の詳
MBKついて第1I図〜第15図を参照して説明する。Next, component single-layer/single-row discharging device C configured as above
Details MBK of the component flow rate adjusting device (2) provided on the upstream side of L1 will be explained with reference to FIGS. 1I to 15.
部品流量調節装置(ロ)は調節ねじ6鎌と流量調節ブロ
ック(4Gから成シ、このブロック(401はボール(
2)の側壁部(4渇に形成される弧状の切欠き(42a
)に回動可能に嵌め込まれ、回動位置を調節した上で調
節ねじ(31の締めつけによってボール(2)に対して
同定される。ブロック(41は全体としては円柱形状で
あるが、その周側部に3つの傾斜面(41a)(41b
)(41c)が形成されている。これら傾斜面(41a
)(41b)(41c)の傾斜は第12図〜第14図に
示すようにトラック00の側壁部aυの傾斜と同一角度
であるが、その長さは図示するように相互に異なる。す
なわち、傾斜[(41aX41bバ41C)各々と連設
する垂直面部(61a)(61b)(61りとの境界線
は第11図に示すように弦をなし、その長さは相互に異
なる。The parts flow rate adjustment device (b) consists of 6 adjustment screws and a flow rate adjustment block (4G), this block (401 is a ball (
2) with an arc-shaped notch (42a) formed on the side wall (4).
), and after adjusting the rotation position, it is identified to the ball (2) by tightening the adjusting screw (31).The block (41 has a cylindrical shape as a whole, but its circumference Three inclined surfaces (41a) (41b) on the sides
) (41c) are formed. These inclined surfaces (41a
)(41b) and (41c) are at the same angle as the inclination of the side wall portion aυ of the track 00 as shown in FIGS. 12 to 14, but their lengths are different from each other as shown. That is, the boundary lines between the vertical surfaces (61a), (61b), and (61) connected to the inclined surfaces (41aX41b bars 41C) form a chord as shown in FIG. 11, and the lengths thereof are different from each other.
第11図及び第12図に示す同動位置では傾斜面(41
a)とトラック00の側壁部Qυとは整列して8す、傾
斜面(41a)と垂直面部(61a)との境界線からト
ラック00の床部T、までの距離Cはトラック00の側
壁部C1ηの巾にはゾ等しく、調節される移送路の1】
は最大である。この回動位置から、第11図においてブ
ロック(41)を時計方向に回動すれば、傾斜面(41
a)(4−10間の周面部(60a)が第15図に示す
ようにトランクOQの側壁部0ル側に突出し、これによ
シ移送路の巾が縮少される。反時計方向に回動すれば傾
斜面(41a)(41b)間の周面部(60b)がトラ
ックα0の側壁部0漫側に突出し、同様に移送路の巾が
縮少される。他の傾斜面(41b)(41c)も第13
図及び第14図に示すようにブロック+40の回動によ
ってトラック01の側壁部0υと整列する位FKkとる
ことができ、この回動位1錠からの回動量に、【っで、
これらの間の周面部(60C)及び(60aX60b)
の側壁部αη側への突出量が変えられ、移送路の巾が同
様に調節されるが、これら傾斜面(41a)(41b)
(41c)は処理される部品の大きさ、形状に応じて適
宜選択きれる。In the co-movement position shown in Figs. 11 and 12, the inclined surface (41
a) and the side wall portion Qυ of the truck 00 are aligned 8, and the distance C from the boundary line between the inclined surface (41a) and the vertical surface portion (61a) to the floor portion T of the truck 00 is the side wall portion of the truck 00. The width of C1η is equal to 1] of the adjusted transfer path.
is the maximum. From this rotational position, if the block (41) is rotated clockwise in FIG.
a) (The peripheral surface part (60a) between 4 and 10 protrudes toward the side wall part 0 of the trunk OQ as shown in FIG. 15, thereby reducing the width of the transfer path. In the counterclockwise direction When rotated, the peripheral surface (60b) between the inclined surfaces (41a and 41b) protrudes toward the side wall of the track α0, and the width of the transfer path is similarly reduced.Other inclined surfaces (41b) (41c) is also the 13th
As shown in the figure and FIG. 14, by rotating the block +40, it is possible to take a position FKk that is aligned with the side wall portion 0υ of the track 01, and the amount of rotation from this rotation position 1 lock is as follows:
Peripheral part (60C) and (60aX60b) between these
The amount of protrusion toward the side wall αη side is changed, and the width of the transfer path is similarly adjusted.
(41c) can be selected as appropriate depending on the size and shape of the part to be processed.
本発明の実施例は以上のように構成されるが、次にこの
作用について説明する。The embodiment of the present invention is constructed as described above, and its operation will be explained next.
長方形状のチップ抵抗ml:多量にボール(2)の中央
底部に投入し駆動部に電源を供給すればボール(2)は
ねじ9振動を行なって各部品mはトラックOQ上を上昇
して行く。Rectangular chip resistor ml: When a large amount of chip resistor ml is put into the center bottom of the ball (2) and power is supplied to the drive part, the ball (2) will vibrate by 9 screws and each part m will rise on the track OQ. .
本実施例に適用される部品はチップ抵抗でちゃ、長刀形
の板状であるが、トラックαQの最上段部では第3図及
び第11図に示すように長辺を床部T1に当接させ、表
面又は裏面を側壁部0υにもたれさせた姿勢が、他のチ
ップ抵抗mに巾方向に重なって表面又は裏面を1lll
壁部CIIJにもたれ避せた姿勢でトラック00の排出
端へと向う。従って、部品単層・単列排出装置(2)に
8ける部品移送路Sの高さa及び巾すは、第4図に示す
ようにチップ抵抗mの巾及び厚みよpはわづかに大きく
なるように調節される。すなわち本装置の使用開始に当
って、止めねじ(至)をゆるめて床面巾調整直重例の作
用ビン0りを第6図に8いて時計方向か反時計方向に回
動させる。作用ビン史を第6図において実線で示す位I
JIまで回動させると、床面形成部材α時は第8図に示
す実線の位OKまで摺動し、N6図において一点鎖線で
示す位mtで回動させると、床面形成部材01は第8図
に3いて一点鎖線で示す位tまで摺動する3部品移送路
Sの巾b1すなわち床面中すは作用ビン曽の上記両回動
位協間のある回動位置で得られる。この回動位置で止め
ねじt313)v締めつけ、床面中すを保持する。なお
、第6図及び第8図において、2点鎖線は中間位置を示
す。次いで高さ調節ねじ(28Iを第6図において時計
方向か反時計方向かにIfl!l動させることによって
高さiIA節ブロブロック)を上下動式せ部品移送路S
の高さaが調節される。調節位置ははね(2)によって
保持ちれる。The component applied to this embodiment is a chip resistor, which has a long sword-shaped plate shape, and at the top of the track αQ, the long side touches the floor T1 as shown in FIGS. 3 and 11. When the front or back surface is leaning against the side wall 0υ, the front or back surface overlaps the other chip resistor m in the width direction.
Head toward the discharge end of truck 00 while leaning against wall CIIJ. Therefore, the height a and width of the component transfer path S in the component single-layer/single-row discharge device (2) 8 are slightly larger than the width and thickness p of the chip resistor m, as shown in FIG. It is adjusted so that That is, when starting to use this device, loosen the setscrew (3) and rotate the working bin 0 of the vertical floor width adjustment example clockwise or counterclockwise as shown in FIG. 6. The working bin history is indicated by the solid line in Figure 6.
When the floor forming member 01 is rotated to JI, the floor forming member 01 slides to OK as indicated by the solid line in Fig. 8 when it is α, and when it is rotated at mt as indicated by the dashed line in Fig. N6, the floor forming member 01 is The width b1 of the three-component transfer path S, which slides up to the position t indicated by the dashed line in FIG. At this rotational position, tighten the setscrew t313) to hold the floor insert. In addition, in FIGS. 6 and 8, the two-dot chain line indicates the intermediate position. Next, move the height adjustment screw (28I clockwise or counterclockwise in FIG. 6 to adjust the height iIA block) to the vertically movable parts transfer path S.
The height a of is adjusted. The adjusted position is held by a spring (2).
他方、部品流量調整装置(2)のブロック(1[)は第
11図に示す回動位置にあるとする。すなわちチップ抵
抗mを最大流量で流す位置にある。なお、第11図及び
第12図ではこのときの流路中Cをチップ抵抗mの巾の
約2倍としているが、図示するように最大2個の重なシ
とは限らす同一の部品mであっても3個の重なシの通過
を許す場合がある。ブロック+41を第11図vcノい
て時計方向にある角度だけ回動δせると第15図に示す
回動位置をとり、静的に見れば第11図に示す回動位置
から第15図に示す回動位置までの回動位置では部品層
の流量は不変であるが、実際にはチップ抵抗mは微少で
はあるが跳躍運動をして表9、また前後のチップ抵抗m
からの作用力もあるので、ブロック(410回動により
てこの側方を通過する部品流量(個数/単位時間)を連
続的に変化させることができる。On the other hand, it is assumed that the block (1[) of the component flow rate adjustment device (2) is in the rotational position shown in FIG. 11. In other words, it is located at a position where the maximum flow rate is allowed to flow through the chip resistor m. In addition, in FIGS. 11 and 12, C in the flow path at this time is approximately twice the width of the chip resistor m, but as shown in the figure, the width of the same component m is limited to a maximum of two overlapping parts m. However, there are cases where three overlapping lines are allowed to pass. If the block +41 is rotated by a certain angle δ in the clockwise direction from VC in FIG. 11, it will take the rotational position shown in FIG. At the rotational position up to the rotational position, the flow rate of the component layer remains unchanged, but in reality, the chip resistance m undergoes a jumping movement, although it is very small.
Since there is also an acting force from the block (410), it is possible to continuously change the flow rate (number of parts/unit time) of parts passing through this side by rotating the block (410).
なお、図示の例ではC一部品mの巾×2としたが、勿論
q〉部品mの巾×2としてもよい。しかしながら、いづ
れにしてもブロック(4cJの回動によって第15図に
示すようにこのブロック(41の周面部(60a)が部
品mの流れを阻害する働らきをする。In the illustrated example, C is the width of the part m x 2, but it is of course possible to set q>the width of the part m x 2. However, in any case, due to the rotation of the block (4cJ), the peripheral surface (60a) of this block (41) acts to obstruct the flow of the parts m, as shown in FIG. 15.
この阻害の程度は第15図に示す回動位置ではゾ最大と
なる。The degree of this inhibition is maximum at the rotational position shown in FIG.
以上のようにして部品流量調節装置(6)による部品流
量調節に応じた流量のチップ抵抗mが部品単列・単層排
出装fjIta3に至るが、部品流量調節装置(6)の
通過後に再び重なったチップ抵抗m′、あるいは多量の
チップ抵抗mYボール(2)への投入時に部品流量調節
装置(2)の下流側に分散したチップ抵抗mで重なって
部品単列・単層排出装置(至)に至ったチップ抵抗m′
は第9図及び第10図に示すように高さ調節ブロック(
7)の傾斜面c!■のガイド作用を受けて滑らかにボー
ル(2)内部へと落下させられる。As described above, the chip resistance m of the flow rate corresponding to the component flow rate adjustment by the component flow rate adjustment device (6) reaches the component single-row/single-layer discharge device fjIta3, but after passing through the component flow rate adjustment device (6), the chip resistance m overlaps again. When a large number of chip resistors m' are loaded into the ball (2), the chip resistors m distributed on the downstream side of the component flow control device (2) are overlapped to form a component single-row/single-layer discharge device (toward). The chip resistance m′
is the height adjustment block (as shown in Figures 9 and 10).
7) Inclined surface c! The ball (2) falls smoothly into the interior of the ball (2) under the guiding action of (2).
重な!5’i’除去されたチップ抵抗mはそのま\前進
してこの移送路Sから順次−個宛、次工程に供給される
。重ならないで、すなわち単層状態で部品単列・単層排
出装置(2)に至ったチップ抵抗mは勿論、そのま\移
送路Sを進行し、1−次一個宛次工程に供給される3本
実施例によれば次工程はカウンターであって、これによ
シ順次排出されるチップ抵抗mがカウントされる。Heavy! The chip resistors m from which 5'i' have been removed continue to advance and are sequentially supplied to the next process from this transfer path S. The chip resistors m that have reached the component single-row/single-layer discharge device (2) without overlapping, that is, in a single layer state, of course proceed as they are through the transfer path S, and are supplied to the first-order one-by-one process. 3 According to this embodiment, the next step is a counter, which counts the chip resistors m that are sequentially discharged.
カウント速度音高めるためには部品単列・単層排出装置
(至)の部品排出速度を高めなければならないが、本実
施例によればこれを一段と向上させることができる。す
なわち、部品単列・単層排出装filiQ3への部品供
給速度が余9大き過ぎては相重なる部品m間の干渉、相
貫なる部品m間の干渉、あるいは部品mと部品単列・単
層排出装置(ハ)への入口での干渉などにより、かえっ
て該排出装置101からの部品排出速度は小さくなる。In order to increase the counting speed and noise, it is necessary to increase the component ejection speed of the component single-row/single-layer ejection device (to), but this embodiment can further improve this. In other words, if the component supply speed to the single-row/single-layer component discharging device filiQ3 is too high, interference between overlapping parts m, interference between consecutive parts m, or interference between part m and the single-row/single-layer component may occur. Due to interference at the entrance to the ejection device (c), the speed at which parts are ejected from the ejection device 101 is rather reduced.
勿論、該排出装置03への部品供給速度が小ざ過ぎても
部品排出速度は小きくなる。本発明によれば、これを部
品流量調整装*(2)の部品流量調整により最適化する
ことができる。すなわち、部品単列・単層排出装置(l
からの部品をカウントするカウンターのカウント速度が
最大になるように部品流量調整装置(6)でこの側方全
通過する部品の流量が調節される。Of course, even if the component supply speed to the ejection device 03 is too low, the component ejection speed will be reduced. According to the present invention, this can be optimized by adjusting the component flow rate using the component flow rate adjustment device*(2). In other words, a component single row/single layer ejection device (l
The flow rate of the parts that pass through this side is adjusted by the parts flow rate adjustment device (6) so that the counting speed of the counter that counts the parts from the side is maximized.
巾がより小さいチップ抵抗nが処理される場合には第1
3図に示すように部品流量調整装置1r(2)において
は傾斜面(41b)が勅用されることによシ、移送路中
が最大限dとなシこの場合の最大流量が規制される。や
はり、この場合もブロック(4(Iの回動によp最適化
が行われる。更に巾の小さいチップ抵抗0が処理される
場合には第14図に示すように部品流量調整装置(2)
においては傾斜面(410)が利用されることによシ、
この場合の最大流量が規制され、ブロック+4(lの回
動にニジ最適化が行われる。本実施例ではもっともq!
r種チップ抵抗m1n、oに対しいづれの傾斜面(41
aX41bX41りを利用して流量調整することも可能
であるが、第13図及び第14図に示すように対応する
傾斜面(41b)(41C)を利用する万がきめ細かく
流量調整することができる。また一定のチップ抵抗に対
して傾斜面(41a)(41b)(41りのいづれかを
トラック(II (71) 0111 u部Qvに第1
1図、第13図、第14図に示すように整列させて部品
流量を3段階で調整するようにしてもよい。If a chip resistor n with a smaller width is processed, the first
As shown in Fig. 3, the slope (41b) is used in the component flow rate regulating device 1r (2), so that the maximum flow rate in the transfer path is regulated. . Again, in this case, p optimization is performed by rotating the block (4 (I). If a chip resistance 0 with a smaller width is to be processed, the component flow rate adjustment device (2) as shown in FIG.
By using the inclined surface (410),
In this case, the maximum flow rate is regulated, and optimization is performed on the rotation of block +4 (l. In this example, the maximum flow rate is q!
Which inclined surface (41
Although it is possible to adjust the flow rate using the aX41bX41 ratio, it is also possible to finely adjust the flow rate by using the corresponding inclined surfaces (41b) (41C) as shown in FIGS. 13 and 14. In addition, for a constant chip resistance, one of the inclined surfaces (41a) (41b) (41) is placed on the track (II (71) 0111
The parts flow rate may be adjusted in three stages by arranging the parts as shown in FIG. 1, FIG. 13, and FIG. 14.
以上、本発明の実施例について説明したが勿論、本発明
はこれに限定されることなく本発明の技術的思想につい
て種々の変形が可能である。Although the embodiments of the present invention have been described above, it goes without saying that the present invention is not limited thereto, and various modifications can be made to the technical idea of the present invention.
例えば以上の実施例では本出願人が先に開発したボール
(2)に本発明が適用されたが、従来広く使用式れてい
るボールにも適用可能である。例えば、第16図は一定
のトラック巾(床中)を有するボール6Qの部分断面図
であるが、このようなトラックの側壁部6Dまたは床部
(521の巾を増減するように部品流量調整装置(2)
を設けてもよい。またこのボール601において部品−
′が床部りに横たわって移送される場合においても、同
一の部品Pが側壁部(511に寄シか−って移送される
場合においても部品単層・単列排出装置(Llを通過す
ることができる。すなわち第17図に示すように移送路
の巾及び高さが調節されていても、側壁部(511に寄
シか5つて該装置wL(至)に至った部品Pは高延調節
ブロックに)のテーバ(至)の作用によシ、その進行と
共に矢印で示すように横倒し、P′に示す姿勢となシ該
直重ω増から排出される。これによ多部品供給速度が向
上する。For example, in the above embodiments, the present invention was applied to the ball (2) developed by the present applicant, but it can also be applied to balls that have been widely used in the past. For example, FIG. 16 is a partial cross-sectional view of a ball 6Q having a constant track width (inside the floor). (2)
may be provided. Also, in this ball 601, the parts -
Even if the same part P is transferred lying on the floor, or if the same part P is transferred next to the side wall (511), the single-layer/single-row part discharging device (passing through Ll) In other words, even if the width and height of the transfer path are adjusted as shown in FIG. Due to the action of the taper (on the adjustment block), as it advances, it falls sideways as shown by the arrow, and is ejected from the vertical weight ω, taking the position shown as P'.This increases the multi-component supply speed. will improve.
また以上の実施例では部品流量調整装置@のブCffツ
クt41に3個の傾斜面(41a)(41b)(41り
を形成させたが、1個の傾斜面だけを′1次は4個以上
の傾斜面を形成するようにしてもよい。また以上の実施
例では傾斜面(41a)(41b)(41c)をトラッ
ク01の側壁部cIυと面一とするように整列可能とし
たが、面一でなく傾斜面(41aX41b)(41C)
のレベルがよシ高くなるようにしてもよい。In addition, in the above embodiment, three inclined surfaces (41a) (41b) (41) were formed on the block t41 of the component flow rate adjustment device @, but only one inclined surface was The above sloped surfaces may be formed.Also, in the above embodiment, the sloped surfaces (41a) (41b) (41c) can be aligned so as to be flush with the side wall cIυ of the track 01. Slanted surface instead of flush (41aX41b) (41C)
The level may be set to be much higher.
1だ以上の実施例ではチップ抵抗mの数をカウントする
のに本装置が使用されたが、部品の形状によっては部品
の整列供給に使用することも可能である。In the above embodiments, this device is used to count the number of chip resistors m, but depending on the shape of the components, it can also be used to align and supply components.
また以上の実施例では部品流量調整装置Ii(ロ)がボ
ール(2)の1個所に設けられたが、複数個所に設けて
、相互の流量調節によ多部品供給速度を最適、化するよ
うにしてもよい。In addition, in the above embodiment, the component flow rate adjusting device Ii (b) was provided at one location on the ball (2), but it is possible to install it at multiple locations to optimize the multi-component supply speed by mutually adjusting the flow rate. You can also do this.
以上述べたように本発明の振動部品供給装置によれば、
ボールが一定の振巾に対して部品を一個宛供給する速度
を従来よシー股と向上させることができ、しかも本装置
i″は各種の部品に対して適用可能である。As described above, according to the vibrating component supply device of the present invention,
The speed at which parts are fed one by one for a given swing width of the ball can be significantly improved compared to the conventional system, and the device i'' can be applied to various parts.
第1図は本発明の実施例によるパーツフィーダの部分破
断41X面図、第2図は同平面図、第3図は第1図のパ
ーツフィーダにおけるボールの部分拡大断面図で処理さ
れる部品と共に示す図、第4図は第1図のパーツフィー
ダに2ける部品単列・単層排出装置をボールの一部と共
に示す拡大側面図、第5図は同部品単列・単層排出装置
の分解斜視図、第6図は同平面図、第7図は第6図に8
ける■−■線方向断面図、第8図は第7図における■−
■線方向断面図、第9図は第1図に8ける部品単列・単
層わト出装置の拡大正面図、第10図は同装置の作用を
説明するために部品と共に示す部分破断拡大平面図、第
11図は第1図のパーツフィーダにおける部品流量調整
装置のボールの一部と共に示す拡大平面図、第12図は
第11図にjt!ける■−■線方向部分破断々面図、第
13図は第11図に8ける■−Xlll &1方向部分
破断断面図で部品流量調整装置の流量調整ブロックの一
傾斜面をボールのトラックの側壁部に整列きせてボール
の一部と共に示す図、第14図は第11図にχける豆−
■線方向部分破断々面図で部品流量調整装置の流量調整
ブロックの他領斜面をボールのトラックの側壁部に整列
させてボールの一部と共に示す図、第15図は第11図
における流:f1調整ブロックをある角度だけ回動させ
た拡大平面図、第16図は本実施例の変形例を示すボー
ルの一部の断面図、及び第17図は同変形例における部
品単列・単層排出装置の作用7a/説明するための部分
破断他側面図である。
なお図において、
(1)・・・・・・・・・・・・・・・・・・パーツフ
ィーダ(2)・・・・・・・・・・・・・・・・・・ボ
− ル00 ・・・・・・・・・・・・・・・・・・
ト ラ ッ りaη・・・・・・・
・・・・・・・・・・・側 壁 部T1・・・・・
・・・・・・・・・・・・・床 部04・・・・・
・・・・・・・・・・・・・部品流量調整装置(至)・
・・・・・・・・・・・・・・・・・部品単列・単層排
出装置α第・・・・・・・・・・・・・・・・・・取付
ブロック01・・・・・・・・・・・・・・・・・・床
面形成部材(イ)・・・・・・・・・・・・・・・・・
・移送路高さ調節ブロックCI!41・・・・・・・・
・・・・・・・・・・ば ね(至)・・・・・・・
・・・・・・・・・・・高さ調節ねじ(至)・・・・・
・・・・・・・・・・・・・床面中調節装置(3つ・・
・・・・・・・・・・・・・・・・作用ビン(至)・・
・・・・・・・・・・・・・・・・止 ね じ(31・
・・・・・・・・・・・・・・・・・ね じ(4(
lI・・・・・・・・・・・・・・・・・・流量調整ブ
ロック(41a)(41bバ41す・・・・・・・・・
傾 斜 面・
(60a)(60bX60c) −−・ 周 側
部aα・・・・・・・・・・・・・・・・・・側
面S・・・・・・・・・・・・・・・・・・ 移 送
路(23)
a・・・・・・・・・・・・・・・・・・移送路高ざb
・・・・・・・・・・・・・・・・・・床 面 巾代理
人
飯阪泰雄
(24)
区
ト番
線
0 −さ
ζ 塾
N
区
■
味FIG. 1 is a partially broken 41X side view of a parts feeder according to an embodiment of the present invention, FIG. 2 is a plan view of the same, and FIG. 3 is a partially enlarged sectional view of a ball in the parts feeder of FIG. 1 together with the parts to be processed. Figure 4 is an enlarged side view showing the parts single-row/single-layer ejection device in part feeder 2 in Fig. 1 along with a part of the balls, and Fig. 5 is an exploded view of the same parts single-row/single-layer ejection device. Perspective view, Figure 6 is the same plan view, Figure 7 is the same as Figure 6.
Figure 8 is a cross-sectional view along the ■-■ line in Figure 7.
■ Linear sectional view, Figure 9 is an enlarged front view of the component single-row/single-layer stripping device shown in Figure 1, and Figure 10 is a partially broken enlarged view shown with parts to explain the function of the device. A plan view, FIG. 11 is an enlarged plan view showing a part of the ball of the parts flow rate adjusting device in the parts feeder of FIG. 1, and FIG. Figure 13 is a partially cutaway cross-sectional view in the ■-■ line direction, and Fig. 13 is a partially cut-away cross-sectional view in the ■-Xll & 1 direction shown in Fig. 11. Fig. 14 is a diagram showing a part of the ball aligned in a row, and Fig. 14 shows the beans in Fig. 11.
■A partially cutaway sectional view in the linear direction showing the other surface of the flow rate adjustment block of the component flow rate adjustment device aligned with the side wall of the ball track, together with a part of the ball, Figure 15 shows the flow in Figure 11: FIG. 16 is an enlarged plan view of the f1 adjustment block rotated by a certain angle, FIG. 16 is a cross-sectional view of a part of the ball showing a modification of this embodiment, and FIG. 17 is a single-row/single-layer component of the modification. FIG. 7 is a partially cutaway side view for explaining the operation 7a of the ejecting device. In the figure, (1)・・・・・・・・・・・・・・・Parts feeder (2)・・・・・・・・・・・・・・・Bo- Le00 ・・・・・・・・・・・・・・・・・・
Truck aη・・・・・・
......Side wall part T1...
・・・・・・・・・・・・Floor part 04・・・・・・
・・・・・・・・・・・・Parts flow rate adjustment device (to)・
・・・・・・・・・・・・・・・・・・Parts single row/single layer discharge device α No. ・・・・・・・・・・・・・・・・・・Mounting block 01...・・・・・・・・・・・・・・・・Floor surface forming member (a)・・・・・・・・・・・・・・・・・・・
・Transfer path height adjustment block CI! 41・・・・・・・・・
・・・・・・・・・Spring (To)・・・・・・・・・
・・・・・・・・・Height adjustment screw (to)
・・・・・・・・・・・・Floor surface adjustment device (3...
・・・・・・・・・・・・・・・・Action bottle (to)・・・・
・・・・・・・・・・・・・・・ Set screw (31・
・・・・・・・・・・・・・・・・・・Screws (4 (
lI・・・・・・・・・・・・・・・Flow rate adjustment block (41a) (41b bar 41st)
Inclined surface・(60a)(60bX60c) --・Surrounding side
Part aα・・・・・・・・・・・・・・・・・・ Side
Surface S・・・・・・・・・・・・・・・Transfer path (23) a・・・・・・・・・・・・・・・Transfer path height b
・・・・・・・・・・・・・・・・・・ Floor Agent Yasuo Iisaka (24) Ward To Platform 0 -Saζ Cram School N Ward ■ Taste
Claims (2)
ラックの排出端またはこの排出端の近傍に、前記側壁部
と整列する側面を有する取付ブロックと;この取付ブロ
ックに対し前記床部の巾方向に摺動可能で、かつ該床部
と整列する床面を形成する床面形成部材と;前記取付ブ
ロックの前記側面に対し前記側壁部の巾方向に摺動可能
で前記床面からの高さを調節する移送路高さ調節部材と
;摺動位置保持手段とから成る部品単層、単列排出装置
を設け、前記部品移送用トラックからυF出される部品
の形状、姿勢に応じて前記床面形成部材と前記移送路高
き調節部材の各摺動位置を調節し、該調節摺動位置を前
記摺動位置保持手段により保持させ、よって部品を一個
宛供給するようにしたことを特徴とする振動部品供給装
置。(1) A mounting block having a side surface aligned with the side wall at or near the discharge end of the parts transfer truck formed by the side wall and the floor; a floor surface forming member that is slidable in the width direction of the side wall portion and forms a floor surface that is aligned with the floor portion; A component single-layer, single-row discharge device consisting of a transfer path height adjusting member for adjusting the height; and a sliding position holding means is provided, and the component discharge device is provided with a single-layer, single-row component discharging device that is configured to adjust the height of the component transfer path according to the shape and orientation of the component υF taken out from the component transfer truck. Each sliding position of the floor surface forming member and the transfer path height adjusting member is adjusted, and the adjusted sliding position is held by the sliding position holding means, so that the parts are fed one by one. Vibrating parts feeding device.
ラックの排出端またはこの排出鳩の近傍に、前記側壁部
と整列する側面を有する取付ブロックと;この取付ブロ
ックに対し前記床部の巾方向に摺動可能で、かつ該床部
と整列する床面を形成する床面形成部材と;前記取付ブ
ロックの前記側面に対し前記側壁部の巾方向に摺動可能
で前記床面からの高さを調節する移送路高さ調節部材と
;摺動位置保持手段とから成る部品単層・単列排出装置
を設け、かつ該部品単層・単列排出装置の上流側に前記
部品移送用トラックの前記側壁部または前記床部と整列
し得る整列面を部分的に備え、該整列面と前記側壁部ま
たは前記床部との相対的位置を調整可能とする調整ブロ
ックから成る部品流量調整手段を設け、前記部品移送用
トラックから排出される部品の形状、姿勢に応じて前記
床面形成部材と前記移送路高さ調節部材の各摺動位置を
調節し、該調節摺動位置を前記摺動位置保持手段によシ
保持させ、よって部品を一個宛供給するようにし、かつ
前記調整ブロックの調整によシ該調整ブロックの側方な
通過する部品の流量を前記部装置。(2) a mounting block having a side surface aligned with the side wall at the discharge end of the parts transfer truck formed by the side wall and the floor or near the discharge end; a floor surface forming member that is slidable in the width direction of the side wall portion and forms a floor surface that is aligned with the floor portion; A component single-layer/single-row discharging device consisting of a transfer path height adjustment member for adjusting the height; and a sliding position holding means is provided, and the component transfer device is provided on the upstream side of the component single-layer/single-row discharging device. Parts flow rate adjustment means comprising an adjustment block partially provided with an alignment surface that can be aligned with the side wall or the floor of the truck, and which allows adjustment of the relative position of the alignment surface and the side wall or the floor. and adjust the respective sliding positions of the floor surface forming member and the transfer path height adjusting member according to the shape and posture of the parts discharged from the parts transfer truck, and adjust the adjusting sliding positions to The parts are held by the moving position holding means so that the parts are fed one by one, and the flow rate of the parts passing to the side of the adjustment block is controlled by adjusting the adjustment block.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
JP20902082A JPS59102711A (en) | 1982-11-29 | 1982-11-29 | Vibrating part supply device |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
JP20902082A JPS59102711A (en) | 1982-11-29 | 1982-11-29 | Vibrating part supply device |
Publications (2)
Publication Number | Publication Date |
---|---|
JPS59102711A true JPS59102711A (en) | 1984-06-13 |
JPH0212843B2 JPH0212843B2 (en) | 1990-03-28 |
Family
ID=16565934
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
JP20902082A Granted JPS59102711A (en) | 1982-11-29 | 1982-11-29 | Vibrating part supply device |
Country Status (1)
Country | Link |
---|---|
JP (1) | JPS59102711A (en) |
Cited By (3)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPS6367533U (en) * | 1986-10-23 | 1988-05-07 | ||
JPS6377912U (en) * | 1986-11-10 | 1988-05-23 | ||
JPH01308312A (en) * | 1988-06-03 | 1989-12-13 | Shinko Electric Co Ltd | Part straightening feeder in vibration part supplier |
Citations (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPS54137461U (en) * | 1978-03-17 | 1979-09-22 | ||
JPS55135023A (en) * | 1979-03-31 | 1980-10-21 | Tokyo Juki Ind Co Ltd | Button feeder |
-
1982
- 1982-11-29 JP JP20902082A patent/JPS59102711A/en active Granted
Patent Citations (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPS54137461U (en) * | 1978-03-17 | 1979-09-22 | ||
JPS55135023A (en) * | 1979-03-31 | 1980-10-21 | Tokyo Juki Ind Co Ltd | Button feeder |
Cited By (4)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
JPS6367533U (en) * | 1986-10-23 | 1988-05-07 | ||
JPH0412013Y2 (en) * | 1986-10-23 | 1992-03-25 | ||
JPS6377912U (en) * | 1986-11-10 | 1988-05-23 | ||
JPH01308312A (en) * | 1988-06-03 | 1989-12-13 | Shinko Electric Co Ltd | Part straightening feeder in vibration part supplier |
Also Published As
Publication number | Publication date |
---|---|
JPH0212843B2 (en) | 1990-03-28 |
Similar Documents
Publication | Publication Date | Title |
---|---|---|
EP1852372A1 (en) | Vibrating bowl, vibrating bowl feeder, and vacuum deposition apparatus | |
KR19980033044A (en) | Chip Component Supply | |
JPS59102711A (en) | Vibrating part supply device | |
JP7436996B2 (en) | Disc delivery device | |
JPH10139135A (en) | Parts aligning and feeding device | |
JP5173360B2 (en) | Transport unit in parts inspection equipment | |
US9376301B1 (en) | Adjustable cap sorter | |
EP0885820B1 (en) | Apparatus and method for aligning parts | |
JPS6411528B2 (en) | ||
FI81070C (en) | Device for removing and feeding workpieces, one in roof t, from one pile | |
US4282965A (en) | Feeding and orienting device | |
JPH01308312A (en) | Part straightening feeder in vibration part supplier | |
JPH029596Y2 (en) | ||
US4602711A (en) | Apparatus for feeding cylindrical workpieces to a workplace | |
JP4513933B2 (en) | Powder compact supply device | |
JPS63218421A (en) | Aligning device for front and rear of part | |
CA2897393C (en) | Adjustable cap sorter | |
JPH01308313A (en) | Manufacture of vibration part feeder | |
JPH11292255A (en) | Elliptical vibration part feeder | |
JP2551112B2 (en) | Parts front and back feeding device in vibrating parts feeder | |
JPH04246016A (en) | Sorting conveyor for crops | |
US4347926A (en) | Screw orienter | |
KR20220155633A (en) | Apparatus for transferring components for components packing system | |
JP2003246438A (en) | Conveying apparatus for axial lead type electronic parts | |
JP2003034421A (en) | Vibration feeder with dichotomizing device |