JP3820745B2 - Combine - Google Patents

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JP3820745B2
JP3820745B2 JP10458998A JP10458998A JP3820745B2 JP 3820745 B2 JP3820745 B2 JP 3820745B2 JP 10458998 A JP10458998 A JP 10458998A JP 10458998 A JP10458998 A JP 10458998A JP 3820745 B2 JP3820745 B2 JP 3820745B2
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sensor
direction sensor
cutting
horizontal
steering
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JPH11289850A (en
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文夫 吉邨
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Iseki and Co Ltd
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Iseki and Co Ltd
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Description

【0001】
【発明の属する技術分野】
この発明は、コンバインに関するものである。
【0002】
【従来の技術】
コンバインにおける刈取作業時に、刈取装置の右端部の分草体を支持する分草杆に取り付けた、左方向へ適宜長さ突出させた検出杆を有する横刈用方向センサにより、植立穀稈領域の右端側縁に沿う端縁検出を行い、この検出値をコントローラ等に送ってその演算結果により機体を左右操向して直進制御させるものがある。
【発明が解決しようとする課題】
上述のように、コンバインにおける刈取作業時に、刈取装置の右端部の分草体を支持する分草杆に取り付けた、左方向へ適宜長さ突出させた検出杆を有する横刈用方向センサにより、植立穀稈領域の右端側縁に沿う端縁検出を行い、この検出値をコントローラ等に送ってその演算結果により機体を左右操向して直進制御させるものにおいて、従来では、穀稈の刈り残しを生じ易い状態となる難点があった。
【0003】
【0004】
【課題を解決するための手段】
この発明は、左右の操向クラッチ(22,22)と左右の操向ブレーキ(23,23)とを備える走行用のミッションケース(21)を車台(6)の前端部に備え、前記左右の操向クラッチ(22,22)の入り切りと左右の操向ブレーキ(23,23)の制動とを行わせて機体(1)を左右操向させる手動操作レバー(46)を設け、刈取装置(3)の右端部の分草体(12)を支持する分草杆(14)にアナログ式の横刈用方向センサ(2)を取り付けるにあたり、該横刈用方向センサ(2)の検出杆(2a)を該横刈用方向センサ(2)から左方向へ一定の後退角をもたせて突出させて該検出杆(2a)の前後回動角度をポテンショメータによって検出するように構成し、前記刈取装置(3)の左端部に位置する左右一対の引起部(13,13)の間の分草杆(4)にアナログ式の条刈用方向センサ(47)を取り付けるにあたり、該条刈用方向センサ(47)の左方向センサ(47a)及び該左方向センサ(47a)の検出杆(48a)と右方向センサ(47b)及び該右方向センサ(47b)の検出杆(48b)とを前後に並べて取り付けて、コントローラ(50)の入力側に、自動方向制御を入り切りする方向制御スイッチ(44)と前記横刈用方向センサ(2)と条刈用方向センサ(47)の左方向センサ(47a)及び右方向センサ(47b)と手動切替スイッチ(51)と前記横刈用方向センサ(2)及び条刈用方向センサ(47)を故障チェック状態に切り替えるセンサチェックスイッチ(52)とを接続する一方、該コントローラ(50)の出力側に、前記左右の操向クラッチ(22,22)の入り切りと左右の操向ブレーキ(23,23)の制動とを行わせる左右のクラッチソレノイド(45,45)と前記横刈用方向センサ(2)及び条刈用方向センサ(47)の故障チェックの結果に異常がない場合に出力するブザー(53)とを接続して、前記方向制御スイッチ(44)をONして横刈用方向センサ(2)又は条刈用方向センサ(47)の検出結果に応じて機体(1)を左右操向させて自動方向制御を行わせるにあたり、手動切替スイッチ(51)をON操作した場合には自動方向制御を中断して手動操作レバー(46)の操作による左右操向を優先すると共に、この中断した自動方向制御を自動的に入り状態に復帰させるまでに要する設定時間を、横刈り又は条刈りにおける自動方向制御時においては長く、横刈りか条刈りかを自動判定する条横判定制御時には短く設定し、前記横刈用方向センサ(2)の故障チェックを行うにあたっては、前記センサチェックスイッチ(52)をONし、横刈用方向センサ(2)の検出杆(2a)を回動させた場合に、該横刈用方向センサ(2)の検出値が横刈用方向センサ(2)の検出杆(2a)の回動領域を等分割して設定した値を通過した場合に前記ブザー(53)を一定時間出力させるように連繋したこと特徴とするコンバインの構成とする。
【0005】
【0006】
【発明の効果】
この発明によると、穀稈の刈り残し等を生じるという不具合もなく、信頼性の高い方向制御を可能にすることができる。
また、手動操作から自動制御への復帰直後に制御出力(特に反対方向への出力)が行われて機体1が振られてオペレータに不快感を与えることや、条横判定中において判定の終了が遅れて自動制御の制御出力に支障をきたすこと等を防止することができる。
また、横刈用方向センサ2をチェックする場合では、センサチェックスイッチ52をONし該横刈用方向センサ2の検出杆2aを回動させ、該横刈用方向センサ2の検出値がこの検出杆2aの回動領域を等分割して設定した値を通過したときに一定時間ブザー53の警報出力を行うことにより、該横刈用方向センサ2の故障を容易に検出することができる。
【0007】
【発明の実施の形態】
以下に、この発明の実施例を図面に基づいて説明する。
図14はコンバインの全体構成を示すもので、車台6の下部側に土壌面を走行する左右一対の走行クロ−ラ7を有する走行装置8を配設すると共に、該車台6上にフィ−ドチェン9に挟持搬送して供給される穀稈を脱穀し、この脱穀された穀粒を選別回収して一時貯留するグレンタンク10と、この貯留した穀粒を機外へ排出する排穀オーガ10aとを備えた脱穀装置11を載置構成している。
【0008】
該脱穀装置11の前方に、その前端側から植立穀稈を分草する分草体12と、分草した穀稈を引き起こす引起部13と、引き起こした穀稈を刈り取る刈刃部14と、この刈り取った穀稈を後方側へ搬送しながら横倒れ姿勢に変更して該フィ−ドチェン9へ受渡しする穀稈搬送部15等を有する刈取装置3を、該車台6の前端側から油圧駆動による刈取シリンダ16によって、土壌面に対し昇降自在に作用するよう配置構成している。
【0009】
該刈取装置3の一側にコンバインの操作制御を行う操作装置17と操作のための操作席18とを設け、この操作席18の下方側にはエンジン19を搭載し、後方側には前記グレンタンク10を配置すると共に、操作装置17と操作席18とを覆うキャビン20を設け、これらの走行装置8,脱穀装置11,刈取装置3,操作装置17,エンジン19,キャビン20等によってコンバインの機体1を構成している。
【0010】
前記車台6の前端部に走行用のミッションケース21を装架し、図5に示す如く、このミッションケース21に内装したギヤ伝動経路に、油圧作動により爪22aを噛合接続して伝動させる左右の操向クラッチ22と、この操向クラッチ22の切り状態から更に制動を行う左右の操向ブレーキ23とを配設し、その伝動経路終段の駆動輪24によって前記左右の走行クロ−ラ7へ動力を伝達させると共に、この伝動経路の適宜位置に車速を検出する車速センサ25を配設して構成させる。
【0011】
該刈取装置3は、図3,図4に示す如く、ミッションケ−ス21の上端部に固定した刈取架台26に上下回動可能に刈取入力ケース27を支承し、この刈取入力ケース27から下方側に向け延長したパイプ状の入力縦ケ−ス28を、刈取装置3の下方部にその全幅に亘り設けた下部横伝動ケ−ス29の中央近傍位置に接合し、この下部横伝動ケ−ス29の左端部近傍から前方斜上方へ向け中間縦ケ−ス30を接合延長すると共に、該刈取入力ケース27に軸承した刈取入力軸31から各ケース28,29,30を経由して動力を伝達させる構成とする。
【0012】
該中間縦ケ−ス30を、刈取装置3の上部にその全幅に亘り設けた上部横伝動ケ−ス32に接合し、この上部横伝動ケ−ス32から適宜間隔で下方へ向けて突設した複数本のラグ駆動ケ−ス33を経由して、穀稈の株元部を集送する各株元集送部34と、穂先側を集送する上下2段の各穂先集送部35とに各々動力を伝達させる。前記刈刃部14を左右に分割し刈取装置3の全幅に亘って配設し、この左右の刈刃部14を、前記下部横伝動ケース29の両端部へ各々軸承した左右のクランク機構36によって左右往復駆動可能に構成させる。
該刈取装置3の前端部に複数条の植立穀稈を分草する複数の分草体12を配置し、この各分草体12を支持する複数の分草杆4を、該刈刃部14を取り付ける下部横フレーム37に接合し、この下部横フレーム37を前記下部横伝動ケース29に固定すると共に、各分草体12の後部から、後方斜め上部に複数の引起部13を配置して植立穀稈を一度に複数条の引き起しを可能とし、この各引起部13の引起ケース38に引起ラグ39を内装して構成させる。
【0013】
該刈取装置3から集送穀稈を脱穀装置11へ供給するときの供給深さを調節するため、穂先側と株元側の上下二段に設けた穂先側供給用の供給ラグ40と株元側供給用の供給チェン41とによって前記穀稈搬送部15を構成させる。
図1に示す如く、該刈取装置3の右端部に位置する分草体12を支持する分草杆4の前側部に、アナログ方式の横刈用方向センサ2を取り付け、該方向センサ2から左方向へ検出杆2aを検出可能な長さで一定の後退角をもたせて突出させ前後回動可能に支承すると共に、検出杆2aの回動角度をポテンショメータ等による電圧の高低によって検出可能に構成させる。
【0014】
なお、該方向センサ2はアナログ方式に限定する必要がなく、その配置や検出杆2aの形状等については、この実施例の要旨を逸脱しない限り如何なる形態であっても差し支えない。
図2に示す如く、CPUを主体的に配して自動回路の演算制御を行うと共に、左右操向制御のパルス出力を設定する出力配分手段5を内蔵するコントローラ43を配設し、このコントローラ43の入力側へ、入力インタフェース43aを介して方向制御を入・切する方向制御スイッチ44と横刈用方向センサ2及び前記車速センサ25とを各々接続すると共に、出力側へ、出力インタフェース43bを介して左右の操向クラッチ22の入・切と操向ブレーキ23を制動する左右のクラッチソレノイド45を各々接続して構成させる。
【0015】
走行装置8により機体1を前進させ、刈取装置3によって植立穀稈の刈り取りを行うとき、分草体12によって分草された穀稈を各引起部13によって引き起し作用を行うと同時に、各株元集送部34によって株元部を掻き込み、この掻き込まれた株元部を刈刃部14によって刈り取り、この刈り取られた株元部を各株元集送部34から引継集送部を経由して、株元部を穀稈搬送部15の供給チェン41へ受け渡しすると共に、穂先部を供給ラグ40へ受け渡しする。
【0016】
このような刈取作業時に方向制御スイッチ44をONし、植立穀稈領域Aの右端側縁aの未刈穀稈株を、刈取装置3の分草杆4に取り付けた横刈用方向センサ2から左側に突出させた一定の後退角をもつ検出杆2aの接当回動により検出を行うまで、図6に示す如く、出力配分手段5による左方向への8パルス出力により前記左クラッチソレノイド45を作用させて、左の操向クラッチ22の切りと操向ブレーキ23の制動を行った後に一定距離の出力を休止させる、例えば30センチメートル毎の出力制御サイクルを繰り返し実行する。
【0017】
該方向センサ2の検出杆2aによる右端側縁aの未刈穀稈株を検出後は、出力配分手段5による右方向への連続したパルス出力により該右クラッチソレノイド45を作用させて、方向センサ2が中立位置を検出するまで右の操向クラッチ22の切りと操向ブレーキ23の制動を行い、中立位置を検出後は再び左方向へのパルス出力を行わせる。
【0018】
これらの操向制御により、左方向へは、一定距離の出力を休止させる緩やかな進入角度で未刈穀稈株を検出することができるから、大きな進入角度で進入するときのように穀稈株へ突っ込む恐れがなく、又、右方向へは、操向ブレーキ23の制動力が弱いとき等において機体1の移動量が小さくなり、次の左方向への操向制御時に穀稈の刈り残しを生じる等の不具合もなく、極めて円滑で追従性が良く且つ信頼性の高い横刈方向制御を行わせることができる。
また、前記図2に示す如き自動回路により更にファジィ演算処理を行わせるものにおいて、刈取作業時に前記方向制御スイッチ44をONし、植立穀稈領域Aの右端側縁aの未刈穀稈株に、刈取装置3の右端部の分草杆4に取り付けた前記アナログ方式の横刈用方向センサ2から左側に突出させた検出杆2aが接当回動してピーク値を検出したときは、図7に示す如く、このピーク値を前記コントローラ43に送信してファジィ演算処理を行い右方向へ制御出力させる。
【0019】
このファジィ演算処理による制御出力は、図8に示す如きメンバシップ関数によって分草杆4から未刈穀稈株までの距離Bの検出値によるグレードの設定と、未刈穀稈株への接近速度の検出値によるグレードの設定により、図9に示す如きファジィ制御ルールのマップに当て嵌め制御ルールの適合度となるグレードを選択して演算処理を行い、前記右のクラッチソレノイド45の制御出力パルスのオンタイムを算出して、右の操向クラッチ22の切りと操向ブレーキ23の制動により、従来、該方向センサ2の検出に伴い、例えば30センチメートル毎に出力していたものを、該方向センサ2にアナログ方式を用いることによって、未刈穀稈株に接当する毎に出力を行うことができるため、精度の良い方向制御を行うことができる。
【0020】
なお、上記の如く、アナログ方式の横刈用方向センサ2によるピーク値の検出によって、このピーク値をコントローラ43によりファジィ演算処理を行い右方向への出力パルスのオンタイムを算出するものにおいて、この出力時間が一定値以上のときは、図10に示す如き一定値のパルスに分割して出力させるよう構成することによって、従来の如く、一度に長いパルス出力を行うことにより穀稈を押し倒したり、刈り跡が不揃いになる等の不具合を防止することができる。
【0021】
また、前記操作装置17の一側に、手動操作による左右のクラッチソレノイド45の作用により、左右の操向クラッチ22の切りと操向ブレーキ23を制動して機体1の左右操向を行うパワステレバー46を配設し、前記刈取装置3の右端部の分草体12を支持する分草杆4にアナログ方式の横刈用方向センサ2を取り付けると共に、左端部に位置する左右一対の引起部13中間の分草体12を支持する分草杆4に、アナログ方式の条刈用方向センサ47の左方向センサ47aとその検出杆48a及び右方向センサ47bとその検出杆48bを前後位置に縦並びに取り付けて構成させる。(図4参照)
図11に示す如く、CPUを主体的に配して自動回路の演算制御を行うと共に、手動操作から自動制御への復帰時間を調節する復帰時間調節手段49を内蔵するコントローラ50を配設し、このコントローラ50の入力側へ、入力インタフェース50aを介して前記方向制御を入・切する方向制御スイッチ44,横刈用方向センサ2,手動切替スイッチ51,条刈用方向センサ47の左方向センサ47a及び右方向センサ47bとを各々接続すると共に、出力側へ、出力インタフェース50bを介して前記左右の操向クラッチ22の入・切と操向ブレーキ23を制動する左右のクラッチソレノイド45を各々接続して構成させる。
【0022】
刈取作業において該方向制御スイッチ44をONし、横刈用方向センサ2又は条刈用方向センサ47の検出により機体1を左右操向させて直進制御を行うときに、何等かの事由により手動切替スイッチ51をONさせて、自動制御を中断しパワステレバー46の操作による左右操向を優先させ、この手動操作のOFFにより中断した自動制御を復帰させる復帰タイミングを、図12に示す如く、復帰時間調節手段49により横刈り又は条刈りの自動制御時は長く、横刈りか条刈りかを判定する条横判定制御時は短く設定することにより、手動操作から自動制御への復帰直後に制御出力(特に反対方向への出力)が行われ、このため機体1が振られてオペレータに不快感を与えることや、条横判定中において判定の終了が遅れ自動制御の制御出力に支障をきたすこと等を防止することができる。
【0023】
また、前記アナログ方式の横刈用方向センサ2及び条刈用方向センサ47の故障のチェックを行うときは、前記図11に示す如き自動回路に、更に該両方向センサ2,47をチェック状態とするセンサチェックスイッチ52と、このスイッチ52のONによりチェック結果に異常がないときは警報出力するブザー53を接続して構成させるものにおいて、例えば、図13に示す如く、横刈用方向センサ2をチェックする場合では、該スイッチ52をONし該方向センサ2の検出杆2aを回動させることにより、この回動領域を等分割bとして設定したアナログ値を通過したときは一定時間ブザー53の警報出力を行うことにより、該両方向センサ2,47の故障を容易に検出することができる。
【図面の簡単な説明】
【図1】 (a)横刈用方向センサの検出杆の配置状態と植立穀稈領域を示す平面図。
(b)刈取装置の分草杆に横刈用方向センサを取り付けた状態を示す側面図。
【図2】 横刈方向制御を実行する制御回路を示すブロック図。
【図3】 刈取装置の全体構成を示す側面図。
【図4】 刈取装置の全体構成を示す平面図。
【図5】 ミッションケース内の操向クラッチと操向ブレーキの状態を示す概略正面図。
【図6】 左右の操向ブレーキを制動するクラッチソレノイドのパルス出力を示す線図。
【図7】 横刈用方向センサのピーク値の検出による右方向へのパルス出力を示す線図。
【図8】 ファジィ演算処理におけるメンバシップ関数を示す線図。
【図9】 ファジィ演算処理における制御ルールを示す図表。
【図10】 横刈用方向センサのピーク値の検出による右方向へのパルス出力を示す線図。
【図11】 横刈及び条刈方向制御を実行する制御回路を示すブロック図。
【図12】 手動操作の割り込みから自動制御への復帰タイミングを示す線図。
【図13】 横刈用方向センサの検出杆の回動による故障のチェック状態を示す作用図。
【図14】 コンバインの全体構成を示す側面図。
【符号の説明】
1 機体
2 横刈用方向センサ
2a 検出杆
3 刈取装置
4 分草杆
6 車台
12 分草体
13 引起部
14 分草杆
21 ミッションケース
22 操向クラッチ
23 操向ブレーキ
44 方向制御スイッチ
45 クラッチソレノイド
46 手動操作レバー
47 条刈用方向センサ
47a 左方向センサ
47b 右方向センサ
48a 検出杆
48b 検出杆
50 コントローラ
51 手動切替スイッチ
52 センサチェックスイッチ
53 ブザー
[0001]
BACKGROUND OF THE INVENTION
The present invention relates to a combine.
[0002]
[Prior art]
At the time of harvesting in the combine, by means of a horizontal mowing direction sensor that has a detection rod that protrudes to the left as appropriate, attached to the weed bush that supports the weed body at the right end of the harvesting device, There is an apparatus that detects an edge along the right edge, sends the detected value to a controller or the like, and steers the machine from side to side according to the calculation result to perform straight-ahead control.
[Problems to be solved by the invention]
As described above, during the harvesting operation in the combine, the horizontal cutting direction sensor having the detection rod that is appropriately projected in the left direction and attached to the weeding rod that supports the weeding body at the right end of the harvesting device is used for planting. The edge detection is performed along the right edge of the vertical grain culm area, and the detected value is sent to a controller, etc. There was a difficulty in becoming a state where it is easy to produce.
[0003]
[0004]
[Means for Solving the Problems]
The present invention includes a traveling mission case (21) including left and right steering clutches (22, 22) and left and right steering brakes (23, 23) at a front end portion of a chassis (6), A manual operation lever (46) for steering the airframe (1) left and right by performing turning on and off of the steering clutch (22, 22) and braking of the left and right steering brakes (23, 23) is provided. When the analog weed cutting direction sensor (2) is attached to the weed pod (14) that supports the weed body (12) at the right end of), the detection rod (2a) of the weeding direction sensor (2) Projecting from the transverse mowing direction sensor (2) with a fixed receding angle to the left, and detecting the forward / backward rotation angle of the detection rod (2a) with a potentiometer, the mowing device (3 ) A pair of left and right pull-up portions (1 , 13) to attach the analog row cutting direction sensor (47), the left direction sensor (47a) and the left direction sensor (47) of the row cutting direction sensor (47) 47a), the detection sensor (48a), the right sensor (47b) and the detection sensor (48b) of the right sensor (47b) are mounted side by side, and automatic direction control is performed on the input side of the controller (50). wherein the direction control switch (44) and the transverse cutting directional sensor (2) and the left sensor strip cutting directional sensor (47) (47a) and the right sensor (47b) manually and change-over switch (51) that turns on and off while connecting the sensor check switch (52) for switching the lateral mowing directional sensor (2) and Article mowing directional sensor (47) in the abnormality check state, the output side of the controller (50), wherein Right steering clutch (22, 22) of turning on and off the left and right steering brake the left and right clutch solenoid to perform the braking (23, 23) (45, 45) transverse cutting directional sensor (2) and Article A buzzer (53) that outputs when there is no abnormality in the result of the failure check of the cutting direction sensor (47) is connected, the direction control switch (44) is turned on, and the horizontal cutting direction sensor (2) or The automatic direction control is interrupted when the manual changeover switch (51) is turned on in order to perform automatic direction control by steering the airframe (1) left and right according to the detection result of the direction sensor (47) for cutting. In addition, priority is given to the left / right steering by the operation of the manual operation lever (46), and the set time required to automatically enter the interrupted automatic direction control and return to the state is determined by the automatic direction control in horizontal cutting or row cutting. It is set to a long time, and is set to a short time for the horizontal / horizontal determination control for automatically determining whether the horizontal or vertical cutting is performed, and the sensor check switch (52) is turned on to check the failure of the horizontal cutting direction sensor (2). When the detection rod (2a) of the horizontal cutting direction sensor (2) is rotated, the detection value of the horizontal cutting direction sensor (2) is the detection rod (2a) of the horizontal cutting direction sensor (2). ) In which the buzzer (53) is connected so that the buzzer (53) is output for a certain period of time when it passes through a value set by equally dividing the rotation region.
[0005]
[0006]
【The invention's effect】
According to the present invention, it is possible to perform highly reliable directional control without causing trouble such as unreasonable cutting of cereals.
In addition, immediately after the return from manual operation to automatic control, control output (particularly output in the opposite direction) is performed and the body 1 is shaken to give the operator an unpleasant feeling. It is possible to prevent the control output of automatic control from being delayed and the like.
Further, when checking the direction sensor 2 for cutting, the sensor check switch 52 is turned on to rotate the detection rod 2a of the direction sensor 2 for cutting and the detected value of the direction sensor 2 for cutting is detected. By outputting a warning for the buzzer 53 for a certain period of time when a value set by equally dividing the rotation region of the heel 2a is passed, it is possible to easily detect a failure of the horizontal cutting direction sensor 2.
[0007]
DETAILED DESCRIPTION OF THE INVENTION
Embodiments of the present invention will be described below with reference to the drawings.
FIG. 14 shows the overall structure of the combine. A traveling device 8 having a pair of left and right traveling crawlers 7 traveling on the soil surface is disposed on the lower side of the chassis 6, and a feed chain is provided on the chassis 6. A grain tank 10 for threshing and supplying the culm that is fed while being held between 9 and the cereal, and collecting and temporarily storing the threshed grain; and a grain auger 10a for discharging the stored grain to the outside of the machine The threshing apparatus 11 provided with is mounted and configured.
[0008]
In front of the threshing device 11, a weeding body 12 that weeds the planted culm from its front end side, a pulling part 13 that causes the cereal that has been weeded, a cutting blade part 14 that cuts off the induced culm, and this The reaping device 3 having the cereal conveyance unit 15 or the like that changes the posture to the side of the feed chain 9 while conveying the harvested cereal to the rear side is hydraulically driven from the front end side of the chassis 6. The cylinder 16 is arranged and configured to act up and down freely with respect to the soil surface.
[0009]
An operation device 17 for controlling the operation of the combine and an operation seat 18 for operation are provided on one side of the harvesting device 3, and an engine 19 is mounted on the lower side of the operation seat 18, and the Glen is provided on the rear side. A cabin 20 that covers the operation device 17 and the operation seat 18 is provided as well as the tank 10, and is combined with the traveling device 8, the threshing device 11, the mowing device 3, the operation device 17, the engine 19, the cabin 20, and the like. 1 is configured.
[0010]
A traveling mission case 21 is mounted on the front end of the chassis 6 and, as shown in FIG. 5, the claw 22a is meshed and connected to the gear transmission path built in the mission case 21 to transmit the left and right gears. A steering clutch 22 and left and right steering brakes 23 for further braking from the disengaged state of the steering clutch 22 are provided, and the left and right traveling crawlers 7 are driven by drive wheels 24 at the final stage of the transmission path. A vehicle speed sensor 25 for detecting the vehicle speed is disposed at an appropriate position on the transmission path while transmitting power.
[0011]
As shown in FIGS. 3 and 4, the reaping device 3 supports a reaping input case 27 that is pivotable up and down on a pedestal 26 fixed to the upper end of the mission case 21, and extends downward from the reaping input case 27. A pipe-like input vertical case 28 extending toward the side is joined to a position in the vicinity of the center of a lower lateral transmission case 29 provided over the entire width of the lower portion of the reaping device 3, and this lower lateral transmission case. The intermediate vertical case 30 is joined and extended from the vicinity of the left end of the cutter 29 toward the upper front oblique direction, and power is transmitted from the cutting input shaft 31 supported by the cutting input case 27 via the cases 28, 29, and 30. It is set as the structure to transmit.
[0012]
The intermediate longitudinal case 30 is joined to an upper lateral transmission case 32 provided over the entire width of the cutting device 3 and protrudes downward from the upper lateral transmission case 32 at an appropriate interval. Through the plurality of lug drive cases 33, each stock collection section 34 that collects the stock section of the cereal, and each top collection section 35 in the upper and lower stages that collects the head side. Power to each. The cutting blade portion 14 is divided into left and right portions and arranged over the entire width of the cutting device 3, and the left and right cutting blade portions 14 are respectively supported by left and right crank mechanisms 36 that are respectively supported by both end portions of the lower lateral transmission case 29. It is configured to be capable of reciprocating left and right.
A plurality of weeding bodies 12 for weeding a plurality of planted cereal grains are arranged at the front end of the cutting device 3, and a plurality of weeding straws 4 supporting each weed body 12 are arranged with the cutting blade part 14. It is joined to the lower horizontal frame 37 to be attached, and the lower horizontal frame 37 is fixed to the lower horizontal transmission case 29, and a plurality of raised portions 13 are arranged obliquely upward from the rear of each weed body 12 and planted grains. A plurality of ridges can be raised at a time, and a pulling lug 39 is provided in the pulling case 38 of each pulling portion 13.
[0013]
In order to adjust the supply depth when the harvested cereal from the reaping device 3 is supplied to the threshing device 11, the supply lug 40 for supplying the tip side and the stock source provided in the upper and lower stages of the tip side and the stock side The cereal conveyance part 15 is comprised with the supply chain 41 for side supply.
As shown in FIG. 1, an analog type cross-cutting direction sensor 2 is attached to the front side portion of the weed pod 4 that supports the weeding body 12 located at the right end of the cutting device 3, and the left direction from the direction sensor 2 The detection rod 2a has a detectable length and protrudes with a certain receding angle so that it can be pivoted back and forth, and the rotation angle of the detection rod 2a can be detected by the voltage level of a potentiometer or the like.
[0014]
The direction sensor 2 does not need to be limited to an analog type, and the arrangement, the shape of the detection rod 2a, and the like may be in any form as long as they do not depart from the gist of this embodiment.
As shown in FIG. 2, a CPU 43 is mainly arranged to perform arithmetic control of an automatic circuit, and a controller 43 including an output distribution means 5 for setting a pulse output for left / right steering control is provided. The direction control switch 44 for turning on / off the direction control via the input interface 43a is connected to the input side of the vehicle, the direction sensor 2 for horizontal cutting, and the vehicle speed sensor 25, respectively, and the output side via the output interface 43b. The left and right steering clutches 22 are turned on and off and the left and right clutch solenoids 45 for braking the steering brake 23 are connected to each other.
[0015]
When the machine 1 is moved forward by the traveling device 8 and the planted cereal is harvested by the reaping device 3, the cereals that have been weeded by the weeding body 12 are caused to act by the pulling portions 13, and at the same time, The stock base part is scraped by the stock source collection part 34, the stock part that has been scraped is cut by the cutting blade part 14, and the cut stock part is taken over from each stock source collection part 34. , The stock part is transferred to the supply chain 41 of the grain haul transport unit 15, and the tip part is transferred to the supply lug 40.
[0016]
During such cutting operation, the direction control switch 44 is turned on, and the direction sensor 2 for horizontal cutting in which the uncut grain culm of the right end side a of the planted culm region A is attached to the weed culm 4 of the reaping device 3. Until the detection is performed by the contact rotation of the detection rod 2a having a fixed receding angle projected from the left side to the left side, the left clutch solenoid 45 is output by eight pulses in the left direction by the output distribution means 5, as shown in FIG. By operating the left steering clutch 22 and the steering brake 23, the output control cycle is repeated for every 30 centimeters, for example.
[0017]
After detecting the uncut grain culm on the right edge side a by the detection rod 2a of the direction sensor 2, the right clutch solenoid 45 is operated by the continuous pulse output in the right direction by the output distribution means 5, and the direction sensor The right steering clutch 22 is disengaged and the steering brake 23 is braked until 2 detects the neutral position, and after the neutral position is detected, the pulse is output in the left direction again.
[0018]
With these steering controls, it is possible to detect uncut cereal stalks with a gentle approach angle that stops the output of a certain distance in the left direction, so that the cereal stakes as when entering with a large approach angle In the right direction, when the braking force of the steering brake 23 is weak, the amount of movement of the fuselage 1 is small, and the leftover of the cereals is left during the next leftward steering control. There is no inconvenience such as occurrence, and it is possible to perform the horizontal cutting direction control that is extremely smooth, has good followability, and is highly reliable.
In addition, in the automatic circuit as shown in FIG. 2, the directional control switch 44 is turned on at the time of harvesting, and the uncut grain culm of the right edge a of the planted culm area A is turned on. When the detection rod 2a that protrudes to the left side from the analog-type horizontal mowing direction sensor 2 attached to the weed rod 4 at the right end of the cutting device 3 detects the peak value by contact rotation, As shown in FIG. 7, this peak value is transmitted to the controller 43 to perform fuzzy calculation processing and control output in the right direction.
[0019]
The control output by this fuzzy arithmetic processing is set by the membership function as shown in FIG. 8 to set the grade based on the detected value of the distance B from the weed cocoon 4 to the uncut grain culm, and the approach speed to the uncut grain culm By setting the grade based on the detected value, a grade that fits the control rule is selected in the map of the fuzzy control rule as shown in FIG. 9 and calculation processing is performed, and the control output pulse of the right clutch solenoid 45 is calculated. By calculating the on-time, the output of every 30 centimeters in accordance with the detection of the direction sensor 2 by the disconnection of the right steering clutch 22 and the braking of the steering brake 23, for example, By using an analog method for the sensor 2, output can be performed every time the sensor 2 touches an uncut grain culm, so accurate direction control can be performed.
[0020]
As described above, when the peak value is detected by the analog-type horizontal cutting direction sensor 2, the peak value is subjected to fuzzy calculation processing by the controller 43 to calculate the on-time of the output pulse in the right direction. When the output time is equal to or greater than a certain value, it is configured to output by dividing into pulses having a certain value as shown in FIG. It is possible to prevent problems such as uneven cuttings.
[0021]
Further, a power steering lever that performs left-right steering of the vehicle body 1 by braking the steering clutch 22 and the steering brake 23 by the action of the left and right clutch solenoids 45 by manual operation on one side of the operating device 17. 46, and the analog type weeding direction sensor 2 is attached to the weed ridge 4 that supports the weeding body 12 at the right end of the cutting device 3, and the middle of the pair of left and right raising parts 13 located at the left end The left sensor 47a and its detection rod 48a, the right sensor 47b and its detection rod 48b of the analog type stalk direction sensor 47 are vertically and vertically attached to the weed rod 4 supporting the herb body 12 Make up. (See Figure 4)
As shown in FIG. 11, the CPU is mainly arranged to control the calculation of the automatic circuit, and the controller 50 including the return time adjusting means 49 for adjusting the return time from the manual operation to the automatic control is provided. The direction control switch 44 for turning on / off the direction control via the input interface 50 a to the input side of the controller 50, the direction sensor for horizontal cutting 2, the manual changeover switch 51, and the left direction sensor 47 a of the direction sensor 47 for cutting And right and left direction sensors 47b are connected to each other, and the left and right clutch solenoids 45 for braking the steering brake 23 and the left and right steering clutches 22 are connected to the output side via the output interface 50b. To configure.
[0022]
In the cutting operation, the direction control switch 44 is turned on, and the body 1 is steered left and right by the detection of the direction sensor 2 for horizontal cutting or the direction sensor 47 for row cutting, so that manual switching is performed for some reason. The switch 51 is turned on, the automatic control is interrupted, the left / right steering by the operation of the power steering lever 46 is prioritized, and the return timing for returning the automatic control interrupted by the manual operation OFF is shown in FIG. By adjusting the adjustment means 49, the control output is set immediately after returning from manual operation to automatic control. (In particular, output in the opposite direction) is performed, so that the airframe 1 is shaken to give the operator an unpleasant feeling, and the end of the determination is delayed during the horizontal determination, and automatic control control is output. It is possible to prevent such a hindrance to.
[0023]
Further, when checking the failure of the analog type lateral cutting direction sensor 2 and the row cutting direction sensor 47, the bidirectional sensors 2 and 47 are further set to the check state in the automatic circuit as shown in FIG. When the sensor check switch 52 is connected to a buzzer 53 that outputs an alarm when there is no abnormality in the check result when the switch 52 is turned on, for example, as shown in FIG. In this case, by turning on the switch 52 and rotating the detection rod 2a of the direction sensor 2, the alarm output of the buzzer 53 is output for a certain period of time when the analog value set as the equally divided b is passed. By performing the above, it is possible to easily detect a failure of the bidirectional sensors 2 and 47.
[Brief description of the drawings]
FIG. 1A is a plan view showing an arrangement state of detection ridges and a planted culm area of a direction sensor for horizontal cutting.
(B) The side view which shows the state which attached the direction sensor for horizontal cutting to the weed pod of the cutting device.
FIG. 2 is a block diagram showing a control circuit that executes a cross-cutting direction control.
FIG. 3 is a side view showing the overall configuration of the reaping device.
FIG. 4 is a plan view showing the overall configuration of the reaping device.
FIG. 5 is a schematic front view showing a state of a steering clutch and a steering brake in a mission case.
FIG. 6 is a diagram showing a pulse output of a clutch solenoid that brakes left and right steering brakes.
FIG. 7 is a diagram showing a pulse output in the right direction by detecting a peak value of a direction sensor for horizontal cutting.
FIG. 8 is a diagram showing a membership function in fuzzy arithmetic processing.
FIG. 9 is a chart showing control rules in fuzzy arithmetic processing.
FIG. 10 is a diagram showing a pulse output in the right direction by detecting a peak value of a direction sensor for horizontal cutting.
FIG. 11 is a block diagram illustrating a control circuit that performs cross-cutting and row cutting direction control.
FIG. 12 is a diagram showing a return timing from manual operation interruption to automatic control;
FIG. 13 is an operation diagram showing a check state of a failure due to rotation of a detection rod of a direction sensor for horizontal cutting.
FIG. 14 is a side view showing the overall configuration of the combine.
[Explanation of symbols]
DESCRIPTION OF SYMBOLS 1 Airframe 2 Directional sensor 2a Detecting rod 3 Cutting device 4 Weeding rod 6 Chassis 12 Weeding body 13 Pulling-up portion 14 Weeding rod 21 Mission case 22 Steering clutch 23 Steering brake 44 Direction control switch 45 Clutch solenoid 46 Manual Operation lever 47 Cutting direction sensor 47a Left direction sensor 47b Right direction sensor 48a Detection rod 48b Detection rod 50 Controller 51 Manual changeover switch 52 Sensor check switch 53 Buzzer

Claims (1)

左右の操向クラッチ(22,22)と左右の操向ブレーキ(23,23)とを備える走行用のミッションケース(21)を車台(6)の前端部に備え、前記左右の操向クラッチ(22,22)の入り切りと左右の操向ブレーキ(23,23)の制動とを行わせて機体(1)を左右操向させる手動操作レバー(46)を設け、刈取装置(3)の右端部の分草体(12)を支持する分草杆(14)にアナログ式の横刈用方向センサ(2)を取り付けるにあたり、該横刈用方向センサ(2)の検出杆(2a)を該横刈用方向センサ(2)から左方向へ一定の後退角をもたせて突出させて該検出杆(2a)の前後回動角度をポテンショメータによって検出するように構成し、前記刈取装置(3)の左端部に位置する左右一対の引起部(13,13)の間の分草杆(4)にアナログ式の条刈用方向センサ(47)を取り付けるにあたり、該条刈用方向センサ(47)の左方向センサ(47a)及び該左方向センサ(47a)の検出杆(48a)と右方向センサ(47b)及び該右方向センサ(47b)の検出杆(48b)とを前後に並べて取り付けて、コントローラ(50)の入力側に、自動方向制御を入り切りする方向制御スイッチ(44)と前記横刈用方向センサ(2)と条刈用方向センサ(47)の左方向センサ(47a)及び右方向センサ(47b)と手動切替スイッチ(51)と前記横刈用方向センサ(2)及び条刈用方向センサ(47)を故障チェック状態に切り替えるセンサチェックスイッチ(52)とを接続する一方、該コントローラ(50)の出力側に、前記左右の操向クラッチ(22,22)の入り切りと左右の操向ブレーキ(23,23)の制動とを行わせる左右のクラッチソレノイド(45,45)と前記横刈用方向センサ(2)及び条刈用方向センサ(47)の故障チェックの結果に異常がない場合に出力するブザー(53)とを接続して、前記方向制御スイッチ(44)をONして横刈用方向センサ(2)又は条刈用方向センサ(47)の検出結果に応じて機体(1)を左右操向させて自動方向制御を行わせるにあたり、手動切替スイッチ(51)をON操作した場合には自動方向制御を中断して手動操作レバー(46)の操作による左右操向を優先すると共に、この中断した自動方向制御を自動的に入り状態に復帰させるまでに要する設定時間を、横刈り又は条刈りにおける自動方向制御時においては長く、横刈りか条刈りかを自動判定する条横判定制御時には短く設定し、前記横刈用方向センサ(2)の故障チェックを行うにあたっては、前記センサチェックスイッチ(52)をONし、横刈用方向センサ(2)の検出杆(2a)を回動させた場合に、該横刈用方向センサ(2)の検出値が横刈用方向センサ(2)の検出杆(2a)の回動領域を等分割して設定した値を通過した場合に前記ブザー(53)を一定時間出力させるように連繋したこと特徴とするコンバイン。A traveling transmission case (21) having left and right steering clutches (22, 22) and left and right steering brakes (23, 23) is provided at the front end of the chassis (6), and the left and right steering clutches ( 22 and 22) and the left and right steering brakes (23 and 23) are braked to provide a manual operation lever (46) for steering the airframe (1) to the left and right, and the right end of the cutting device (3). When attaching an analog type weeding direction sensor (2) to the weed pod (14) that supports the weed body (12), the detection hoe (2a) of the weeding direction sensor (2) The left end of the reaping device (3) is configured to detect the forward / backward rotation angle of the detection rod (2a) with a potentiometer by protruding from the directional sensor (2) with a fixed backward angle. Of the pair of left and right pull-up parts (13, 13) When attaching the analog stalk direction sensor (47) to the weed stalk (4), the left direction sensor (47a) of the stalk direction sensor (47) and the detection direction of the left direction sensor (47a) (48a), a right direction sensor (47b), and a detection rod (48b) of the right direction sensor (47b) are mounted side by side, and a direction control switch for turning on / off automatic direction control on the input side of the controller (50) (44), the horizontal cutting direction sensor (2), the left direction sensor (47a) and the right direction sensor (47b) of the row cutting direction sensor (47), the manual changeover switch (51), and the horizontal cutting direction sensor. (2), strips and one for connecting the sensor check switch (52) switching the cutting directional sensor (47) in the abnormality check state, the output side of the controller (50), said left and right steering click Pitch (22, 22) of turning on and off the left and right steering brake the transverse cutting directional sensor (2) and Article mowing directional braking and the left and right clutch solenoid to perform (45, 45) of (23, 23) A buzzer (53) that outputs when there is no abnormality in the result of the failure check of the sensor (47) is connected, the direction control switch (44) is turned on, and the direction sensor for transverse cutting (2) or for cutting When the manual changeover switch (51) is turned on to perform the automatic direction control by steering the airframe (1) to the left and right according to the detection result of the direction sensor (47), the automatic direction control is interrupted and the manual operation is performed. Prioritize left and right steering by operating the operating lever (46), and set the time required to automatically enter this interrupted automatic direction control and return to the state. The length is set to be short during the horizontal / horizontal determination control for automatically determining whether the horizontal or horizontal cutting is performed, and when the failure check of the horizontal cutting direction sensor (2) is performed, the sensor check switch (52) is turned ON, When the detection rod (2a) of the cutting direction sensor (2) is rotated, the detection value of the horizontal cutting direction sensor (2) is the rotation of the detection rod (2a) of the horizontal cutting direction sensor (2). The combine is characterized in that the buzzer (53) is connected so as to output for a certain period of time when a value set by dividing the moving region equally is passed.
JP10458998A 1998-04-15 1998-04-15 Combine Expired - Fee Related JP3820745B2 (en)

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JP10458998A JP3820745B2 (en) 1998-04-15 1998-04-15 Combine

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Application Number Priority Date Filing Date Title
JP10458998A JP3820745B2 (en) 1998-04-15 1998-04-15 Combine

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JPH11289850A JPH11289850A (en) 1999-10-26
JP3820745B2 true JP3820745B2 (en) 2006-09-13

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EP3395312A1 (en) * 2014-04-04 2018-10-31 Ferno-Washington, Inc. Methods and systems for automatically articulating cots

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