JPS61147089A - Automatic controller for cereal drier - Google Patents

Automatic controller for cereal drier

Info

Publication number
JPS61147089A
JPS61147089A JP27023784A JP27023784A JPS61147089A JP S61147089 A JPS61147089 A JP S61147089A JP 27023784 A JP27023784 A JP 27023784A JP 27023784 A JP27023784 A JP 27023784A JP S61147089 A JPS61147089 A JP S61147089A
Authority
JP
Japan
Prior art keywords
grain
valve
measuring device
drying
moisture
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP27023784A
Other languages
Japanese (ja)
Inventor
佐竹 利彦
与田 喜信
吉山 隆幸
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.)
Satake Engineering Co Ltd
Original Assignee
Satake Engineering 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 Satake Engineering Co Ltd filed Critical Satake Engineering Co Ltd
Priority to JP27023784A priority Critical patent/JPS61147089A/en
Publication of JPS61147089A publication Critical patent/JPS61147089A/en
Pending legal-status Critical Current

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Abstract

(57)【要約】本公報は電子出願前の出願データであるた
め要約のデータは記録されません。
(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

【発明の詳細な説明】 産業上の利用分野 本発明は高水分籾の循環斑を排除してテンパリング時間
を一定に保持するための穀物乾燥機の自動制御装置に関
する。
DETAILED DESCRIPTION OF THE INVENTION Field of the Invention The present invention relates to an automatic control device for a grain dryer for eliminating circulation spots of high-moisture rice and keeping the tempering time constant.

従来技術とその問題点 一般の循環式穀物乾燥機は、熱風室、穀物乾燥空、排風
室を並立した通風乾燥部に穀物槽を上載すると共に、そ
の一側に昇降機を立設し、穀物乾燥室の下部に設けた排
穀弁を回転して上部の穀物槽の穀粒を前記乾燥室内に流
下すると共に、熱風室から排J!11に横方向に流れる
熱風によって乾燥し、前記排穀弁から排出される穀粒を
昇降機によって揚穀して穀物槽に供給してテンパリング
する構成が通例である。そして、前記穀物乾燥機では、
穀粒水分に関係なく単位時間において、所定の設定時間
一定して前記排穀弁を同一速度によって回転して穀粒を
排出して循環していたので、前記排穀弁から排出する穀
量(排出籾量)は、低水分の籾に比し、摩擦抵抗の大き
い高水分の籾はその排出量が減少し、ために穀物槽にお
けるテンバリング時間が増減変化し、しばしば乾燥籾に
調質斑を生ずる問題点を有し、その装置の改善がつとに
要望される処であった。
Conventional technology and its problems A general circulation type grain dryer has a grain tank placed on top of a ventilation drying section that has a hot air chamber, a grain drying chamber, and a ventilation chamber in parallel, and an elevator installed on one side to dry the grains. A grain discharging valve installed at the bottom of the drying chamber is rotated to allow the grains in the upper grain tank to flow down into the drying chamber and also to be discharged from the hot air chamber. Generally, the grains are dried by hot air flowing in the horizontal direction through the grain removal valve 11, and the grains discharged from the grain removal valve are lifted by an elevator and then supplied to a grain tank for tempering. In the grain dryer,
Regardless of the grain moisture content, the kernels are discharged and circulated by rotating the grain threshing valve at the same speed for a predetermined set time in a unit time, so that the amount of grain discharged from the grain threshing valve ( Compared to low-moisture paddy, high-moisture paddy has a large frictional resistance, and the amount of paddy discharged is lower than that of low-moisture paddy.As a result, the tempering time in the grain tank increases or decreases, which often causes tempering unevenness on dry paddy. However, there are some problems that arise, and there is a constant need for improvements to the device.

発明の目的 本発明は上記の諸点に鑑み、乾燥機の穀物循環行程に設
けた水分測定器を制御装置を介して穀物乾燥室の排穀弁
に設けた回転制御部に電気的に連結することにより、前
記測定器の水分測定値の変化に応じて穀物乾燥室に設け
た排穀弁の単位時間当りの回転時間を変化して制御する
ようにし、以て前述した従来装置の欠点を排除し、水分
量が変化して排出時間の変化する穀粒を測定水分値によ
って効率的に規正して排穀量およびテンバリング時間を
一定化して完全な調質作用を実施すると共に、調質環の
ない良質の乾燥穀物を確実に量産する高性能な穀物乾燥
機の自動詞all装置を提供することを目的とする。
Purpose of the Invention In view of the above points, the present invention provides a method for electrically connecting a moisture measuring device provided in the grain circulation process of a dryer to a rotation control unit provided in a grain threshing valve in a grain drying room via a control device. Accordingly, the rotation time per unit time of the grain threshing valve provided in the grain drying room is changed and controlled in accordance with changes in the moisture measurement value of the measuring device, thereby eliminating the drawbacks of the conventional device described above. , the grain whose moisture content changes and the expulsion time changes can be efficiently regulated by the measured moisture value to keep the expulsion amount and tempering time constant to implement a complete tempering action, and to eliminate the tempering ring. To provide an intransitive all device for a high-performance grain dryer that reliably mass-produces high-quality dried grains.

発明の構成 本発明の穀物乾燥機の自動制御装置は、熱風室、穀物乾
燥至、排風至を並立した通風乾燥部に穀物槽を上載する
と共に、その一側に昇降機を立設して穀物循環行程を形
成した乾燥装置において、前記穀物循環行程に水分測定
器を設けると共に、該水分測定器を制m装置を介して前
記穀物乾燥室の排穀弁に設けた回転制御部に電気的に連
結し、前記測定器の水分測定値の変化に応じて前記排穀
弁の単位時間当りの回転時間を変化して制御するように
した構成を有する。
Structure of the Invention The automatic control device for a grain dryer of the present invention has a grain tank placed on top of a ventilation drying section in which a hot air chamber, a grain drying station, and an exhaust ventilation section are arranged side by side, and an elevator installed on one side of the drying section to dry grains. In the drying device having a circulation process, a moisture measuring device is provided in the grain circulation process, and the moisture measuring device is electrically connected to a rotation control unit provided in the grain threshing valve of the grain drying room through a control device. and a configuration in which the rotation time per unit time of the grain threshing valve is controlled by changing the rotation time per unit time in accordance with a change in the moisture measurement value of the measuring device.

実施例の説明 本発明の構成について第1図〜第3図に基づき説明する
DESCRIPTION OF EMBODIMENTS The structure of the present invention will be explained based on FIGS. 1 to 3.

第1図は熱風室2または2A、穀物乾燥室3゜排風室4
を並立した通風乾燥部1に穀物槽5を上載すると共に、
その一側に昇降機6を立設して穀物循環行程Aを形成し
た穀物乾燥機である。
Figure 1 shows hot air room 2 or 2A, grain drying room 3, and exhaust air room 4.
The grain tank 5 is placed on top of the ventilation drying section 1 where
This is a grain dryer in which an elevator 6 is installed upright on one side to form a grain circulation path A.

前記通風乾燥部1は、機枠内に一対の矢筒形・の排風室
4,4を設けると共に、各排風室4゜4の両側に穀物乾
燥室3,3または3,3をそれぞれ設け、各穀物乾燥室
3・・・の両側に熱風室2または2Aをそれぞれ設け、
また各熱ffl空2゜2Aを火熱発生装置7に連絡する
と共に、各排風室4.4を排風機8に連絡し、また一対
の穀物乾燥室3.3または3,3毎に排穀弁9Aまたは
9Bをそれぞれ設け、各排穀弁9Aまたは9Bの回転に
よって上部に設けた穀物槽5の穀粒が各穀物乾燥室3・
・・をそれぞれ流下すると共に、熱風室2,2Aから排
風室4・・・に横方向に流動する乾燥用熱風によって前
記穀粒を乾燥するようにし、10は各排穀弁9Aまたは
9Bの下方に設けた集穀槽、11は集穀槽10内の穀。
The ventilation drying section 1 is provided with a pair of quiver-shaped ventilation chambers 4, 4 in the machine frame, and grain drying chambers 3, 3 or 3, 3 are provided on both sides of each ventilation chamber 4. , hot air chambers 2 or 2A are provided on both sides of each grain drying chamber 3, respectively,
In addition, each heat ffl air 2.2A is connected to the fire heat generator 7, and each exhaust chamber 4.4 is connected to the exhaust fan 8, and each grain drying chamber 3.3 or 3,3 is drained every A valve 9A or 9B is provided, and by rotation of each grain removal valve 9A or 9B, the grains in the grain tank 5 provided at the top are removed from each grain drying chamber 3.
The grains are dried by the hot air for drying which flows laterally from the hot air chambers 2 and 2A to the exhaust chamber 4. A grain collecting tank 11 is provided in the lower part of the grain collecting tank 10.

粒を昇降機6の下部供給口に搬送する排出用コンベア、
12は昇降機6の上部吐出口から穀物槽5に穀粒を搬入
する供給用コンベアである。
a discharge conveyor that conveys the grains to the lower supply port of the elevator 6;
Reference numeral 12 denotes a supply conveyor that carries grains into the grain tank 5 from the upper discharge port of the elevator 6.

前記排穀弁9Aまたは9Bは、(第4図参照)回軸13
にV字形削溝から成る繰出ロール14を軸装すると共に
、その各回軸13.13の軸端部に一方向に回転するス
プロケット等から成る軸承15.15を介して作動杆1
6.16をそれぞれ軸着し、また各作動杆16.16を
連杆17によって連結すると共に、一方の作動杆16と
電動機18に軸着した回転杆19とをロッド20によっ
て連結し、また電動機18は回転制御部21を介して電
源に連結しである。
The grain threshing valve 9A or 9B has a rotating shaft 13 (see FIG. 4).
A feed roll 14 consisting of a V-shaped groove is mounted on the shaft, and an operating rod 1 is attached to the shaft end of each rotating shaft 13.13 via a bearing 15.15 consisting of a sprocket or the like that rotates in one direction.
6.16 are each pivoted, and each operating rod 16.16 is connected by a connecting rod 17, and one of the operating rods 16 and a rotary rod 19 which is pivoted to an electric motor 18 are connected by a rod 20, and the electric motor 18 is connected to a power source via a rotation control section 21.

次に、前記穀物循環行程Aに水分測定器22を設けると
共に、該測定器22を制御装置23を介して前記穀物乾
燥室3・・・の排穀弁9A、9Bに設けた回転制御部2
1に電気的に連結し、また前記制御装置23は、(第5
図参照)前記水分測定!I22の出力側をA/D変換器
24を介してCPU25に連結し、CPLJ25にRO
M26を接続すると共に、CPU25の出力側を回転制
御部21を介して電動1J18に連結し、また前記RO
M26には後述する穀粒水分値の変化に応じた排穀弁の
単位時間(1分間)における回転時WIJ【を算定する
ための係数α等のデータをそれぞれ記憶させて制御する
ように形成しである。
Next, a moisture measuring device 22 is provided in the grain circulation process A, and a rotation control unit 2 in which the measuring device 22 is connected to the grain threshing valves 9A and 9B of the grain drying chamber 3 through a control device 23.
1, and the control device 23 is electrically connected to the (fifth
(See figure) Moisture measurement mentioned above! The output side of I22 is connected to the CPU 25 via the A/D converter 24, and the RO is connected to the CPLJ 25.
M26 is connected, and the output side of the CPU 25 is connected to the electric motor 1J18 via the rotation control section 21, and the RO
The M26 is formed to store and control data such as a coefficient α for calculating the rotation time WIJ in a unit time (1 minute) of the grain removal valve according to changes in grain moisture value, which will be described later. It is.

上記構成について以下その作用を説明する。The operation of the above configuration will be explained below.

原料籾を昇降機6によって揚穀して穀物槽5に供給し、
また火熱発生装置17に点火し排J!am8を回転して
該装置を起動すると、排穀弁9A。
Raw material paddy is lifted by an elevator 6 and supplied to a grain tank 5,
Also, the fire heat generating device 17 is ignited and discharged! When the device is started by rotating am8, the grain removal valve 9A is activated.

9Bの回転によって穀物槽5から各穀物乾燥室3・・・
内に流下する籾は、熱風室2または2Aから排風室4.
4に横方向に流動する熱風によって乾燥される。また、
その籾は集穀槽10に排出されて槽底部に集積すると共
に、排出用コンベア11によって昇降機6供給口に搬入
され、また昇降機6によって揚穀されると共に、供給用
コンベア12によって穀物槽10に搬入され流下し、穀
粒層を形成して該穀物槽5内において謂ゆる循環式のテ
ン、バリング乾燥されることになる。
By the rotation of 9B, each grain drying room 3...
The paddy flowing down into the interior is transferred from the hot air chamber 2 or 2A to the exhaust chamber 4.
4. Dry by horizontally flowing hot air. Also,
The paddy is discharged to the grain collection tank 10 and accumulated at the bottom of the tank, and is carried to the supply port of the elevator 6 by the discharge conveyor 11, and is lifted by the elevator 6 and transferred to the grain tank 10 by the supply conveyor 12. The grains are carried in, flowed down, form a grain layer, and are dried in the so-called circulation type grain tank 5 by burring.

そして本発明の制御装置23は、穀物槽5の基準穀粒t
a<張込量)における基準排穀量を、単位時間(1分間
)において排穀弁を回転する回転時間(を秒)によって
把握して実験によってその数値を決定し、(例えば、張
込量5石の籾が仕上げ水分値(15%程度)に達する直
前において、排穀弁を回転する実働時間を1分間におい
て30.7秒とする)。また、摩擦抵抗の大きい高水分
の穀粒と、流動性のある低水分の穀粒との前記排穀弁9
A、9Bの単位時間(1分間)において排出する排穀量
および各水分値毎の排穀量をそれぞれ測定して実験値を
求め、その実験値に基づき、穀粒水分の変化に応じた排
穀弁の単位時間(1分間)において実際に回転する回転
時間(を秒)を算定する係数を下表の如く変化する穀粒
水分値Sに応じた1分間における排穀弁の回転時間を前
述した基準回転時間(t−30,7秒)X係数αによっ
て算定するように前記各データをROM26に記憶させ
であるので、前記乾燥作用において、穀物循環行程Aに
設けた水分測定器22は穀粒水分を測定すると共に、そ
の測定信号はA/D変換器24によってデジタル信号に
変換されてCPU25に入力される。
The control device 23 of the present invention controls the reference grain t of the grain tank 5.
The standard grain threshing amount at a < tacking amount) is determined by the rotation time (in seconds) of rotating the grain threshing valve per unit time (1 minute), and the numerical value is determined by experiment. The actual working time of rotating the grain threshing valve just before the 5 stones of paddy reaches the finished moisture value (approximately 15%) is 30.7 seconds per minute). Further, the grain discharging valve 9 has high-moisture grains with high frictional resistance and low-moisture grains with fluidity.
Measure the amount of grain discharged in unit time (1 minute) of A and 9B and the amount of grain discharged for each moisture value to obtain experimental values, and based on the experimental values, calculate the amount of grain discharged according to changes in grain moisture. The coefficient for calculating the actual rotation time (in seconds) of the grain valve in a unit time (1 minute) is calculated as shown in the table below.The rotation time of the grain removal valve in 1 minute according to the grain moisture value S is The above-mentioned data are stored in the ROM 26 so as to be calculated by the reference rotation time (t-30, 7 seconds) While measuring grain moisture, the measurement signal is converted into a digital signal by the A/D converter 24 and input to the CPU 25.

また、ROM26に記憶された各水分値Sに応じた回転
時flfi(αを秒)になるようにCPU25から制御
信号を発して回転制御部21を介して電動機18を間歇
的に回転するから、各排穀弁9A、9Bの回転時間は測
定水分値に応じて珊減変化してその排穀量は単位時間(
1分間)において一定化すると共に、その穀粒は揚穀さ
れて穀物槽5に供給されて一定層高の穀粒層を形成して
テンバリングされるため、各穀粒のテンパリング時間は
安定的に一定化して充分に調質されて調質型を生ずるこ
とな(、良質の乾燥穀粒に生成されて機外に取出される
ことになる。
Further, since the CPU 25 issues a control signal to intermittently rotate the electric motor 18 via the rotation control unit 21 so that the rotation time flfi (α is seconds) corresponds to each moisture value S stored in the ROM 26, The rotation time of each grain threshing valve 9A, 9B changes depending on the measured moisture value, and the grain threshing amount per unit time (
1 minute), and the grains are fried and supplied to the grain tank 5 to form a grain layer with a constant layer height and then tempered, so the tempering time of each grain is stable. If the grain is stabilized and thoroughly tempered, it will not produce a tempered grain (it will be produced into good quality dry grains and taken out of the machine).

おな、前記各排穀弁の回転機構は、図面の構造に限定さ
れることなく、任意に改変できることは勿論である。
Note that the rotation mechanism of each of the grain threshing valves is not limited to the structure shown in the drawings, and can of course be modified as desired.

発明の詳細 な説明したように本発明によれば、乾燥機の穀物循環行
程に設けた水分測定器を制御装置を介して穀物乾燥室の
排穀弁に設けた回転制御部に電気的に連結することによ
り、前記測定器の水分測定値の変化に応じて穀物乾燥室
に設けた排穀弁の単位時間当りの回転時間を変化してI
IJillするようにし、以て、前述した従来装置の欠
点を排除でき、水分量が変化して排出時間の変化する穀
粒を水分測定値により効率的に規正し排ml量およびテ
ンバリング時間を一定化して完全な調質作用を実施でき
ると共に、調質型のない良質の乾燥穀物を確実に量産で
きる等の効果を奏する。
DETAILED DESCRIPTION OF THE INVENTION According to the present invention, the moisture measuring device provided in the grain circulation process of the dryer is electrically connected to the rotation control unit provided in the grain threshing valve of the grain drying room via the control device. By doing so, the rotation time per unit time of the grain threshing valve provided in the grain drying room is changed according to the change in the moisture measurement value of the measuring device.
This method eliminates the drawbacks of the conventional apparatus described above, and effectively regulates grains whose water content changes and the evacuation time changes based on the moisture measurement value, thereby making the evacuation ml amount and tempering time constant. In addition to being able to perform a complete refining action, it is also possible to reliably mass-produce high-quality dried grains without refining molds.

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

第1図は本装置の側断面図、第2図はその平断面図、第
3図は本装置の一部を切開した正面図、第4図はその排
穀弁の斜視図、第5図は制m装置のブロック図である。 1・・・通風乾燥部    2,2A・・・熱風至3・
・・穀物乾燥室    4・・・排風至5・・・穀物槽
      6・・・昇降機7・・・火熱発生装置  
 8・・・排風機9A、9B・・・排穀弁 10・・・
集穀槽11・・・排出用コンベア 12・・・供給用コ
ンベア13・・・回軸      14・・・繰出ロー
ル15・・・軸受      16・・・作動杆  。
Fig. 1 is a side sectional view of this device, Fig. 2 is a plan sectional view thereof, Fig. 3 is a partially cutaway front view of this device, Fig. 4 is a perspective view of the grain threshing valve, and Fig. 5 is a block diagram of the m control device. 1... Ventilation drying section 2, 2A... Hot air to 3.
... Grain drying room 4 ... Exhaust air 5 ... Grain tank 6 ... Elevator 7 ... Fire heat generator
8...Exhaust fan 9A, 9B...Grain removal valve 10...
Grain collecting tank 11...discharge conveyor 12...supply conveyor 13...rotating shaft 14...feeding roll 15...bearing 16...operating rod.

Claims (1)

【特許請求の範囲】[Claims] 熱風室、穀物乾燥室、排風室を並立した通風乾燥部に穀
物槽を上載すると共に、その一側に、昇降機を立設して
穀物循環行程を形成した乾燥装置において、前記穀物循
環行程に水分測定器を設けると共に、該水分測定器を制
御装置を介して前記穀物乾燥室の排穀弁に設けた回転制
御部に電気的に連結し、前記測定器の水分測定値の変化
に応じて前記排穀弁の単位時間当りの回転時間を変化し
て制御するようにした穀物乾燥機の自動制御装置。
In a drying device in which a grain tank is placed on top of a ventilation drying section in which a hot air chamber, a grain drying chamber, and a ventilation chamber are arranged side by side, and an elevator is installed on one side of the drying device to form a grain circulation process, the grain circulation process is A moisture measuring device is provided, and the moisture measuring device is electrically connected to a rotation control unit provided in a grain threshing valve of the grain drying room through a control device, and the moisture measuring device is electrically connected to a rotation control unit provided in a grain threshing valve of the grain drying room, and the moisture measuring device is electrically connected to a rotation control unit provided in a grain threshing valve of the grain drying room, and the moisture measuring device is electrically connected to a rotation control unit provided in a grain threshing valve of the grain drying room, and the moisture measuring device is An automatic control device for a grain dryer, which controls the rotation time of the grain threshing valve by changing the rotation time per unit time.
JP27023784A 1984-12-20 1984-12-20 Automatic controller for cereal drier Pending JPS61147089A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP27023784A JPS61147089A (en) 1984-12-20 1984-12-20 Automatic controller for cereal drier

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP27023784A JPS61147089A (en) 1984-12-20 1984-12-20 Automatic controller for cereal drier

Publications (1)

Publication Number Publication Date
JPS61147089A true JPS61147089A (en) 1986-07-04

Family

ID=17483462

Family Applications (1)

Application Number Title Priority Date Filing Date
JP27023784A Pending JPS61147089A (en) 1984-12-20 1984-12-20 Automatic controller for cereal drier

Country Status (1)

Country Link
JP (1) JPS61147089A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2010159943A (en) * 2009-01-09 2010-07-22 Miike Iron Works Co Ltd Chip dryer

Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS57124680A (en) * 1981-01-24 1982-08-03 Yamamoto Mfg Drying of grain particles

Patent Citations (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS57124680A (en) * 1981-01-24 1982-08-03 Yamamoto Mfg Drying of grain particles

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2010159943A (en) * 2009-01-09 2010-07-22 Miike Iron Works Co Ltd Chip dryer

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