JPS614946A - Device and method for measuring water of granule - Google Patents

Device and method for measuring water of granule

Info

Publication number
JPS614946A
JPS614946A JP12588684A JP12588684A JPS614946A JP S614946 A JPS614946 A JP S614946A JP 12588684 A JP12588684 A JP 12588684A JP 12588684 A JP12588684 A JP 12588684A JP S614946 A JPS614946 A JP S614946A
Authority
JP
Japan
Prior art keywords
powder
granules
moisture
granular material
leveling
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
JP12588684A
Other languages
Japanese (ja)
Inventor
Takashi Matsuki
松木 隆
Norio Yoshikawa
吉川 紀雄
Ikuzo Kawamoto
河本 郁三
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.)
Kansai Coke and Chemicals Co Ltd
Original Assignee
Kansai Coke and Chemicals 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 Kansai Coke and Chemicals Co Ltd filed Critical Kansai Coke and Chemicals Co Ltd
Priority to JP12588684A priority Critical patent/JPS614946A/en
Publication of JPS614946A publication Critical patent/JPS614946A/en
Pending legal-status Critical Current

Links

Classifications

    • GPHYSICS
    • G01MEASURING; TESTING
    • G01NINVESTIGATING OR ANALYSING MATERIALS BY DETERMINING THEIR CHEMICAL OR PHYSICAL PROPERTIES
    • G01N21/00Investigating or analysing materials by the use of optical means, i.e. using sub-millimetre waves, infrared, visible or ultraviolet light
    • G01N21/17Systems in which incident light is modified in accordance with the properties of the material investigated
    • G01N21/25Colour; Spectral properties, i.e. comparison of effect of material on the light at two or more different wavelengths or wavelength bands
    • G01N21/31Investigating relative effect of material at wavelengths characteristic of specific elements or molecules, e.g. atomic absorption spectrometry
    • G01N21/35Investigating relative effect of material at wavelengths characteristic of specific elements or molecules, e.g. atomic absorption spectrometry using infrared light
    • G01N21/3554Investigating relative effect of material at wavelengths characteristic of specific elements or molecules, e.g. atomic absorption spectrometry using infrared light for determining moisture content

Landscapes

  • Physics & Mathematics (AREA)
  • Spectroscopy & Molecular Physics (AREA)
  • Health & Medical Sciences (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Chemical & Material Sciences (AREA)
  • Analytical Chemistry (AREA)
  • Biochemistry (AREA)
  • General Health & Medical Sciences (AREA)
  • General Physics & Mathematics (AREA)
  • Immunology (AREA)
  • Pathology (AREA)
  • Investigating Or Analysing Materials By Optical Means (AREA)

Abstract

PURPOSE:To measure the water of granules precisely by controlling the height of a leveling tool which levels granules and a noncontact near-infrared water meter simultaneously according to variation in the conveyance loading amount of microsomes on a conveyor device. CONSTITUTION:The measuring device is provided with a detector which detects the weight or height of granules 3 being conveyed by a conveyor belt 2 and a level adjusting pedestal 8 which moves up and down corresponding to the weight or height of the granules 3. Further, the leveling tool 11 which levels the surface of the granules 3 on the conveyor belt 2 and the noncontact near-infrared water meter 12 which measures the water content of the granules 3 are fixed to the adjusting pedestal 8. Then, the height position of the leveling tool 11 is controlled according to the loading amount of the granules 3. Consequently, the water meter 12 and granules 3 are held at constant distance and the granules 3 are prevented from overflowing.

Description

【発明の詳細な説明】 [産業上の利用分野] 本発明は、粉粒体の水分測定装置およびその装置を用い
て、粉粒体の水分を測定する方法に関する。特に詳しく
は搬送装置により移送されつつある粉粒体の水分測定装
置およびその装置により、粉粒体の水分を測定する方法
に係わるものである。
DETAILED DESCRIPTION OF THE INVENTION [Industrial Field of Application] The present invention relates to a moisture measuring device for powder or granular material and a method for measuring moisture in powder or granular material using the device. In particular, the present invention relates to a moisture measuring device for powder and granular material being transported by a conveying device and a method for measuring the moisture content of powder and granular material using the device.

[従来技術1 非接触近赤外線水分計を用いて粉粒体の保有する水分を
測定することは従来から知られている。
[Prior Art 1] It has been known for a long time to measure the moisture content of powder particles using a non-contact near-infrared moisture meter.

このような水分計は一般に、測定視野となる粉粒体の最
上表面における水分を測定するものである。
Such a moisture meter generally measures moisture on the uppermost surface of a powder or granular material, which is the measurement field of view.

ところが、粉粒体の最上表面における水分値は経時的に
著しく変化するものであり、その測定値と粉粒体の実際
の平均水分値との間には大きな誤差がある。特に、この
粉粒体が例えばベルトコンペアのような搬送手段によっ
て比較的長い距離、あるいは長い時間、移送される場合
、該搬送手段の出口端付近に設置された非接触近赤外線
水分計による水分測定値と、粉粒体の保有する実際の平
均−水分値との間には大きな誤差を生ずる。そこで、実
際の平均水分値に近い水分値が得られるように、非接触
近赤外線水分計配置位置に、搬送装置上の粉粒体の平均
水分値鳴、近い水分を含有すると考えられる内部を露呈
させるための掻き分(ブ板を取付けた構造の水分測定装
置も提案されている。
However, the moisture value on the uppermost surface of the granular material changes significantly over time, and there is a large error between the measured value and the actual average moisture value of the granular material. In particular, when this powder or granular material is transported over a relatively long distance or for a long time by a conveyance means such as a belt compare, the moisture content is measured using a non-contact near-infrared moisture meter installed near the outlet end of the conveyance means. A large error occurs between this value and the actual average-moisture value possessed by the powder or granular material. Therefore, in order to obtain a moisture value close to the actual average moisture value, the non-contact near-infrared moisture meter is placed at the position where the average moisture value of the powder or granules on the conveyor is exposed. A moisture measuring device has also been proposed that is equipped with a scraping plate to measure the moisture content.

[発明が解決しようとづ°る問題点] 上記構造の水分測定装置では、掻き分は板は粉粒体の搬
送方向にほぼ直角に設けやれており、例えばコンベアベ
ルト上の粉粒体の搬送Mf4あるいは嵩に合わせて、適
時人手により高さを調節する固定式である。従って、粉
粒体の重量、嵩高さ等搭載量の変動により、その最上表
面と非接触近赤外線水分計と距離(レベル)が変動して
、追従する測定が行い難く、実測値と実際の水分値には
尚誤差が認められる。更に、掻き分は板が固定式のため
に、搭載量が多い場合には粉粒体がベルトオーバーして
落下し、作業環境が汚染されるといった問題がある。
[Problems to be Solved by the Invention] In the moisture measuring device having the above structure, the scraper plate is provided almost perpendicularly to the conveying direction of the powder and granules, and for example, when conveying the powder and granules on a conveyor belt. It is a fixed type whose height can be adjusted manually depending on the Mf4 or its bulk. Therefore, due to variations in the weight, bulk, etc. of the powder and granular material loaded, the distance (level) between the top surface and the non-contact near-infrared moisture meter varies, making it difficult to perform follow-up measurements, and the actual measured value and actual moisture content may vary. There is still some error in the values. Furthermore, since the plate of the scraper is fixed, there is a problem in that when a large amount of powder is loaded, powder and granules fall over the belt, contaminating the working environment.

c問題を解決するための手段1 本発明は、搬送装置上における粉粒体の搬送搭載量の変
化に対応して、粉粒体の表面をならず均し具と非接触近
赤外線水分計との高さを同時制御して水分測定すること
により、前記問題を解消するものである。即ち、本発明
は、搬送装置により移送されつつある粉粒体の水分を測
定する装置において、搬送装置上における移送粉粒体の
重量または嵩高さを検出する検知器と、その検知器から
の検出信号を受けた制御器の指令により、前記粉粒体の
重量または嵩高さに対応して上下動するレベル調節台座
とを含み、更に、該レベル調節台座には搬送装置上の粉
粒体表面を掻きならす均し具と粉粒体の水分を測定する
非接触近赤外線水分計とが固設されてなる粉粒体の水分
測定装置およびその装置を用いる水分測定方法を要旨と
するものである。
Means for Solving Problem 1 The present invention uses a leveling tool and a non-contact near-infrared moisture analyzer to adjust the surface of the powder or granule to a leveling device and a non-contact near-infrared moisture meter in response to changes in the amount of the powder or granule to be transported and loaded on the transport device. The above problem is solved by simultaneously controlling the height of the water and measuring the moisture content. That is, the present invention provides a device for measuring the moisture content of powder and granular material being transferred by a transport device, and a detector for detecting the weight or bulk of the powder and granular material being transferred on the transport device, and a detection method from the detector. and a level adjustment pedestal that moves up and down according to the weight or bulk of the powder or granule according to a command from a controller that receives a signal, and further includes a level adjustment pedestal that controls the surface of the granule on the conveying device. The gist of this invention is an apparatus for measuring the moisture content of powder and granular material, in which a leveling tool for leveling and a non-contact near-infrared moisture meter for measuring the moisture content of granular material are fixed, and a method for measuring moisture using the apparatus.

[作用] 掻き分り均し貝の高さ位閘が粉粒体の搬送搭載量に応じ
て上下動制御されるので粉粒体のコンベアベルトからの
オーバーフローがなくなり、作業環境が改善されると共
に、非接触近赤外線水分計と水分の計1定されるべき粉
粒体の最上表面との距離が常に一定に維持されるので、
水分測定精度がよい。
[Function] The vertical movement of the height control of the leveling shell is controlled according to the amount of powder and granules transported and loaded, eliminating overflow of powder and granules from the conveyor belt, improving the working environment. The distance between the non-contact near-infrared moisture meter and the top surface of the granular material whose moisture content is to be determined is always maintained constant.
Good moisture measurement accuracy.

[実施例1 以下、図面に基いて本発明の詳細な説明する。[Example 1 Hereinafter, the present invention will be explained in detail based on the drawings.

@1図は、本発明装置の一例の全体を側面からみた機器
系統図、第2図は、本発明装置のうち、水分測定装置の
拡大斜視図を示す。尚、図中、一点鎖線は信号回路を示
す。図中1は搬送ベル1−2上に搭載されて矢印方向に
移送されつつある粉粒体3の嵩高さくレベル)あるいは
重量を連続検出し、検出信号を制御器4に発信する検知
器(注:第1図においては、該検知器が、嵩高さくレベ
ル)検知器である場合を図示している。重量検知の場合
はこれがベルトスケールにかわるだけであるので図示は
省略している。以下同じ)、5は図示せざる支持アーム
により支持される水分測定部で、搬送ベルト2の中方向
でトンネル状に跨り、枠組み6により補強されたカバー
7で囲まれ、内部には、搬送ベルト2の中方向はぼ中央
に走行方向に沿ってレベル調節台座8が設けられている
。該レベル調節台座8には、搬送ベルト2の走行する方
向に而する前端部、および後端部に、例えば第3図の平
面拡大図で示すように、ひれ付きローラー9.9が取り
つけられてあり、前記枠組み8に垂直方向に固定された
ガイド支柱1o、1oに沿って回動し、レベル調節台座
8それ自体が水平状態を維持しながら上下動できるよう
になっている。11は搬送ベルト2上の粉粒体3表面を
ならす均し具、12は均し具11によってならされた粉
粒体3の水分含有Mを測定するための均し具11の後方
に配置される非接触近赤外線水分計であり、いずれもレ
ベル調節台座8に下方に向けて固設されている。均し只
11は、例えば第2図の拡大斜視図に示されるように、
先燗部1ffaが搬送ベルト2の走行方向に対向ザるよ
うに向けられ、粉粒体3を掻き分けて内部を露出させる
面11b、11Cおよびならし底面11dを備えた船首
のような形状をした五角柱からなっている。又、非接触
近赤外線水分計12はその光学的視野範囲にあって均し
具11により+2きならされた粉粒体3の露出表面の水
分を電気信号として制御器4に発信する機能を有する。
Figure 1 shows an equipment system diagram of an example of the device of the present invention viewed from the side, and Figure 2 shows an enlarged perspective view of the moisture measuring device of the device of the present invention. Incidentally, in the figure, a dashed line indicates a signal circuit. In the figure, 1 is a detector (note) that continuously detects the bulk level or weight of the powder or granular material 3 loaded on the conveyor bell 1-2 and being transferred in the direction of the arrow, and sends a detection signal to the controller 4. : In FIG. 1, the case where the detector is a bulky level detector is illustrated. In the case of weight detection, this is only used in place of a belt scale, so it is not shown. 5 is a moisture measuring unit supported by a support arm (not shown), which straddles the middle of the conveyor belt 2 in a tunnel shape, is surrounded by a cover 7 reinforced by a framework 6, and inside the conveyor belt 2, a level adjustment pedestal 8 is provided along the running direction at approximately the center. As shown in the enlarged plan view of FIG. 3, for example, finned rollers 9.9 are attached to the level adjustment pedestal 8 at its front end and rear end in the direction in which the conveyor belt 2 runs. The level adjustment base 8 itself can move up and down while maintaining its horizontal state by rotating along guide columns 1o, 1o vertically fixed to the framework 8. Reference numeral 11 denotes a leveling tool for smoothing the surface of the powder or granule material 3 on the conveyor belt 2, and 12 is arranged behind the leveling tool 11 for measuring the moisture content M of the powder or granule material 3 leveled by the leveling tool 11. These non-contact near-infrared moisture meters are fixedly mounted on a level adjustment base 8 facing downward. For example, as shown in the enlarged perspective view of FIG.
The tip part 1ffa is oriented so as to face the running direction of the conveyor belt 2, and has a bow-like shape with surfaces 11b and 11C that scrape through the powder and granular material 3 to expose the inside, and a leveling bottom surface 11d. It consists of a pentagonal prism. In addition, the non-contact near-infrared moisture meter 12 has a function of transmitting the moisture on the exposed surface of the powder material 3, which is within its optical field of view and has been leveled by +2 by the leveling tool 11, to the controller 4 as an electric signal. .

13は水分測定部5の上部に位置して設りられ、制御器
4からの指令により、前進後退作動するロッド13aを
備えたパワーシリンダーで、先端に前記レベル調節台座
8を水平に維持した状態で上下動可能に釣支するワイヤ
ー14がカバー7を貫)mして接続されている。制御器
4は検知器1からの検出信号に基き、パワーシリンダー
13に対しロッド13aの前進後退作動を指令して、レ
ベル調節台88の上下動を制御すると共に、非接触近赤
外線水分計12からの電気信号に基き、粉粒体3の水分
含有量を演算して、水分表示装置(図示せず)に測定値
の表示を指令する機能をなす。
Reference numeral 13 denotes a power cylinder located above the moisture measuring unit 5, and equipped with a rod 13a that moves forward and backward according to commands from the controller 4, and maintains the level adjustment pedestal 8 horizontally at the tip. A wire 14 that is vertically movable is connected to the cover 7 by penetrating it. Based on the detection signal from the detector 1, the controller 4 instructs the power cylinder 13 to move the rod 13a forward and backward, controls the vertical movement of the level adjustment table 88, and also controls the movement of the level adjustment table 88 from the non-contact near-infrared moisture meter 12. It has a function of calculating the moisture content of the powder or granular material 3 based on the electrical signal and instructing a moisture display device (not shown) to display the measured value.

本発明の粉粒体の水分測定装置は以上のように、搬送さ
れつつある粉粒体の搭載嵩の高さ、又は、重量の変動に
対応して、レベル調節台座8の上下動が制御され、これ
に固定される均し具11、ならびに非接触近赤外線水分
計12の両者共レベルが同時制御される構造となってい
る。しかし、非接触近赤外線水分計・12どならされた
あとの粉粒体2との間の視野距離は常に一定であって、
均し前の粉粒体の嵩高さや重用が変動しても、その影響
を受けることはないし、又、均し動作時の粉粒体3のベ
ルトオーバーの問題も発生しない。
As described above, the moisture measuring device for powder or granular material of the present invention controls the vertical movement of the level adjustment pedestal 8 in response to variations in the height or weight of the powder or granular material being transported. , the leveling tool 11 fixed thereto, and the non-contact near-infrared moisture meter 12 have a structure in which the levels of both are controlled simultaneously. However, the viewing distance between the non-contact near-infrared moisture meter 12 and the powder 2 after being leveled is always constant.
Even if the bulk or weight of the powder or granular material before leveling changes, it will not be affected by this, and the problem of belt overflow of the powder or granular material 3 during the leveling operation will not occur.

次に本発明の水分測定装置により、粉粒体の水分を測定
する方法について述べる。搬送装置、例えば搬送ベルト
2が電動機のような駆動源により回転する駆動ドラム(
図示せず)により、一定又は可変速度で矢印方向へ走行
される。搭載されて移動されつつある粉粒体3は搬送ベ
ルト2の単位距離における嵩高さくレベル)、又は重量
が、検出器1によって検知され、検出信号として制御器
4に伝達され、制御器4はこれに基いて、パワーシリン
ダー13に対してロッドの前進後退作動を指令する。例
えば粉粒体3の搭載レベルが嵩高の場合、制御器4から
の指令でパワーシリンダー13のロッドは後退し、レベ
ル調節台座8はワイヤー14にJ:り一定のレベル位置
に引き上げられる。
Next, a method for measuring the moisture content of powder or granular material using the moisture measuring device of the present invention will be described. A conveyance device, for example, a conveyor belt 2 is a drive drum (
(not shown), the vehicle is driven in the direction of the arrow at a constant or variable speed. The bulkiness level (or weight) of the loaded and moving powder or granular material 3 per unit distance of the conveyor belt 2 is detected by the detector 1 and transmitted as a detection signal to the controller 4, and the controller 4 detects this. Based on this, the power cylinder 13 is commanded to move the rod forward and backward. For example, when the loading level of the powder or granular material 3 is bulky, the rod of the power cylinder 13 is moved back in response to a command from the controller 4, and the level adjustment pedestal 8 is pulled up to a certain level position by the wire 14.

これによって、均し貝11の均しレベルも上り、その掻
き分(プ面1 lb 、 11C、均し底面11dで、
粉粒体3の移送に2対する抵抗を減じ、粉粒体内部を露
出させると共に露出表面をならづ。つまり、移送されつ
つある粉粒体3と均し具11との衝突による粉粒体3の
搬送ベルト2からの落下が最大限に避けられ、露出され
た新鮮な内部表面の水分が、非接触近赤外線水分計によ
って連続測定される。そして、測定値は電気信号として
制御器4に伝達され、そこで演算して、図示せざる表示
装置に水分値の連続表示が指令される。又、逆に、例え
ば検出器1の検知で粉粒体3の搭載レベルが低い場合、
制御器4からの指令により、パワーシリンダー13のロ
ッドは前進して、レベル調節台座8はワイヤー14によ
り一定のレベル位置に引き下げられる。これにより、均
し具11の均しレベルも下がり、その掻き分は面11b
、11c、均し底面11dで粉粒体3の移送に対する抵
抗を減じながら粉粒体内部を露出させて、その表面をな
らず。ならされた表面の水分は非接触近赤外線水分計に
より連続測定される。そして、測定値は、電気信号とし
て制御器4に伝達され、そこで、演算して、図示せざる
表示装置に水分値の連続表示が指令される。以上、搬送
ベルト2によって移送される粉粒体3の嵩高さ、又は重
量の変動に対応して、レベル調節台座8は上下動し、従
って、これに固設されている均し具11と非接触近赤外
線水分計12は同時に上下動するが、均し具11の均し
底面11dと非接触近赤外線水分計12とのレベル差は
一定であるので、均し底面11dによりならされた粉粒
体3の内部が露出された表面と非接触近赤外線水分計1
2との光学的な視野距離は常に一定であり、水分測定結
果は一層精度がよい。加えて、前記のように、移送され
る粉粒体3の嵩高さ、又はM量の変動に対応して均し具
11が上下動するので、均し動作における粉粒体3のベ
ルトオーバーの問題も解消される。
As a result, the leveling level of the leveling shell 11 also increases, and the leveling level of the leveling shell 11 increases, and the leveling level of the leveling shell 11 increases, and the leveling level (on the surface 1 lb, 11C, on the leveling bottom surface 11d,
The resistance to the transfer of the powder 3 is reduced, the inside of the powder is exposed, and the exposed surface is smoothed. In other words, falling of the powder or granule 3 from the conveyor belt 2 due to the collision between the powder or granule 3 being transferred and the leveling tool 11 can be avoided to the maximum extent possible, and moisture on the exposed fresh internal surface can be removed without contact. Continuously measured using a near-infrared moisture meter. The measured value is then transmitted as an electrical signal to the controller 4, where it is calculated and commanded to continuously display the moisture value on a display device (not shown). Conversely, for example, if the loading level of the powder or granular material 3 is low as detected by the detector 1,
In response to a command from the controller 4, the rod of the power cylinder 13 moves forward, and the level adjustment pedestal 8 is lowered to a fixed level position by the wire 14. As a result, the leveling level of the leveling tool 11 is also lowered, and the leveling level of the leveling tool 11 is reduced by
, 11c, the leveling bottom surface 11d reduces the resistance to the transfer of the powder or granule material 3 while exposing the inside of the powder or granule material, and does not scratch the surface thereof. The moisture content on the leveled surface is continuously measured using a non-contact near-infrared moisture meter. The measured value is then transmitted as an electrical signal to the controller 4, where it is calculated and commanded to continuously display the moisture value on a display device (not shown). As described above, the level adjustment pedestal 8 moves up and down in response to changes in the bulk or weight of the powder or granular material 3 transferred by the conveyor belt 2, and therefore, the leveling tool 11 fixed thereto is moved. Although the contact near-infrared moisture meter 12 moves up and down at the same time, the level difference between the leveling bottom surface 11d of the leveling tool 11 and the non-contact near-infrared moisture meter 12 is constant, so that the powder grains leveled by the leveling bottom surface 11d remain constant. Non-contact near-infrared moisture meter 1 on exposed surface of body 3
Since the optical viewing distance with respect to 2 is always constant, the moisture measurement results are even more accurate. In addition, as described above, since the leveling tool 11 moves up and down in response to variations in the bulk of the powder or granular material 3 to be transferred or the amount of M, belt overflow of the powder or granular material 3 during the leveling operation is prevented. The problem will also be resolved.

[発明の効果] 本発明は以上述べたように、搬送装向により移)スされ
つつある粉粒体の単位距離における嵩高さ、又は重量の
変動に対応して、均し具および非接触近赤外線水分計の
レベルを同時に上下動させることにより、非接触近赤2
/A−練水分計と粉粒体内部露出表面との距離を常に一
定に維持して、より高い精疫の水分測定を可能ならしめ
ると共に、均し操作における粉粒体のベルトオーバーの
問題を解消しIC粉粒体の水分測定装置およびその使用
法を提供するもので、その工業的利用価値は大である。
[Effects of the Invention] As described above, the present invention provides a leveling tool and a non-contact device that respond to changes in bulk or weight per unit distance of powder or granules being transferred by a conveying device. By simultaneously moving the level of the infrared moisture meter up and down, non-contact near-infrared 2
/A- By always maintaining the distance between the water dispersion meter and the exposed surface inside the powder or granule material, it is possible to measure the moisture content at a higher level of moisture content, and at the same time, it is possible to avoid the problem of belt overflow of the powder or granule material during the leveling operation. The present invention provides a moisture measuring device for IC powder and a method for using the same, and has great industrial utility value.

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

第1図は、本発明装置の一例を側面から示す機器系統図
、第2図は、本発明装置のうち水分測定部の拡大斜視図
、第3図は、第2図におけるレベル調節台座の一部を拡
大して示す平面図である。 1・・・検知器    2・・・搬送ベルト5・・・水
分測定部  6・・・枠組み7・・・カバー    8
・・・レベル調節台座9・・・ローラー   10・・
・ガイド支柱11・・・均し具   12・・・非接触
近赤外線水分計 13・・・パワーシリンダー
Fig. 1 is an equipment system diagram showing an example of the device of the present invention from the side, Fig. 2 is an enlarged perspective view of the moisture measuring section of the device of the present invention, and Fig. 3 is an example of the level adjustment pedestal in Fig. 2. It is a top view which expands and shows a part. 1...Detector 2...Transport belt 5...Moisture measuring section 6...Framework 7...Cover 8
... Level adjustment pedestal 9 ... Roller 10 ...
・Guide post 11...Leveling tool 12...Non-contact near-infrared moisture meter 13...Power cylinder

Claims (1)

【特許請求の範囲】 1 搬送装置により移送されつつある粉粒体の水分を測
定する装置において、搬送装置上における移送粉粒体の
重量または嵩高さを検出する検知器と、その検知器から
の検出信号を受けた制御器の指令により、前記粉粒体の
重量または嵩高さに対応して上下動するレベル調節台座
とを含み、更に、該レベル調節台座には搬送装置上の粉
粒体表面を掻きならす均し具と粉粒体の水分を測定する
非接触近赤外線水分計とが固設されてなることを特徴と
する粉粒体の水分測定装置。 2 搬送装置により移送される粉粒体の水分を測定する
に当り、搬送装置上における移送中の粉粒体重量又は嵩
高さを検出し、その検出信号により、粉粒体を該搬送装
置上で掻きならす均し具の高さ位置と粉粒体の水分を測
定するべく配置された非接触近赤外線水分計の高さ位置
とを同時にレベル制御して、該非接触近赤外線水分計と
掻きならされた粉粒体表面との距離を一定に維持するよ
うに制御することを特徴とする粉粒体の水分測定方法。
[Scope of Claims] 1. A device for measuring the moisture content of powder or granular material being transferred by a conveying device, which includes a detector for detecting the weight or bulk of the transferred powder or granular material on the conveying device, and a level adjustment pedestal that moves up and down according to the weight or bulk of the powder or granular material according to a command from a controller that receives a detection signal; A moisture measuring device for powder and granular material, characterized in that a leveling tool for leveling the powder and a non-contact near-infrared moisture meter for measuring the moisture in the powder and granular material are fixedly installed. 2. When measuring the moisture content of powder or granules transferred by a transport device, the weight or bulk of the powder during transfer on the transport device is detected, and the detection signal is used to transfer the powder or granules onto the transport device. The height position of the leveling tool for leveling and the height position of the non-contact near-infrared moisture meter placed to measure the moisture content of powder and granules are simultaneously level-controlled, and the level of the leveling tool and the level of the non-contact near-infrared moisture meter are adjusted. A method for measuring the moisture content of a powder or granule material, characterized by controlling the distance to the surface of the powder or granule material to be maintained constant.
JP12588684A 1984-06-19 1984-06-19 Device and method for measuring water of granule Pending JPS614946A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP12588684A JPS614946A (en) 1984-06-19 1984-06-19 Device and method for measuring water of granule

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP12588684A JPS614946A (en) 1984-06-19 1984-06-19 Device and method for measuring water of granule

Publications (1)

Publication Number Publication Date
JPS614946A true JPS614946A (en) 1986-01-10

Family

ID=14921352

Family Applications (1)

Application Number Title Priority Date Filing Date
JP12588684A Pending JPS614946A (en) 1984-06-19 1984-06-19 Device and method for measuring water of granule

Country Status (1)

Country Link
JP (1) JPS614946A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5410154A (en) * 1991-11-11 1995-04-25 Broicher; Heribert F. Device for detecting quality alterations in bulk goods transported on moving belt conveyors

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5410154A (en) * 1991-11-11 1995-04-25 Broicher; Heribert F. Device for detecting quality alterations in bulk goods transported on moving belt conveyors

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