JPH0363554A - Measuring instrument for small-piece assembly sample - Google Patents

Measuring instrument for small-piece assembly sample

Info

Publication number
JPH0363554A
JPH0363554A JP19981189A JP19981189A JPH0363554A JP H0363554 A JPH0363554 A JP H0363554A JP 19981189 A JP19981189 A JP 19981189A JP 19981189 A JP19981189 A JP 19981189A JP H0363554 A JPH0363554 A JP H0363554A
Authority
JP
Japan
Prior art keywords
sample
conveyor
trough
small piece
piece aggregate
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP19981189A
Other languages
Japanese (ja)
Other versions
JPH0583859B2 (en
Inventor
Fumio Tomita
富田 文雄
Susumu Masuda
進 増田
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.)
Kawasaki Kiko Co Ltd
Original Assignee
Kawasaki Kiko 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 Kawasaki Kiko Co Ltd filed Critical Kawasaki Kiko Co Ltd
Priority to JP19981189A priority Critical patent/JPH0363554A/en
Publication of JPH0363554A publication Critical patent/JPH0363554A/en
Publication of JPH0583859B2 publication Critical patent/JPH0583859B2/ja
Granted legal-status Critical Current

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  • Investigating Or Analysing Materials By Optical Means (AREA)
  • Investigating Or Analyzing Materials Using Thermal Means (AREA)
  • Sampling And Sample Adjustment (AREA)

Abstract

PURPOSE:To prevent the sample from sticking on a conveyor by heating the contact part between the conveyor and sample. CONSTITUTION:The high-water small-piece assembly sample is supplied onto a trough 2 from a sample supply opening 16 and conveyed by the conveyor 1 and a microwave from a microwave oscillator 11 and a transmitting antenna 9 is passed through the sample and received by a receiving antenna 10 and a microwave and a signal from a load cell 13 are processed to calculate the water content of the sample. During the measurement, the trough 2 is swing by a vibrator 3. The conveyance surface 2' of the trough 2 is heated by a far infrared-ray heater 14 above 50 deg.C. Consequently, the sample is prevented from sticking on the conveyor owing to the water in the sample.

Description

【発明の詳細な説明】 〔産業上の利用分野〕 本発明は、コンベヤにて小片集合体試料を搬送しつつ該
試料の特性を測定する装置に関するものである。
DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to an apparatus for measuring the characteristics of a small piece aggregate sample while conveying the sample on a conveyor.

〔従来の技術〕[Conventional technology]

コンベヤにて小片集合体試料を搬送しつつ該試料の重量
、色、形状、温度、水分量、含有成分その他の特性を測
定する装置は従来より存在する。
BACKGROUND ART Conventionally, there have been devices that measure the weight, color, shape, temperature, moisture content, contained components, and other characteristics of a small piece aggregate sample while conveying the sample on a conveyor.

このような装置は例えば、本出願人が過去に出願した実
公昭62−44898号公報や特開昭63−13022
9号明細書に見られる。前者はコンベヤ上の試料の重量
を測定することによってコンベヤの排出量を一定にすべ
くコンベヤの搬送速度を制御し、後者はコンベヤ上の試
料の重量を測定するとともに試料によるマイクロ波の減
衰量を測定して試料の含水率を求めようとするものであ
る。
Such a device is disclosed in, for example, Japanese Utility Model Publication No. 44898/1983 and Japanese Patent Application Laid-open No. 13022/1983, which the present applicant previously filed.
This can be seen in the Specification No. 9. The former measures the weight of the sample on the conveyor to control the transport speed of the conveyor to keep the amount of discharge from the conveyor constant, while the latter measures the weight of the sample on the conveyor and controls the attenuation of microwaves by the sample. The purpose is to measure and determine the moisture content of a sample.

〔発明が解決しようとする課題〕[Problem to be solved by the invention]

前記のような装置において、試料が高水分であったり薄
片状であると、試料がコンベヤに付着して測定誤差の原
因となりやすい。よって、本願は試料がコンベヤに付着
するのを防止して測定精度を向上した小片集合体試料の
測定装置を提供することを目的とする。
In the above-mentioned apparatus, if the sample has high moisture content or is flaky, the sample tends to adhere to the conveyor and cause measurement errors. Therefore, an object of the present application is to provide a measuring device for a small piece aggregate sample, which improves measurement accuracy by preventing the sample from adhering to a conveyor.

〔課題を解決するための手段〕[Means to solve the problem]

よって、本願の小片集合体試料の測定装置は以下の構成
を持つ。
Therefore, the apparatus for measuring a small piece aggregate sample of the present application has the following configuration.

コンベヤにて小片集合体試料を搬送しつつ該試料の特性
を測定する装置において、コンベヤと試料の接触部を加
熱してなる。
In an apparatus for measuring the characteristics of a small piece aggregate sample while conveying it on a conveyor, the contact portion between the conveyor and the sample is heated.

コンベヤにて小片集合体試料を搬送しつつコンベヤ上の
試料の重量を測定する装置において、コンベヤと試料の
接触部を加熱してなる。
In a device that measures the weight of a sample on a conveyor while conveying a small piece aggregate sample on a conveyor, the contact portion between the conveyor and the sample is heated.

コンベヤにて小片集合体試料を搬送しつつ該試料にマイ
クロ波を照射して試料によりマイクロ波が受ける影響を
検出し試料の水分量を測定する装置において、コンベヤ
と試料の接触部を加熱してなる。
In a device that measures the moisture content of a sample by irradiating the sample with microwaves while conveying a small piece aggregate sample on a conveyor, detecting the effect of the microwaves on the sample, and measuring the moisture content of the sample, the contact part between the conveyor and the sample is heated. Become.

なお、コンベヤをトラフとバイブレータを主体とする振
動コンベヤとすること、コンベヤと試料の接触部の加熱
をコンベヤ近辺に配設した遠赤外線放射体によって行う
こと、コンベヤをトラフとバイブレータで構威し、トラ
フに付設した電熱ヒータによりトラフと試料の接触部を
加熱すること、コンベヤをトラフとバイブレータで構成
し、トラフの搬送面を通気性とし試料側に熱風を送風す
ることによりトラフと試料の接触部を加熱することが可
能である。
In addition, the conveyor may be a vibrating conveyor mainly consisting of a trough and a vibrator, the contact area between the conveyor and the sample may be heated by a far-infrared radiator placed near the conveyor, and the conveyor may be composed of a trough and a vibrator. The contact area between the trough and the sample is heated by an electric heater attached to the trough, the conveyor is composed of a trough and a vibrator, and the conveyance surface of the trough is made breathable and hot air is blown toward the sample side. It is possible to heat the

〔作用〕[Effect]

コンベヤに小片集合体試料が付着する場合、試料とコン
ベヤとの間の水分が接着材の役割を持つことがある。こ
の場合、コンベヤと試料の接触部を加熱すれば、この水
分が気体となり体積を増大し空気中に拡散する際に付着
力が弱まり、試料が剥離しやすくなる。また、静電気そ
の他の原因による付着に対しても、前記加熱により試料
を変形させれば剥離しやすくなる。
When a small piece aggregate sample adheres to a conveyor, moisture between the sample and the conveyor may act as an adhesive. In this case, if the contact area between the conveyor and the sample is heated, this water becomes a gas, increases in volume, and diffuses into the air, weakening the adhesive force and making the sample easier to peel off. Furthermore, if the sample is deformed by the heating, it becomes easier to peel off adhesion caused by static electricity or other causes.

〔実施例〕〔Example〕

第1図、第2図において、lはコンベヤであって、トラ
フ2、バイブレータ3からなる。トラフ2はマイクロ波
及び遠赤外線の反射が少ない材質(例えばプラスチック
のFIFi、)で形成され、板バネ3を介して中空枠4
に支持される。パイプレーク3は、トラフ2の一端に取
りつけられ偏心軸5の回転により往復運動する駆動バネ
6と、偏心軸5を回転させるためのベベルギヤ7.7’
、−T−−タ8からなる。
In FIGS. 1 and 2, l is a conveyor, which is composed of a trough 2 and a vibrator 3. The trough 2 is made of a material that reflects little microwave and far infrared rays (for example, plastic FIFi), and is connected to the hollow frame 4 via the leaf spring 3.
Supported by The pipe rake 3 includes a drive spring 6 attached to one end of the trough 2 and reciprocated by the rotation of the eccentric shaft 5, and a bevel gear 7.7' for rotating the eccentric shaft 5.
, -T--ta 8.

9.10はトラフ2を挟んで配置されたマイクロ波の送
受信アンテナであり、送信アンテナ9には発振器11が
接続され、受信アンテナ10には受振器12が接続され
る。13はロードセルであり、コンベヤ1全体の重量を
検出する。14は遠赤外線ヒータであり、トラフの搬送
面2′に下方から指向し且つマイクロ波の伝播に影響を
及ぼしにくい位置に配設されている。
Reference numeral 9.10 denotes a microwave transmitting/receiving antenna placed across the trough 2. The transmitting antenna 9 is connected to an oscillator 11, and the receiving antenna 10 is connected to a receiver 12. A load cell 13 detects the weight of the conveyor 1 as a whole. Reference numeral 14 denotes a far-infrared heater, which is disposed at a position that faces the conveying surface 2' of the trough from below and does not easily affect the propagation of microwaves.

15は制御部であり、パイプレーク3、発振器11、遠
赤外線ヒータ14を作動あるいは停止し、また、受振器
12、ロードセル13の検出データを取り込み試料の含
水率を算出する。16は試料の供給口である。
A control section 15 operates or stops the pipe lake 3, the oscillator 11, and the far-infrared heater 14, and also takes in detection data from the geophone 12 and load cell 13 to calculate the water content of the sample. 16 is a sample supply port.

本実施例装置による試料の含水率の測定は次のように行
う。まず、制御部15は発振器11、パイプレーク3、
マイクロ波の発振器11.遠赤外線ヒータ14を作動す
る。すると、マイクロ波は送受信アンテナ9.10間を
伝播し、トラフ2は第1図に二点鎖線及び矢印で示すよ
うに振動し、またトラフの搬送面2′は50度以上に加
熱される。さらに制御部15は、その時の受振器12、
ロードセル13の検出データを平均してマイクロ波エネ
ルギーとコンベヤ重量の初期値MOlWOを記憶する。
The moisture content of a sample is measured using the apparatus of this embodiment as follows. First, the control unit 15 includes the oscillator 11, the pipe lake 3,
Microwave oscillator 11. The far infrared heater 14 is activated. Then, the microwave propagates between the transmitting and receiving antennas 9 and 10, the trough 2 vibrates as shown by the two-dot chain line and arrow in FIG. 1, and the conveying surface 2' of the trough is heated to 50 degrees or more. Furthermore, the control unit 15 controls the geophone 12 at that time,
The detection data of the load cells 13 are averaged and the initial value MOLWO of microwave energy and conveyor weight is stored.

次に、試料の供給口16からトラフ2上に高水分小片集
合体試料を供給する。試料としては、例えば荒茶製造工
程中の茶葉、各種植物の生葉、砂利等があげられる。そ
して、コンベヤ1により試料を搬送しつつ、制御部15
は、例えば50個/秒の間隔で1分間、受振器12、ロ
ードセル13の検出データを累積し、その平均を検出値
Ml、Wlとする。マイクロ波エネルギーの検出値Ml
はマイクロ波が試料により減衰されるため初期値MOよ
り小さい値となり、一方、コンベヤ重量の検出値Wlは
試料の重量分、初期値WOよりも大きい値となる。
Next, a high moisture particle aggregate sample is supplied onto the trough 2 from the sample supply port 16. Examples of the sample include tea leaves in the process of producing crude tea, fresh leaves of various plants, gravel, and the like. Then, while the sample is being conveyed by the conveyor 1, the controller 15
For example, the detection data of the geophone 12 and the load cell 13 are accumulated for one minute at an interval of 50 pieces/second, and the average thereof is set as the detection values Ml and Wl. Microwave energy detection value Ml
is a value smaller than the initial value MO because the microwave is attenuated by the sample, while the detected value Wl of the conveyor weight is larger than the initial value WO due to the weight of the sample.

そして、制御部15は、前記1分間にコンベヤ1により
搬送された試料の含水率Gを次式によって算出する。
Then, the control unit 15 calculates the moisture content G of the sample conveyed by the conveyor 1 during the one minute period using the following equation.

G=a* (MO−Ml)/ (Wl−WO)+b(た
だし、a、bは実験によって試料毎に求まる定数である
) 算出された含水率Gは表示され、あるいは他の産業機械
の制御に利用される。
G = a * (MO - Ml) / (Wl - WO) + b (However, a and b are constants determined for each sample through experiment) The calculated moisture content G is displayed or controlled by other industrial machines. used for.

なお、高水分小片集合体試料は、それ自身の水分を介し
てトラフの搬送面2′に付着しやすい。
Note that the high moisture particle aggregate sample tends to adhere to the conveying surface 2' of the trough through its own moisture.

しかし、本装置ではトラフと試料の接触部は遠赤外線ヒ
ータ14により加熱されているため、該接触部に存在す
る水分は加熱されて気体に変わり、体積を増大して拡散
する際に付着力が弱まり試料はトラフから離れ易くなる
。また、静電気その他による試料の付着に対しても加熱
により試料が変形すれば剥離しやすくなる。仮に、前述
のように初期値MOlWOを求めた後に、試料の一部が
トラフ2に付着してしまうと、この試料の重量、あるい
は含水量が検出値Ml、Wlに影響を与え測定誤差を生
じてしまう。また、−度試料が付着すれば、それが抵抗
となって試料の搬送が阻害され更に他の試料を付着させ
て、測定を全く不可能にしてしまう恐れもある。しかし
、本実施例装置によればトラフに試料が付着する可能性
が減るため、測定精度が向上する。
However, in this device, the contact area between the trough and the sample is heated by the far-infrared heater 14, so the moisture present in the contact area is heated and turns into a gas, which increases the volume and reduces the adhesive force when it diffuses. The weakened sample becomes easier to separate from the trough. In addition, even if the sample adheres due to static electricity or other factors, if the sample is deformed by heating, it becomes easy to peel off. If part of the sample were to adhere to the trough 2 after the initial value MOLWO was determined as described above, the weight or water content of this sample would affect the detected values Ml and Wl, causing measurement errors. I end up. Furthermore, if the -degree sample adheres, it will act as resistance, inhibiting the transport of the sample, and may cause other samples to adhere, making measurement completely impossible. However, according to the apparatus of this embodiment, the possibility of the sample adhering to the trough is reduced, so the measurement accuracy is improved.

なお、試料を必要以上に加熱すると試料の含水量や成分
を変えてしまう恐れがあるので、試料とコンベヤの接触
部以外の加熱はできる限り避けたい。このため、本実施
例では、遠赤外線ヒータ14をトラフ2の下方に配置し
ている。また、本実施例では、コンベヤとしていわゆる
振動コンベヤを使用したため、搬送中の高水分小片集合
体試料の密度が均一になりやすく、また試料の付着が生
じにくいため測定精度を向上できる。
Note that heating the sample more than necessary may change the moisture content and components of the sample, so it is best to avoid heating any area other than the contact area between the sample and the conveyor. For this reason, in this embodiment, the far-infrared heater 14 is arranged below the trough 2. In addition, in this example, since a so-called vibrating conveyor is used as the conveyor, the density of the high-moisture particle aggregate sample being transported tends to be uniform, and since the sample is less likely to adhere, measurement accuracy can be improved.

次に第3図乃至第5図に基づいて他の実施例を簡単に説
明する。本実施例は、コンベヤと試料との接触部の加熱
を電熱ヒータで行うものである。
Next, other embodiments will be briefly described based on FIGS. 3 to 5. In this embodiment, the contact portion between the conveyor and the sample is heated by an electric heater.

17は前記の実施例におけるトラフ2に代替されるトラ
フで、内トラフ18と外トラフ19の間にニクロム線2
0が張り巡らされている。これに電圧を加えれば、ニク
ロム線20は発熱し、トラフ17上の試料の接触面を加
熱する。このようなトラフ17を用いれば、加熱手段の
ための設置空間をほとんど必要としないので、装置をコ
ンパクトにできる。ただし、本装置により試料の電気的
特性を測定するためには、ニクロム線の配置を工夫する
必要がある。
A trough 17 is a substitute for the trough 2 in the above embodiment, and a nichrome wire 2 is inserted between the inner trough 18 and the outer trough 19.
There are 0's all over the place. When a voltage is applied to this, the nichrome wire 20 generates heat and heats the contact surface of the sample on the trough 17. If such a trough 17 is used, almost no installation space is required for the heating means, so the apparatus can be made compact. However, in order to measure the electrical characteristics of a sample using this device, it is necessary to arrange the nichrome wires carefully.

次に第6図、第7図に基づいて他の実施例を籠単に説明
する。本実施例は、トラフの搬送面を通気性とし試料側
に熱風を送風することによりトラフと試料の接触部を加
熱するものである。21はやはり前記の実施例における
トラフ2に代替されるトラフで、その底面に多数の通気
孔22が穿設され、その下方に送風室23が装着される
。送風室23には柔軟材料で形成された熱風供給管24
が接続され、該管24から送風室23内に供給された熱
風は通気孔22から上方へ通気する。このようなトラフ
21を用いれば試料はより付着しにくくなる。また、ト
ラフ21の材質を選べば試料の電気的性質の測定が可能
である。
Next, other embodiments will be briefly described based on FIGS. 6 and 7. In this embodiment, the conveying surface of the trough is made breathable and hot air is blown toward the sample to heat the contact area between the trough and the sample. The trough 21 is also a substitute for the trough 2 in the embodiment described above, and a number of ventilation holes 22 are bored in the bottom of the trough, and a ventilation chamber 23 is installed below the trough. A hot air supply pipe 24 made of a flexible material is provided in the ventilation chamber 23.
The hot air supplied from the pipe 24 into the ventilation chamber 23 is vented upward through the ventilation hole 22. If such a trough 21 is used, the sample will be more difficult to adhere to. Furthermore, by selecting the material of the trough 21, it is possible to measure the electrical properties of the sample.

第8図はコンベヤとして、いわゆるベルトコンベヤ25
を利用した実施例である。ベルトコンベヤを利用するこ
とにより、刷毛26の併用による試料の付着防止が可能
になる。27は遠赤外線ヒータである。
Figure 8 shows a so-called belt conveyor 25 as a conveyor.
This is an example using . By using the belt conveyor, it is possible to prevent the sample from adhering by using the brush 26 in combination. 27 is a far infrared heater.

なお、本願装置における測定器、部品、その材質、配置
等は、試料の性質、量や測定すべき特性その他の条件に
よって、種々選択される。
Note that the measuring instruments, parts, their materials, arrangement, etc. in the apparatus of the present invention are variously selected depending on the nature and quantity of the sample, the characteristics to be measured, and other conditions.

[発明の効果] 以上のように、本願の小片集合体試料の測定装置によれ
ば、試料がコンベヤに付着するのを防止して測定精度を
向上することが可能である。
[Effects of the Invention] As described above, according to the apparatus for measuring a small piece aggregate sample of the present application, it is possible to prevent the sample from adhering to the conveyor and improve measurement accuracy.

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

第1図乃至第2図は本発明の実施例を示し、第1図は正
面図、第2図は側面図である。第3図乃至第5図は他の
実施例を示し、第3図は正面図、第4図は側面図、第5
図は平面図である。第6図乃至第7図は他の実施例を示
し、第6図は正面断面図、第7図は側断面図である。第
8図は他の実施例を示す正面図である。 1・・・コンベヤ 2・・・トラフ 3・・・バイブレ
ータ9・・・送信アンテナ 10・・・受信アンテナ 
11・・・マイクロ波発振器 12・・・マイクロ波受
信器 13・・・ロードセル 14・・・遠赤外線ヒー
タ 17・・・トラフ 20・・・ニクロム線 21・
・・トラフ 22・・・通気孔 23・・・送風室 2
4・・・熱風供給管 遠赤外線ヒータ 25・・・ベルトコンベヤ
1 and 2 show an embodiment of the present invention, with FIG. 1 being a front view and FIG. 2 being a side view. Figures 3 to 5 show other embodiments, with Figure 3 being a front view, Figure 4 being a side view, and Figure 5 being a side view.
The figure is a plan view. 6 and 7 show other embodiments, with FIG. 6 being a front sectional view and FIG. 7 being a side sectional view. FIG. 8 is a front view showing another embodiment. 1... Conveyor 2... Trough 3... Vibrator 9... Transmitting antenna 10... Receiving antenna
11... Microwave oscillator 12... Microwave receiver 13... Load cell 14... Far infrared heater 17... Trough 20... Nichrome wire 21.
...Trough 22...Vent hole 23...Blower chamber 2
4... Hot air supply pipe far infrared heater 25... Belt conveyor

Claims (7)

【特許請求の範囲】[Claims] (1)コンベヤにて小片集合体試料を搬送しつつ該試料
の特性を測定する装置において、コンベヤと試料の接触
部を加熱してなる、小片集合体試料の測定装置。
(1) A device for measuring the characteristics of a small piece aggregate sample while conveying the sample on a conveyor, which heats the contact area between the conveyor and the sample.
(2)コンベヤにて小片集合体試料を搬送しつつコンベ
ヤ上の試料の重量を測定する装置において、コンベヤと
試料の接触部を加熱してなる、小片集合体試料の測定装
置。
(2) A measuring device for measuring a small piece aggregate sample, which measures the weight of the sample on the conveyor while conveying the small piece aggregate sample by heating the contact area between the conveyor and the sample.
(3)コンベヤにて小片集合体試料を搬送しつつ該試料
にマイクロ波を照射して試料によりマイクロ波が受ける
影響を検出し試料の水分量を測定する装置において、コ
ンベヤと試料の接触部を加熱してなる、小片集合体試料
の測定装置。
(3) In a device that measures the moisture content of a sample by irradiating the sample with microwaves while conveying a small piece aggregate sample on a conveyor and detecting the influence of the microwaves on the sample, the contact part between the conveyor and the sample is A measuring device for small piece aggregate samples that are heated.
(4)コンベヤをトラフとバイブレータを主体とする振
動コンベヤとした、請求項(1)、(2)および(3)
記載の小片集合体試料の測定装置。
(4) Claims (1), (2) and (3) in which the conveyor is a vibrating conveyor mainly consisting of a trough and a vibrator.
A measuring device for the small piece aggregate sample described above.
(5)コンベヤと試料の接触部の加熱をコンベヤ近辺に
配設した遠赤外線放射体によって行う、請求項(1)、
(2)、(3)および(4)記載の小片集合体試料の測
定装置。
(5) Claim (1), wherein the contact portion between the conveyor and the sample is heated by a far-infrared radiator disposed near the conveyor.
A measuring device for a small piece aggregate sample according to (2), (3) and (4).
(6)コンベヤをトラフとバイブレータで構成し、トラ
フに付設した電熱ヒータによりトラフと試料の接触部を
加熱する、請求項(1)、(2)、(3)、および(4
)記載の小片集合体試料の測定装置。
(6) Claims (1), (2), (3), and (4) wherein the conveyor comprises a trough and a vibrator, and the contact portion between the trough and the sample is heated by an electric heater attached to the trough.
) A measuring device for the small piece aggregate sample described in ).
(7)コンベヤをトラフとバイブレータで構成し、トラ
フの搬送面を通気性とし試料側に熱風を送風することに
よりトラフと試料の接触部を加熱する、請求項(1)、
(2)、(3)および(4)記載の小片集合体試料の測
定装置。
(7) Claim (1), wherein the conveyor comprises a trough and a vibrator, the conveying surface of the trough is made breathable, and hot air is blown toward the sample to heat the contact area between the trough and the sample.
A measuring device for a small piece aggregate sample according to (2), (3) and (4).
JP19981189A 1989-08-01 1989-08-01 Measuring instrument for small-piece assembly sample Granted JPH0363554A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP19981189A JPH0363554A (en) 1989-08-01 1989-08-01 Measuring instrument for small-piece assembly sample

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP19981189A JPH0363554A (en) 1989-08-01 1989-08-01 Measuring instrument for small-piece assembly sample

Publications (2)

Publication Number Publication Date
JPH0363554A true JPH0363554A (en) 1991-03-19
JPH0583859B2 JPH0583859B2 (en) 1993-11-29

Family

ID=16414033

Family Applications (1)

Application Number Title Priority Date Filing Date
JP19981189A Granted JPH0363554A (en) 1989-08-01 1989-08-01 Measuring instrument for small-piece assembly sample

Country Status (1)

Country Link
JP (1) JPH0363554A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106959256A (en) * 2017-05-19 2017-07-18 四川莱源科技有限公司 The moisture detecting method of accuracy of detection can be improved

Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS56167239U (en) * 1980-05-16 1981-12-10
JPS57100339A (en) * 1980-12-15 1982-06-22 Hitachi Ltd Moisture detecting apparatus having temperature sensor
JPS6161452U (en) * 1984-09-28 1986-04-25

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS56167239U (en) * 1980-05-16 1981-12-10
JPS57100339A (en) * 1980-12-15 1982-06-22 Hitachi Ltd Moisture detecting apparatus having temperature sensor
JPS6161452U (en) * 1984-09-28 1986-04-25

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106959256A (en) * 2017-05-19 2017-07-18 四川莱源科技有限公司 The moisture detecting method of accuracy of detection can be improved

Also Published As

Publication number Publication date
JPH0583859B2 (en) 1993-11-29

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