FLOWABILITY MEASUREMENT METHOD, FLOWABILITY MEASUREMENT APPARATUS, AND FLOWABILITY MEASUREMENT SYSTEM

To easily measure the flowability of a substance while reducing labor.SOLUTION: A flowability measurement method according to the present invention comprises: installing a sensor 20 inside a rotatable container 12 installed in a facility so that the sensor rotates as the container 12 rotates: feedin...

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Hauptverfasser: MORITA HIROSHI, KOMADA KENJI, NITTA MINORU, SONOI MAGOFUMI, YAMADA MASAHIRO, SUZUKI YOSHIYUKI, SUMI MANABU, BABA ASAYUKI, MORI AKIHITO, URANO SHINJI, YANAGIDA JUNICHI, HIROFUJI YOSHIKAZU, KISHIMOTO GOTA
Format: Patent
Sprache:eng ; jpn
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Zusammenfassung:To easily measure the flowability of a substance while reducing labor.SOLUTION: A flowability measurement method according to the present invention comprises: installing a sensor 20 inside a rotatable container 12 installed in a facility so that the sensor rotates as the container 12 rotates: feeding a substance M into the container 12; rotating the container 12 to cause the sensor 20 to pass through the substance M, and measuring, by the sensor 20, pressure received from the substance M at that time of the passing through; and calculating flowability of the substance M based on the pressure measured by the sensor 20. Thereby, it is possible to calculate the flowability of the substance M without taking the substance M into and out of the container 12, and it is also possible to continuously grasp the flowability of the substance M while continuously rotating the container 12 as necessary. Therefore, it is possible to greatly reduce labor, and to easily measure the flowability of the substance M while enhancing work efficiency.SELECTED DRAWING: Figure 2 【課題】物質の流動性を、労力を軽減しながら容易に計測する。【解決手段】本流動性計測方法は、施設内に設置された回転可能な容器12の内部に、容器12の回転に伴って回動するようにセンサ20を設置し、容器12内に物質Mを投入し、容器12を回転させて物質M内にセンサ20を通過させ、そのときに物質Mから受けた圧力をセンサ20により計測し、センサ20により計測された圧力に基づいて、物質Mの流動性を算出する。これにより、物質Mを容器12から出し入れする必要なく、物質Mの流動性を算出することができ、しかも、必要に応じて、容器12を継続的に回転させながら連続して物質Mの流動性を把握することができる。このため、労力を大幅に軽減することが可能となり、作業効率を向上させつつ、容易に物質Mの流動性を計測することができる。【選択図】図2