Development of 2 N dead-weight type force standard machine

•New 2 N DWM was developed to extend calibration force down to 10 mN in NMIJ.•A balancing mechanism was used to cancel out gravitational force to loading frame.•An efficient binary weight stack was incorporated into the 2 N DWM.•The relative expanded uncertainties of the realized forces are evaluate...

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Veröffentlicht in:Measurement : journal of the International Measurement Confederation 2020-03, Vol.154, p.107463, Article 107463
Hauptverfasser: Zhu, Junfang, Hayashi, Toshiyuki, Nishino, Atsuhiro, Ogushi, Koji
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container_start_page 107463
container_title Measurement : journal of the International Measurement Confederation
container_volume 154
creator Zhu, Junfang
Hayashi, Toshiyuki
Nishino, Atsuhiro
Ogushi, Koji
description •New 2 N DWM was developed to extend calibration force down to 10 mN in NMIJ.•A balancing mechanism was used to cancel out gravitational force to loading frame.•An efficient binary weight stack was incorporated into the 2 N DWM.•The relative expanded uncertainties of the realized forces are evaluated.•Repeatability is evaluated in the range of 100 mN–2 N using a 2 N force transducer. A 2 N dead-weight type force standard machine (2 N DWM) equipped with a balancing mechanism to cancel out the gravitational force acting on the loading frame is developed by National Metrology Institute of Japan (NMIJ), AIST. Removable standard weights are selected in accordance with the calibration force steps and placed onto a weight-loading mechanism. The minimum force that can be realized is 10 mN. The relative expanded uncertainties of the realized forces with coverage factor k = 2 are evaluated as 5.8 × 10−4 and 2.9 × 10−5 at force steps of 10 mN and 200 mN, respectively. Repeatability is evaluated in the range of 100 mN–2 N with the use of a 2 N force transducer. With the development of this standard machine, the force standards disseminated from NMIJ extend down to 10 mN. We believe that our work can further contribute to developments in force standards.
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A 2 N dead-weight type force standard machine (2 N DWM) equipped with a balancing mechanism to cancel out the gravitational force acting on the loading frame is developed by National Metrology Institute of Japan (NMIJ), AIST. Removable standard weights are selected in accordance with the calibration force steps and placed onto a weight-loading mechanism. The minimum force that can be realized is 10 mN. The relative expanded uncertainties of the realized forces with coverage factor k = 2 are evaluated as 5.8 × 10−4 and 2.9 × 10−5 at force steps of 10 mN and 200 mN, respectively. Repeatability is evaluated in the range of 100 mN–2 N with the use of a 2 N force transducer. With the development of this standard machine, the force standards disseminated from NMIJ extend down to 10 mN. 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subjects Balancing mechanism
Binary weight loading mechanism
Calibration
Dead-weight type force standard machine
Force
Force transducer
Gravitational waves
Repeatability
Small force
Uncertainty
Weight
title Development of 2 N dead-weight type force standard machine
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