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Strain gage
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Strain Gage Basic Information
- What's a Strain Gage
- Types of Strain Gages
- Self-Temperature-Compensation Gages (SELCOM Gages)
- Major Properties of KYOWA Strain Gages
- Strain gage bonding installation procedure
- Strain Gage Wiring System
- Principles of Strain Gages
- How to Select Strain Gages
- Strain Gages with Pre-attached Lead-wire Cables
- Strain Measurement
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Measurement Knowledge
- Misalignment Effect of Bonding Strain Gage
- Generating Calibration Value Based on Tip
- Resistance Change of Strain Gages
- Strain Gage Bonding Procedure
- Compensation formulas for strain gage
- Countermeasures against Failure in Initial Balance
- Influence of Insulation Resistance
- Temperature Effect on Lead Wire with 2-wire
- Compensation Methods of Temperature Effect
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Strain Gage Basic Information
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Transducers
- Transducers
- Basic information of strain gage type sensors
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Measurement Knowledge
- Sensitivity Decrease due to Cable Extension
- Equation to Calculate Centrifugal Acceleration
- Connection to Calculate Average Output Voltage
- How to Obtain Proper Rated Capacity of Load Cell
- TEDS
- Advantages of Remote-Sensing Method
- Graphs to Obtain Power or Work
- Installation of Load Cell to Hopper or Tanks
- How to Obtain Accuracy of Load Cell-Based
- Measuring Instruments
- Videos for how to use KYOWA products
- Unit Conversion Table
- Glossary
- FAQ
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Strain gage
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The ratio of the elongation to the original length is called a tensile strain and is expressed as follows:

See the lower illustration in Fig. 1. If the material receives a compressive force, it bears a compressive strain expressed as follows:

For example, if a tensile force makes a 100 mm long material elongate by 0.01 mm, the strain initiated in the material is as follows:

Based on Hooke's law, the relation between stress and the strain initiated in a material by an applied force is expressed as follows:

Stress is thus obtained by multiplying strain by the Young's modulus. When a material receives a tensile force P, it elongates in the axial direction while contracting in the transverse direction. Elongation in the axial direction is called longitudinal strain and contraction in the transverse direction, transverse strain. The absolute value of the ratio between the longitudinal strain and transverse strain is called Poisson's ratio, which is expressed as follows:

Poisson's ratio differs depending on the material.