Articles by Riverhawk Company

The Riverhawk Company has been providing strain gauge-based torquemeter technology for nearly 30 years. Originally developed under the Indikon brand before becoming part of the Riverhawk family, this proven technology has been trusted across numerous industries for decades. Today, Robert Whitney, Riverhawk's Director of Innovation, will discuss how strain gauge technology is used in modern torquemeters and address many of the common misconceptions surrounding this widely adopted and highly reliable measurement technology.
From startup transients to torsional measurement, torque can reveal machine behavior that may be difficult to capture through other measurements. But getting meaningful data depends on how that torque is measured.
Torque Meter Systems are key to monitoring your turbomachinery performance in order to maintain equipment health, guarantee max efficiency, and protect profitability.
Torque Meter Systems are key to monitoring your turbomachinery performance in order to maintain equipment health, guarantee max efficiency, and protect profitability.
Torque Meter Systems are key to monitoring your turbomachinery performance in order to maintain equipment health, guarantee max efficiency, and protect profitability.
Torque Meter Systems are key to monitoring your turbomachinery performance in order to maintain equipment health, guarantee max efficiency, and protect profitability.
Torque Meter Systems are key to monitoring your turbomachinery performance in order to maintain equipment health, guarantee max efficiency, and protect profitability.
Torque Meter Systems are key to monitoring your turbomachinery performance in order to maintain equipment health, guarantee max efficiency, and protect profitability.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.
Friction coefficient at the hub-shaft interface is critical to joint torque capacity. In a test program designed for a high-profile customer within the industry, several common but important hub-shaft joint configurations were tested to determine how friction can affect the torque capacity of these configurations. This paper outlines the performance results obtained within the test program.