Athena Technologies 16C instruction manual Applications for On/Off Control

Page 44

Glossary

input failure, or a heater or load failure.

Loop Break Time - the time interval from when the controller detects a loop break condition and the initiation of the failsafe state.

Lowest Reading - records the lowest process value read by the controller. May be reset to zero by using the Raise or Lower arrow keys.

Lower Setpoint Limit - prohibits users from adjusting the setpoint lower than the selected value.

Manual Reset - an adjustment that moves the Proportional Band up or down by a fixed percentage so that more or less power is applied at set- point. It is used to eliminate offset error.

On/Off Output Type - In a heating application, the controller applies 100% output power if the process temperature is below the setpoint and 0% at the setpoint. For a cooling application, the controller applies 100% output power if the process temperature is above the setpoint and 0% output power at the setpoint. There are only two output states: fully on and fully off.

Applications for On/Off Control:

1.When temperature oscillation is acceptable.

2.When constant cycling of mechanical devices is prohibited (Compressors, Blowers, etc.)

3.Under-powered processes

Output Low Limit % - Prohibits the controller’s output from going below the specified percentage.

Output High Limit % - Prohibits the controller’s output from going above the specified percentage.

PID Output Type (Proportional - Integral - Derivative) - The controller modulates output power by adjusting the output power percentage within a proportional band. Power is proportionally reduced as the process temperature gets closer to the setpoint temperature. PID control helps reduce overshoot on start-up, enhances stability, and compensates for process lag. The PID parameters are automatically calculated for a par- ticular application during the autotune procedure.

Applications for PID Control:

1.Where process temperature lags exist

2.When load changes are present

3.When overshoot is prohibited

4.When very accurate control is required

Proportional Band - the band (expressed in degrees of temperature) in which the controller modulates its power percentage.

Temperature Lag - The product of thermal resistance and thermal capac- ity. Also defined as delay of the transmission of heat from the controlled element to the sensor caused by thermal mass of the process material and/or process container, or the distance between the control element and the sensor.

Upper Setpoint Limit - prohibits users from adjusting the setpoint higher than the selected value.

40

Image 44
Contents 16C Precautions Features IntroductionSafety Warning Contents Installation Dimensions MountingWiring Contact IdentificationMake sure that you are using Appropriate thermocouple RTDs. Connect 2-wire RTDsWire, if necessary, to minimize Lead resistance. For long runs Wire RTDs should be usedOutput Types A 120/240 Vac relay, but normally closed output 2 onlyMenu Access Key Mode/Enter KeyLower Key Raise KeyPower On Security Level, Menu System, and Operating ModeSecurity Levels and Access Restrictions Security LevelsOperating Modes ManualBeen installed. Pressing the Menu Access key indexes Menu System OverviewMenu System Menu System OverviewChart of Series 16C Menu System Security Levels On Next See options manual for parameter selections Menus and Parameter DescriptionsInput Menu Display Parameter SelectionJMPØ2 Display Parameter Display MenuOutput Menu Output Type Recommended Setting seconds Output Menu Control MenuOn/Off Output Type Parameter SelectionDeviation Alarm Setpoint. High process alarmBelow alarm setting Alarm Output Type Eter should be set to which will disable it Autotune Damping Menu Recipe Ramp/ Soak MenuPower Fail Resume Supervisor Menu Calibration Menu Options MenuAutotuning To place the controller in Autotune modeAutotuning Procedure Diagram Manual Tuning BandNumber is the correct Derivative Time SecondsDisplay Problem Actions Error CodesPossible error codes are Technical Specifications Platinum 2- and 3-wire, 100 ohms at ThermocoupleMaximum lead resistance 100 ohms For rated accuracyOrdering Codes Model Input Calibration TypeRTD Calibration Values Quick-Helps Press and hold For 3 sec + PV + Warranty Repairs Two-Year Limited WarrantyOther than those expressly stated herein, There are no BUYER’S Remedy is Limited to Either i Repair orUnit Repairs 250 Vpk 20 mA RequirementsFuse rating=100 mA Glossary Applications for On/Off Control Quick Setup Instructions Series 16C Temperature Controller Configured Parameters Reference Data Page For Toll-FreeTechnical Assistance in the USA Call Toll Free

16C specifications

Athena Technologies is making waves in the aerospace and defense industries with its latest innovation, the Athena Technologies 16C. This advanced system is designed to provide detailed and accurate guidance, navigation, and control for unmanned aerial vehicles (UAVs) and other applications requiring precise positioning and situational awareness.

At the core of the Athena Technologies 16C is its state-of-the-art inertial navigation system. Utilizing a combination of accelerometers, gyroscopes, and advanced sensor fusion techniques, the 16C achieves exceptional accuracy even in challenging environments where GPS signals may be weak or nonexistent. This capability is crucial for military operations and search-and-rescue missions where precision is paramount.

One of the standout features of the 16C is its integrated multi-sensor environment, which includes not only traditional inertial sensors but also GPS, magnetometers, and barometric altimeters. This robust multi-sensor fusion system leverages cutting-edge algorithms to minimize errors, enhance reliability, and provide continuous position tracking regardless of external conditions. The flexibility of the sensor suite allows for easy integration into various platforms, whether fixed-wing, rotary-wing, or even ground-based vehicles.

Furthermore, Athena Technologies has prioritized ease of use with the 16C. The system comes equipped with intuitive software that simplifies mission planning and vehicle control. Users can easily adjust parameters, visualize data, and receive real-time feedback during operations, enhancing overall mission effectiveness. The user interface is designed to be user-friendly, catering to both experienced operators and newcomers to UAV technology.

Another notable characteristic of the Athena Technologies 16C is its rugged design, built to withstand harsh environmental conditions. This durability makes it suitable for deployment in diverse terrains and climates, ensuring reliable performance under even the most demanding situations. The system is lightweight yet robust, contributing to the overall efficiency and performance of unmanned systems.

Lastly, Athena Technologies emphasizes safety and security with the 16C. Advanced encryption methods safeguard the data transmitted between the system and ground control, ensuring that sensitive information remains protected from potential cyber threats. This commitment to security is crucial for military applications where data integrity is non-negotiable.

In conclusion, the Athena Technologies 16C stands out as a game-changing solution in the fields of guidance, navigation, and control. Its advanced multi-sensor capabilities, user-friendly interface, rugged design, and emphasis on security make it an essential tool for a wide range of applications, from military operations to commercial UAV usage. As technology continues to evolve, the 16C is poised to play a significant role in shaping the future of unmanned systems.