Proteck Water Technologies

Navigation and Attitude Control Monitoring:

• Displays data related to the spacecraft's position in orbit and orientation in space.
• Controls for adjusting the attitude and orientation of the spacecraft (i.e., its spin, pitch, yaw, and roll).
• Gyroscopic data, star tracker readings, and magnetometer information may be shown here.

Propulsion System Control:

• Monitoring of the propulsion system, which includes data on fuel levels, thrust output, and the status of ion engines or chemical thrusters.
• Ability to command engine burns or adjustments to orbital trajectory.

Thermal System Monitoring:

• A visual readout of the spacecraft's temperature, both internal and external, with data from thermal sensors.
• Alerts if thermal control systems are outside normal operational ranges.

Power Systems Monitoring:

• Real-time data from the solar panels, including power generation status and battery charge levels.
• Data on power consumption and the overall health of electrical components, such as the power distribution unit (PDU) and onboard batteries.

Communication System:

• Displays the current status of communication links with ground stations.
• Transmission and reception rates, signal strength, and communication delays are visible.
• There would likely be interfaces for sending commands or receiving telemetry.

Payload Monitoring:

• Real-time data on the scientific instruments onboard, such as imaging sensors or spectrometers.
• Status of various experiments being conducted, including data storage, processing, and transmission.

Alarm and Fault Detection System:

• Alerts and notifications for any anomalies or failures within the spacecraft systems.
• The system could feature red/yellow warning lights for urgent issues and blue/green for normal operations.
• Diagnostic tools and system health checks to allow operators to troubleshoot and diagnose problems.

Flight Plan and Mission Sequencing:

• Integration with mission plans and scheduled activities.
• Capability to view and update flight plans, including adjustments to the mission trajectory, scientific observations, and system health checks.

User Interface and Controls:

• The control panel would likely include touch screens or graphical user interfaces (GUIs) with intuitive controls.
• Buttons, sliders, and menus allow operators to command and adjust spacecraft parameters.
• A 3D visualization of the spacecraft's position, attitude, and trajectory could be present for easier navigation and control.

Redundant Systems:

• Backup control and monitoring systems in case of primary system failure. These could include secondary command consoles, emergency procedures, and more.

Additional Information:

• Delivery Time: Ready-stock
• Packaging Details: The SMART-1 Control Panel is part of the European Space Agency's SMART-1 spacecraft, which was launched in 2003 to test new technologies for space exploration, particularly ion propulsion. However, when referring to packaging details for a spacecraft control panel, this typically means how the hardware and components of the control system are physically transported, stored, and protected during the manufacturing, assembly, testing, and deployment phases. The packaging details for the SMART-1 Control Panel would have been carefully planned to ensure that all parts of the control system were properly protected from environmental hazards and mechanical damage. This includes packaging for shipping, installation, and protection during operations.

Inline high pressure pump for RO and boiler feed water application

The Industrial RO Controller provides for very convenient mounting and easy field cable terminations. Removable terminals blocks are provided for easy terminations. Different sizes of terminals are selected for process and power connections to avoid wrong connections. The industrial RO control panel is based on a state of the art technology processor. It has 6 digital inputs and four outputs. It also has Conductivity and Flow (pulse type) Sensor inputs. It can be set for Manual pre-treatment operation or Automatic pre-treatment operation. On powering the controller it checks for Raw Water Tank (RWT) level and the Treated Water Tank (TWT) level. On receiving signals that the RWT is not empty and TWT is not full, it starts up the Raw Water Pump (RWP). A Low-Pressure Switch (LPS) check the pressure developed at the suction of HPP. On receiving the signal that pressure is developed (LPS) at the suction of High-Pressure Pump (HPP), it opens the Flush (reject) Solenoid valve for a settable time, ensuring slow flush. After this, the HPP is started for a settable time ensuring fast flush. At the end of this time, Flush Solenoid valve is closed and RO is started/operational. The controller continuously checks the pressure (LPS) at the HPP suction. Should it fall, a message is displayed with an LED indicator on the front panel. After a settable if this condition prevails, the RO is shut with a message on the LCD screen. The system can be restarted only with activation of the Start key or Power Reset. If during RO in operation; - RWT empty signal is received, both the pumps stop immediately with a message on the LCD, and an LED indication for RWP level. RO can be restarted on activating Start key or Power Reset. - TWT full signal is received, a flush sequence is carried out and then both the pumps stop with a message on the LCD screen and an LED indication. Once TWT full signal goes off, Slow and Fast flush sequence is initiated and RO starts. - High-Pressure switch (HPS) activation is received, both the pumps stop immediately with a message on the LCD and an LED indication for HPS. RO can be restarted on activating Start key or Power Reset. - Conductivity value exceeds set High level, a message is displayed till the time value is between High and Very High Limits set. If the Conductivity value exceeds the Very High limit set, both the pumps stop immediately with a message on the LCD. RO can be restarted on activating Start key or Power Reset. - Any electrical faults at RWP and/or HPP such as Overload, Dry Run, Over Voltage, Under Voltage the RO stops after the set trip values and delays, with relevant fault display on the LCD. Conductivity value, Voltage, Pump Current and various states are displayed on the LCD screen. Manual Mode: - RWP and HPP can be started through panel keys. HPP is interlocked with RWP in this mode. The pump motor protection is active in this as well.

Features:

• Suited for Small and Medium-size RO plants. Preprogrammed RO operation, process interlocks and time delays.
• Interactive Auto RO operation through panel keys in case of faults.
• Provides for operation with Automatic Multi-Port valves through handshaking inputs.
• Plant RUN time display
• Flow Rate / Cumulative Volume display (Optional).
• Conductivity display with pre-alarm and trip settings.
• Low Pressure, High-Pressure switch inputs.
• Raw Water and Product Water Tank level inputs.
• Flush Solenoid and Dosing Pump power outputs.
• Easy User Programmable Settings.
• Password Protected Process and Electrical Parameter Settings.
• 4 Key Interface and LCD for Control and Onsite Programming.
• Process Status Message Display.
• Alarm/Fault Message Display.
• Model 13M : 30A Relay for single phase RWP motor and 7.5 HP three phase contactor for HPP motor load control.