GM MANTS420 manual Operation, Applying Power

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Model TS420

4.0 Operation

4.1Applying Power

Before applying power to the system for the first time, all wiring connections should be checked for correctness. The sensor should be allowed to stabilize prior to calibration. The stabilization time should be one (1) hour for all sensors.

Initial Power-up

The TS420 has been shipped un-calibrated, therefore, the first time power is applied, the TS420 will enter Start-up mode (3.6mA) for a short interval, then may transition to fault mode (flashing MODE LCD with the CAL LCD off and the analog output current at 3.5mA) until calibrated (See Section 4.3 for Calibration Procedure).

After calibration is complete, the TS420 will proceed to Operate mode (17.38mA = 20.9% V/V O2) where any detected oxygen will show as a proportional analog output current between 4 and 20mA (4mA = 0% V/V O2 , 20mA = 25% V/V O2). The MODE LCD will be on steady and the CAL LCD off with normal atmosphere and both the MODE and CAL LCD's will flash when oxygen deficiency is detected. (O2 level < 19%).

General Monitors recommends the TS420 be calibrated again within the first twenty-four (24) hours after the initial calibration. Calibrations should be performed with new units and units that have been off power for more than one (1) week. See “Calibration”, Section 4.3, for more details.

Power-up After Initial Calibration

When the TS420 is powered up, after it has been previously calibrated, the unit will enter a Start-up mode (3.6mA) for approximately 50 seconds, which allows the sensor to stabilize before proceeding to the Operate mode (17.38mA). During Start-up, the MODE LCD will flash, the CAL LCD will be off and the analog output current will be 3.6mA.

OPERATING MODES

INDICATOR

ANALOG OUTPUT

 

CAL

MODE

 

START-UP

3.6mA

OPERATE

 

 

 

AMBIENT O2 = 20.9%

17.38mA

DEFICIENT ATMOSPHERE, O2< 19%1

4.0-16.16mA

FAULT

 

 

 

NO POWER

0.0mA

SYSTEM

3.5mA

Figure 5 Operating Modes, Indicators and Outputs

1.Segment may flash Synchronously or alternating.

Perform a calibration and the TS420 will return to operate mode (17.38mA).

NOTE - The TS420 will not allow you to enter calibration mode during Start-up mode (3.6mA).

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Contents Model TS420 Warranty Statement System Integrity Verification Commissioning Safety SystemsPeriodic System Verification Periodic Testing/Calibration of Field DevicesFigure Q-A Outline and Dimensional Drawing Mount and Wire the Detector pages 5 throughIntrinsically Safe Barriers Figure Q-B Wiring DiagramInitial Power-up Apply power to the detectorPower-up After Initial Calibration Calibrate the Detector Calibration ProcedureViii Table of Contents Plastic Junction Box, NPT 45160-2 Plastic Junction Box, M20 Table of FiguresApplications Features and BenefitsIntroduction General DescriptionThis page left intentionally blank Sensor Assembly Detector AssemblyLCD Display Location Control ElectronicsReceipt of Equipment InstallationDetector Location Considerations Maintenance Installation InstructionsWiring Diagram Wiring ConnectionsOperation Applying PowerCalibration Operating ModesCalibration Equipment Flow DiagramSensor Replacement Procedure Sensor Alignment Remove paper liner from gasket, if present Fault Codes & The Remedies Sensor Care and MaintenanceFault Codes are Appendix SpecificationsStorage Temperature Range Input PowerStatus Indicator Environmental Specifications Operating Temperature RangeSample Calculation Intrinsically Safe System RequirementsCapacitance InductanceEngineering Documentation Outline & Dimensional Drawing NPTØ1.75 2-20 UN-2A Control Drawing Safearea Sample Installation31305-2 Aluminum Junction Box 10252 Round Aluminum Junction Box70631-2 Splash Guard Calibration Accessories AccessoriesOrdering Information Calibration Schedule for Problem Environments Spare Parts & Accessories

MANTS420, TS420 specifications

The GM TS420 and MANTS420 represent a breakthrough in agricultural technology tailored for enhancing both efficiency and productivity in farming operations. As versatile solutions, they are designed to meet the demands of contemporary agricultural practices.

One of the primary features of the GM TS420 is its powerful engine, which ensures robust performance across various terrains. The engine is specifically engineered to provide optimal fuel efficiency while minimizing emissions, aligning with modern environmental standards. This is crucial for farmers focused on maintaining a sustainable operation while reducing operational costs.

The MANTS420, on the other hand, stands out for its advanced precision farming technologies. Equipped with cutting-edge GPS and navigation systems, the MANTS420 allows for precise planting and harvesting. This precision is essential for maximizing yields and minimizing waste, as it enables farmers to apply inputs such as seeds, fertilizers, and pesticides more effectively and economically.

Both models feature a user-friendly interface, which streamlines operation and reduces the learning curve for new users. The touchscreen displays provide real-time data on machine performance, field conditions, and crop status, allowing farmers to make informed decisions quickly and efficiently.

In terms of durability, the GM TS420 and MANTS420 are built with high-quality materials designed to withstand the rigors of agricultural environments. Their sturdy chassis and high-ground clearance enhance maneuverability in challenging landscapes, making them ideal for diverse farming tasks.

Furthermore, the technology in both units includes telemetry and remote monitoring capabilities. This allows farmers to track performance metrics and receive maintenance alerts, minimizing downtimes and optimizing machine longevity.

The implement compatibility of the GM TS420 and MANTS420 is another noteworthy characteristic. Both models can accommodate a wide range of attachments, making them versatile tools for various agricultural tasks, from tilling and plowing to seeding and harvesting.

In conclusion, the GM TS420 and MANTS420 embody the synthesis of advanced engineering and technology in the agricultural sector. Their combination of robust power, precision farming capabilities, ease of use, durability, and versatility make them indispensable assets for modern farmers seeking to enhance productivity while adhering to sustainable practices.