Teledyne ECO#02-0227 instruction manual

Page 12

that an overnight recharge be accomplished every three (3) weeks of continuous use. To recharge the batteries, place the range switch in the “OFF” position and connect the power cord to a convenient outlet. NOTE: The amber charge lamp (on the rear of the case) will be lit during charging process. The integral charging circuit will automatically energize and regulate the battery charging current when the switch is in the “OFF” position and the AC cord is plugged into the power line.

WARNING: DO NOT TURN THE RANGE SWITCH EITHER TO “BATT TEST” OR

TO ANY OF THE OPERATING RANGE POSITIONS WHILE THE UNIT IS PLUGGED INTO THE POWER LINE! DOING SO MAY CAUSE THE INTEGRATED CIRCUITS TO FAIL.

When recharging is completed, unplug the unit from the AC outlet. Turn the range switch to the “BATT TEST” position or to any operating position.

NOTE: The “BATT TEST” position will not give a reliable indication of the battery charge immediately after a charge cycle. Allow the unit to run for awhile before testing the batteries.

If the instrument is stored with the range switch in the “OFF” position (charge cord disconnected), the period of time between charge periods is extended from one month to four months. However, do not leave it longer than this time period.

4.2Routine Maintenance. Beyond adhering to a battery recharge schedule, no routine maintenance is required, as there are no moving parts in the instrument other than the meter movement. The Micro-Fuel Cell is a sealed, modular component that should be replaced only when faulty.

4.3Cell Replacement. The characteristics of the Micro-Fuel Cell are similar to those of a mercury battery in that both provide an almost constant output through their useful life, and then fall off sharply towards zero at the end. If the sample being analyzed has a low (0-2 ppm range) oxygen concentration, cell failure will probably be indicated by a sluggish recovery to low ppm readings after a calibration (exposure to a higher level of oxygen) or an elevated zero offset level (i.e. a reading >1/2 ppm @ 25oC or less when a zero sample is introduced). The cell should be replaced when this recovering time becomes unacceptable (see Section 5.4 for cell replacement instructions).

-8-

To offset the possibility of not having a replacement cell available when it is needed, TAI recommends that a spare cell be purchased shortly after the instrument is placed in service, and each time the cell is replaced thereafter.

Image 12
Contents 311XL Series Trace Oxygen Analyzer Model 311XL Skin Contact Table of Contents 311XL Series 311XL Series Trace Oxygen Analyzer Introduction Page Page Supporting Equipment and Services OperationCalibration Procedure. Gas requirements Gas connections Zero adjustment Maintenance Page Page Transducer and Temperature Compensation Leak TestingProduct Specification Data AccuracySystem Power Requirements Recommended Spare Parts ListSensitivity ReproducibilityMinimum Charge is Applicable to Spare Parts Orders Drawing List Model 311XLDrawing List Model 311TCXL

ECO#02-0227 specifications

Teledyne ECO#02-0227 represents an advancement in environmental monitoring technologies, specifically designed to address the ever-evolving requirements of water quality analysis. This innovative device is equipped with cutting-edge features that enhance its functionality, providing users with reliable data for a variety of applications ranging from academic research to industrial processes.

One of the standout features of the Teledyne ECO#02-0227 is its ability to measure multiple parameters simultaneously. It offers real-time monitoring of critical water quality indicators, including dissolved oxygen, turbidity, pH levels, and chlorophyll concentrations. The simultaneous data collection capability accelerates decision-making processes, allowing for timely interventions in environmental management.

The device leverages advanced sensor technology, ensuring high accuracy and precision in measurements. The sensors are designed to minimize interference and provide consistent data across a range of conditions. This is particularly important for applications where water quality can fluctuate significantly, such as in rivers, lakes, and wastewater treatment facilities.

Another notable characteristic of the ECO#02-0227 is its rugged design, which makes it suitable for deployment in harsh environments. It features waterproof housing and is resistant to corrosion, ensuring durability and longevity even under extreme conditions. This robustness makes the device an ideal choice for field applications, where reliability is paramount.

Moreover, the Teledyne ECO#02-0227 utilizes smart connectivity options, enabling seamless data transfer and remote monitoring capabilities. Users can easily access real-time data via wireless networks, integrating the data into broader environmental monitoring systems. This connectivity facilitates collaboration among researchers and regulators, promoting more effective management of water resources.

In addition to its technical specifications, the device is user-friendly, with a straightforward interface that allows for easy navigation through settings and data retrieval. Comprehensive documentation and support resources ensure that users can maximize the device's potential without extensive training.

Overall, the Teledyne ECO#02-0227 stands out in the field of water quality monitoring. Its multi-parameter capabilities, advanced sensor technology, robust design, smart connectivity, and user-friendly interface make it an invaluable tool for environmental professionals seeking reliable and accurate data to support their initiatives. With this device, users can monitor and protect water quality more effectively, contributing to healthier ecosystems and communities.