1.“FAN” (BLOWER) Output L.E.D. (light emitting diode) Indicator

a.If the dryer is started and the blower motor is not operating, yet the Phase 6 OPL microprocessor controller (computer) display fan indicator dot and power supply input L.E.D. (light emitting diode) are on, but the fan output L.E.D. is off, then the fault is the Phase 6 OPL microprocessor controller (computer) itself.

1)If the motor is not operating. The fan indicator dot and output L.E.D. (light emitting diode) are also on, then the problem (fault) is elsewhere (i.e., external of the Phase 6 OPL microprocessor controller [computer]).

2.“FOR” (FORWARD) Output L.E.D. (light emitting diode) Indicator (for optional reversing model ONLY)

a.If the dryer is started and the blower motor is operating, but the drive (tumbler/basket) motor is not, yet the Phase 6 OPL microprocessor controller (computer) display “FORWARD” indicator dot is on, the “FOR” (FORWARD) motor output L.E.D. (light emitting diode) is off; then the fault is the Phase 6 OPL microprocessor controller (computer) itself.

1)If the drive tumbler (basket) motor is not operating and the forward indicator dot and output L.E.D. (light emitting diode) is on; then the problem (fault) is elsewhere (i.e., external of the Phase 6 OPL microprocessor controller [computer]).

3.“REV” (REVERSE) Output L.E.D. (light emitting diode) Indicator (for optional reversing models ONLY)

a.If the dryer is started and the blower motor is operating but the drive (tumbler and basket) motor is not, yet the Phase 6 OPL microprocessor controller (computer) displays “REVERSE” indicator dot is on but the “REV” (REVERSE) motor output L.E.D. (light emitting diode) is off; then the fault is of the Phase 6 OPL microprocessor controller (computer) itself.

1)If the drive tumbler (basket) motor is not operating and reverse indicator dot and output L.E.D. (light emitting diode) is on; then the problem (fault) is elsewhere (i.e., external of the Phase 6 OPL microprocessor controller [computer]).

4.“AIR” (AIR JET) Output L.E.D. (light emitting diode) Indicator - OPTIONAL

a.“AIR” is on with the display dot at the end of the dry cycle once the display reads “dONE,” it is on for approximately 60-seconds and the output L.E.D. (light emitting diode) indicator and the display dot go out. If the air jet DOES NOT energize it is not the fault of the Phase 6 OPL microprocessor controller (computer). If the output L.E.D. (light emitting diode) or dot DO NOT go on it is the fault of the Phase 6 OPL microprocessor controller (computer).

5.“HT1” (HEAT) Output L.E.D. (light emitting diode) Indicator

a.If the dryer is started and there is “No Heat” yet the Phase 6 OPL microprocessor controller (computer) display heat circuit indicator dot is on, but the “HT1” output L.E.D. (light emitting diode) indicator is off; then the fault is in the Phase 6 OPL microprocessor controller (computer) itself.

1)If the dryer is started and there is “No Heat” yet both the Phase 6 OPL microprocessor controller (computer) display indicator dots and the “HT1” output L.E.D. (light emitting diode) indicator are on; then the problem (fault) is elsewhere (i.e., external of the Phase 6 OPL microprocessor controller [computer]).

40

Page 44
Image 44
ADC ML-96 FAN Blower Output L.E.D. light emitting diode Indicator, HT1 Heat Output L.E.D. light emitting diode Indicator

ML-96 specifications

The ADC ML-122 and ML-96 are two advanced communication devices designed for efficient data collection and transmission in various applications. Both models are renowned for their robust performance and user-friendly features, which cater to a diverse range of industries.

The ADC ML-122 is a high-performance data logger that excels in multi-channel monitoring. It supports various input types, making it versatile for applications such as environmental monitoring, industrial process control, and research. One of its standout features is its ability to accommodate both analog and digital signals, allowing users to gather a wealth of data from different sources. The device supports a wide temperature range, ensuring reliability in diverse environmental conditions. Moreover, its built-in memory can store extensive data logs, which are easily downloadable for analysis.

On the other hand, the ADC ML-96 is designed primarily for telecommunication and network monitoring. It features advanced signal processing technologies that allow it to analyze and troubleshoot communication lines efficiently. The device is equipped with real-time monitoring capabilities, enabling users to detect issues as they arise, which is crucial in maintaining network integrity. The ML-96's compact design makes it an ideal choice for installation in tight spaces without sacrificing performance.

Both models are built with cutting-edge technologies that enhance their functionality. They integrate wireless communication protocols, such as Wi-Fi and Bluetooth, enabling seamless connectivity to cloud services for data backup and remote access. This feature empowers users to monitor conditions from anywhere, ensuring that critical information is always at hand.

The user interface for both the ML-122 and ML-96 is designed for ease of use. Equipped with a clear display and intuitive controls, users can navigate through settings and view data with minimal training. The devices also offer customizable alerts that notify users of any anomalies, adding an additional layer of security and responsiveness.

In terms of power management, both models utilize energy-efficient components, allowing for extended battery life. This is particularly advantageous in remote sensing applications where power sources may be limited. Furthermore, the ability to integrate with other systems makes these models adaptable to various operational needs.

In conclusion, the ADC ML-122 and ML-96 stand out in their respective markets due to their innovative features, reliable technologies, and user-friendly designs. With their flexibility and performance, they continue to set the standard for data logging and communication monitoring technologies.