plug to be sure it is firmly in receptacle. Measure

 

 

incoming power, call power co. if required.

 

Fuse, 10 Amp

Check, replace if necessary.

 

Fuse holder

Check, replace if necessary.

 

Switch, oven power

Check for line voltage supplied to switch. If no voltage

 

 

is present, trace wiring back to fuse holder. Check

 

 

continuity between switch terminals. Replace switch as

 

 

needed.

 

Control transformer

Check for supply voltage to primary of control

 

 

transformer. If no voltage is present, trace wiring back to

 

 

oven power switch. If voltage is present, check for

 

 

24VAC at transformer secondary. If there is primary

 

 

voltage, but no secondary voltage, replace control

 

 

transformer.

 

Conveyor motor

Check for supply voltage to the conveyor motor at

 

 

terminal #8 to neutral. If no voltage is present, trace

 

 

wiring back to oven power switch. If voltage is present,

 

 

but the motor will not run, check the motor windings for

 

 

opens or shorts. If any of the above checks fail, replace

 

 

conveyor motor.

 

Capacitor, conveyor motor

Check for shorts or grounds. Replace capacitor as

 

 

needed.

 

 

WARNING: Capacitor has a stored charge, discharge

 

 

before testing.

 

Switch, conveyor reversing

Check continuity between switch terminals. Replace

 

 

switch as needed.

 

Oven control

If there is voltage supplied to the motor, and the motor

 

 

capacitor and reversing switch check good, replace the

 

 

oven control.

Conveyor motor runs,

NOTE: Display will indicate

 

but there is no speed

“BELT JAM”

 

display

 

 

 

Oven control

Check for output voltage from oven control to hall effect

 

 

sensor (sensor is located in the conveyor motor).

 

 

Measure voltage at the motor connector, red wire and

 

 

yellow wire. Voltage should be approx. 10VDC. If no

 

 

voltage is present, trace wiring back to oven control. If

 

 

there is no voltage output at the oven control, replace

 

 

oven control.

 

Conveyor motor

If there is voltage supplied to the hall effect sensor,

 

 

check for a frequency output from the hall effect sensor.

 

 

Measure frequency across the yellow and white wires in

 

 

the motor connector. Frequency reading should be

 

 

approx. 25-100 Hz. If these readings are not achieved,

 

 

replace conveyor motor. If the readings are achieved,

 

 

proceed.

 

Oven control

If the hall effect sensor readings are correct, but there is

 

 

no speed indicated on the display, replace the oven

 

 

control.

 

REMOVAL, INSTALLATION & ADJUSTMENTS

 

IMPINGER ADVANTAGE SERIES

 

CAUTION!

 

BEFORE REMOVING OR INSTALLING ANY COMPONENT IN THE IMPINGER

 

OVEN BE SURE TO DISCONNECT ELECTRICAL POWER AND GAS SUPPLY

8

Impinger I -–Adv Digital – Electric Service Manual - International

Page 8
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Lincoln 1455-000-E Impinger Advantage Series, Belt JAM, Before Removing or Installing ANY Component in the Impinger

1454-000-E, 1455-000-E specifications

Lincoln 1455-000-E and 1454-000-E represent two cutting-edge welding machines that have been designed to meet the demanding needs of modern industrial environments. With their advanced features and robust technologies, they cater to a wide range of welding applications, making them an ideal choice for professionals seeking efficiency and reliability.

The Lincoln 1455-000-E is equipped with a high-performance inverter technology, ensuring that it provides a stable and consistent arc. This feature significantly enhances the precision of welds, minimizing defects and ensuring high-quality outputs. The inverter system also lends itself to a more lightweight and compact design, making the machine easy to transport and maneuver, which is a crucial factor in many job sites.

On the other hand, the Lincoln 1454-000-E model focuses on versatility and adaptability. This machine supports multiple welding processes, including MIG, TIG, and stick welding, which allows users to switch between methods seamlessly based on their project demands. This flexibility is built upon a user-friendly control panel that simplifies process adjustments and settings, enabling welders of all skill levels to operate the machine efficiently.

Both models boast a robust construction, designed to withstand harsh working conditions typically found in industrial settings. They are equipped with thermal overload protection, which prevents damage and ensures longevity even during prolonged use. Additionally, these machines feature an integrated cooling system that enables extended operational periods without overheating.

Connectivity is another key feature of both models. They are designed with modern technological integration in mind, offering options for remote monitoring and control through dedicated software. This capability allows operators to track performance metrics in real-time and make necessary adjustments on the fly, optimizing their welding processes.

Furthermore, safety is a top priority in the design of the Lincoln 1455-000-E and 1454-000-E. Both machines come with built-in safety mechanisms, including voltage reduction features to protect the user from potential electrical hazards.

In conclusion, the Lincoln 1455-000-E and 1454-000-E are exemplary machines that combine advanced welding technologies with robust features, making them suitable for a variety of industrial applications. Their design emphasizes efficiency, ease of use, and safety, appealing to both professionals and novices in the welding industry.