Step 29: Setting Door Opening Travel

Do not use adjustments to compensate for a poorly balanced door. This will interfere with the proper operation of the travel adjustments and may damage door.

The door opener is assembled with the open travel adjustment preset for a typical door, but all doors should be adjusted to stop as close as possible to the door’s “natural” fully open, resting position.

To determine the door’s “natural” fully open, resting position, disconnect door from opener using the Emergency Release Disconnect (see page 26, HOW TO OPERATE YOUR DOOR MANUALLY) and manually raise door to its “natural” fully open, resting position. Use this location for your open limit setting. To determine if door needs adjustment, activate the opener to bring door to fully open position.

NOTE: If door does not open fully and opener light flashes (make sure the bulb is installed and operating) check for an obstruction or see Adjustment #1, page 22 (Adjusting Opening Force).

To adjust for a non-standard door or to precisely set the open position: Using the wall station, operate the door and stop it in mid-travel position; using a flathead screwdriver turn the OPEN travel adjuster for more (counter-clockwise) or less (clockwise) travel. A 1/4 turn equals approximately 1” of trolley movement.

NOTE: Confirm that the door has stopped in the UP position as a result of the Upper Limit Switch and not because the Trolley has hit the open Stop Bolt, which is mounted in the Rail near the power head. The correct condition can be verified by observing that the openers Convenience Light does not flash after the fully open door comes to a stop. The faulty condition may also be confirmed visually by checking to see if the Trolley is resting against the stop bolt.

To confirm final OPEN travel adjustment, activate the opener to bring door to fully open position. The opener light should not be flashing.

Step 30: Infrared Safety Sensor Obstruction Test

Test Procedure

Starting with the door in the fully open position, place a 6” x 12” object on the floor progressively one foot from the left side of the door; center of door and one foot from the right side of door (as illustrated). In each position, activation of the opener with the wall station should cause the door to move approximately one foot, stop and then reverse to fully open position. The same 6” x 12” object when placed on the floor should also cause a closing door to reverse.

If the door does not respond properly to these tests, the Infrared Safety Sensors must be adjusted (refer to step 22 or 23 depending on type of sensors used). Repeat this test procedure. If the door opener still will not respond properly and fails this test, the door may cause severe injury or death. Have a qualified service person make repairs.

19

Page 18 Page 20
Page 19
Image 19
Quantum 3316, 3314, 3214, 3414 user manual Setting Door Opening Travel, Infrared Safety Sensor Obstruction Test
Page 18 Page 20

3316, 3314, 3214, 3414 specifications

Quantum 3414, 3316, 3214, and 3314 represent a series of cutting-edge technologies that have emerged in the field of quantum computing and advanced materials science. Each of these models offers unique features and capabilities designed to push the boundaries of computational power and efficiency.

The Quantum 3414 is distinguished by its robust architecture and high-performance qubit system. It utilizes superconducting qubits, which provide exceptional coherence times and operational fidelity. This model is particularly well-suited for complex algorithm implementations, making it an attractive choice for researchers focused on quantum simulations and machine learning applications. Its innovative design integrates quantum error correction mechanisms that enhance reliability and reduce error rates.

Following closely, the Quantum 3316 emphasizes versatility and scalability. This model introduces a modular approach to quantum systems, enabling users to expand their computational resources as their needs grow. It features a hybrid quantum-classical architecture, allowing for greater flexibility in algorithm execution while leveraging classical computing's strengths. The 3316 is ideal for industries looking to optimize operational efficiency through quantum-enhanced processes.

The Quantum 3214 focuses on user accessibility and simplified integration into existing technological ecosystems. This model is equipped with an intuitive interface and user-friendly programming capabilities, catering to both seasoned quantum developers and newcomers. The 3214 also adopts cutting-edge quantum networking technologies, facilitating the remote connection of quantum systems for collaborative research and development.

Lastly, the Quantum 3314 combines power and compactness. Though smaller in form factor, this model does not compromise on performance. It employs advanced cryogenic technology to maintain optimal operating conditions for qubits, thus enhancing thermal stability and minimizing noise. The 3314 is particularly suitable for environments where space is limited yet high performance is essential, such as academic laboratories and research institutions.

Overall, the Quantum 3414, 3316, 3214, and 3314 each present a variety of sophisticated features tailored to specific applications within the quantum domain. From research and development to practical industrial applications, these models signify a significant leap forward in harnessing quantum technologies for future advancements. Their unique characteristics make them valuable tools for overcoming the challenges faced in the ever-evolving landscape of computing and science.
Top Page Image Contents