Mounting And Wiring Instructions

NOTE: Underwriters Laboratories (UL) does not require all fixtures to have ground wires. These fixtures meet all UL specifications.

1.Turn off power at circuit box to avoid possible electric shock.

2.Thread mounting screws (A) into mounting bar (B) (see fig. 1).

3.Secure mounting bar (B) to outlet box (C) with outlet box screws (D) (not included).

4.Identify color coding of fixture wires (see fig. 2).

5.To connect wires, take black fixture wire (group A from fig. 2) and place evenly against black outlet box wire. Do not twist wires.

6.Fit wire connector (E from fig. 1) over wires and twist until there is a firm connection. If wire connector (E) easily comes off, reattach and check again for a firm connection.

7.Repeat steps 5 and 6 with the white (group B from fig. 2) fixture wires and outlet box wires.

8.Partially thread green grounding screw (F) into side hole (G) on mounting bar (B) (see fig. 1).

9.Wrap ground wire from fixture around green grounding screw (F) leaving enough excess wire to then connect ground wire and outlet box wire with wire connector (E), if applicable.

10.Tighten green grounding screw (F). Do not over tighten.

11.Tuck wires inside outlet box (C).

FIXTURE ASSEMBLY INSTRUCTIONS

Warning: This fixture is for indoor use only.

1.Thread nipple (U) into coupling (S). Raise canopy (H) to the ceiling, allowing mounting screws (A) to protrude through the openings in canopy (H), and secure into place with cap nuts (I) (see fig. 1).

2.Install lamps. Do not exceed recommended wattage.

3.Thread hex nut (T) onto nipple (K), then thread nipple (K) into coupling (V).

4.Slide flat washer (Q) and rubber washer (P) over nipple (K). Raise glass (J) up to shade (R), with nipple (K) protruding through opening in glass (J).

5.Carefully support glass (J) while securing washer (L), hex nut (O), cap (M), and finial (N) to nipple (K).

6.Turn power back on at circuit box.

W-367 specifications

The Westinghouse W-367 is a noteworthy model in the realm of nuclear reactors, particularly designed for educational purposes and research applications. Developed by the Westinghouse Electric Corporation in the mid-20th century, this reactor is recognized for its compact design and innovative engineering, which provides an efficient means for nuclear experimentation and training.

One of the main features of the W-367 is its pool-type design, where the reactor core is submerged in a large pool of water. This not only serves as adequate radiation shielding but also provides effective cooling for the reactor. The water in the pool absorbs neutron radiation, thereby ensuring a safer environment for both operators and researchers. This design feature significantly enhances the operational safety of the reactor, making it an ideal choice for academic institutions and research facilities.

The W-367 utilizes low-enriched uranium fuel, which is suitable for many research applications. This choice of fuel allows for a higher level of flexibility in experimentation while also ensuring compliance with regulatory standards. Its low power output, typically around 1 megawatt, makes it less hazardous than higher-capacity reactors, which is essential for educational users or smaller-scale research projects.

Another standout characteristic of the W-367 is its advanced control systems. The reactor is equipped with a series of control rods made from materials capable of effectively capturing neutrons, allowing for precise manipulation of the reactor's power levels. This feature gives operators fine control over the fission process, which is essential during experiments and demonstrations.

The instrumentation integrated into the W-367 allows for continuous monitoring of critical parameters such as temperature, radiation levels, and power output. These monitoring systems are crucial for maintaining safety and performance standards without interrupting operations.

In summary, the Westinghouse W-367 reflects a combination of innovative engineering and operational safety, making it a valuable asset in the fields of education and research. Its pool-type design, low-enriched uranium fuel use, and advanced control systems contribute to a robust platform for nuclear experimentation, making it an exemplary model in the landscape of nuclear reactors.