SUBWOOFER INSTALLATION AND WIRING DIRECTIONS

Enclosure Materials

Typically, 5/8” or 3/4” MDF (Medium Density Fiber Board) is best for most applications. 3/4” MDF is recommended.

Enclosure Build Materials

Connecting joints need to be glued and screwed to ensure no air escapes and joints do not separate under high pressure. Mitered and rabbit joints also help to ensure the enclosure joints are secure.

Bracing

Internal bracing is also recommended to prevent flexing and to strengthen the enclosure.

Note: The volume taken up by the bracing should be added to the total enclosure interior volume.

There are two common bracing methods.

1.Corner Bracing: These help prevent the connection joints from separating under heavy vibration and air pressure. Use 1’ x 1” MDF at all interior joints

2.Diagonal Bracing: These internal braces connect the top side to the bottom side as well front side to back side. This prevents the wood from bowing or pushing outwards.

Use 1” x 2” with 1” surface contact that is glued and screwed.

Wiring

Wiring Parallel, Series or Parallel/Series will affect the final impedance at the amp and great care must taken to ensure the amp is not driven below it’s intended impedance capabilities.

2

Page 3
Image 3
Olympus OLM2415, OLM2412, OLM1615, OLM1612 manual Enclosure Materials

OLM2415, OLM1612, OLM1615, OLM2412 specifications

Olympus offers a diverse range of optical laser measuring equipment, among which the OLM2415, OLM2412, OLM1612, and OLM1615 stand out for their robust features, advanced technologies, and versatile applications. These models cater to various industries, including manufacturing, telecommunications, and research, providing precision and reliability in optical measurements.

The OLM2415 is characterized by its high sensitivity, allowing it to measure optical signals with minimal errors. It supports various optical fibers and is particularly renowned for its extended dynamic range. This model features a color touch screen interface, making it user-friendly and intuitive. Additionally, the OLM2415 is equipped with advanced analysis features, enabling users to conduct detailed assessments of optical links with ease.

In contrast, the OLM2412 is designed for enhanced portability without compromising measurement capabilities. This compact model is ideal for field applications where space and accessibility are limited. The OLM2412 retains many features of its counterpart, including a high-resolution display and flexible connectivity options. Its battery-powered operation ensures convenient and prolonged usage during outdoor tasks, making it a favored choice for field technicians.

The OLM1612 and OLM1615 models offer similar measurement accuracy but differ mainly in their operational breadth and specific functionalities. The OLM1612 is optimized for standard applications, providing comprehensive testing for optical fibers with a focus on essential measurements. Its straightforward design caters to users who require efficient yet effective performance.

On the other hand, the OLM1615 pushes the envelope with advanced technologies that allow it to measure multi-wavelength signals. This makes it particularly suitable for applications involving dense wavelength division multiplexing (DWDM). The OLM1615 also features enhanced data analysis capabilities, allowing users to identify potential issues in optical networks before they escalate.

All four models boast rugged designs, ensuring durability in demanding environments. They utilize modern optical technologies, such as wavelength tunability, and support various measurement modes, making them versatile tools in any technician's arsenal. Their ability to connect to PCs and integrate with software solutions enhances the overall measurement workflow, facilitating efficient data management and reporting.

In summary, the Olympus OLM2415, OLM2412, OLM1612, and OLM1615 represent a range of optical measuring devices that combine advanced technologies, user-friendly interfaces, and exceptional performance. Whether for fieldwork or laboratory applications, these models meet diverse optical measurement needs with precision and reliability, making them invaluable assets in modern optical engineering.