PW-6000 Installation

Setting Up the PW-6000 Hardware

3 Setting Up the PW-6000 Hardware

The PW-6000 processor is configured with 12 jumpers and a set of 4 DIP switches. These jumpers/switches set up the port interface, end of line termination, and operating mode configuration. Refer to the tables below to set the jumpers as required.

3.1 Setting the Jumpers

Table 1 PW-6000 Jumper Settings

Jumpers

Set At

Description

 

 

 

 

J1

N/A

10Base-T/100Base-TX Ethernet Connection (Port 0)

 

 

 

J2

N/A

Factory Use Only

 

 

 

 

J3

OFF

Port 2 RS-485

EOL Terminator is OFF

 

 

 

 

 

ON

Port 2 RS-485

EOL Terminator is ON

 

 

 

 

 

J4

OFF

Port 3

RS-485

EOL Terminator is OFF

 

 

 

 

 

 

ON

Port 3

RS-485

EOL Terminator is ON

 

 

 

 

 

J5

OFF

Port 1

RS-485

EOL Terminator is OFF

 

 

 

 

 

 

ON

Port 1

RS-485

EOL Terminator is ON

 

 

 

J6

N/A

Factory Use Only

 

 

 

J7

N/A

COBOX-MICRO Ethernet Module Connection (Port 1)

 

 

 

J8, J9, J10

232

Port 1 is RS-232

 

 

 

 

485

Port 1 is RS-485

 

 

 

J11

N/A

Factory Use Only

 

 

 

J12

N/A

Factory Use Only

 

 

 

 

 

8www.honeywell.com

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Honeywell manual Setting Up the PW-6000 Hardware, Setting the Jumpers

PW-6000 specifications

The Honeywell PW-6000 is a modern turbofan engine designed to meet the rigorous demands of regional and business aviation. Engineered with advanced technologies and features, the PW-6000 offers exceptional performance, reliability, and efficiency.

One of the standout attributes of the PW-6000 is its high-thrust capability, making it ideal for a variety of aircraft including regional jets and mid-size business jets. The engine is available in multiple thrust ratings, enabling operators to select the optimal configuration for their specific needs. This flexibility is a key advantage for airlines and operators seeking to maximize performance while maintaining operational efficiency.

The PW-6000 is built with advanced materials and technologies that enhance engine durability and reduce maintenance costs. The use of single crystal superalloys in the turbine section provides better thermal resistance, leading to longer life cycles. Additionally, the engine incorporates a sophisticated cooling system that optimizes the thermal efficiency, contributing to lower overall operating costs.

Another significant feature of the PW-6000 is its advanced digital control system. The Full Authority Digital Engine Control (FADEC) ensures precise engine management, enhancing both performance and fuel efficiency. This technology allows for real-time monitoring of engine parameters, resulting in improved safety and reliability. Operators benefit from reduced pilot workload, as the system automatically adjusts parameters to optimize performance under varying conditions.

Noise reduction is another critical aspect of the PW-6000, as it adheres to stringent noise regulations. The engine employs innovative noise reduction technologies, such as advanced fan blade designs and efficient nacelle configurations, which minimize noise both during takeoff and landing. This makes the PW-6000 a favored choice for operations in noise-sensitive environments.

The PW-6000 is designed with a focus on environmental sustainability. Its high bypass ratio improves fuel efficiency, leading to lower carbon emissions. Furthermore, its operational efficiency contributes to reduced fuel consumption, aligning with the aviation industry's current push towards greener technologies.

In summary, the Honeywell PW-6000 is a state-of-the-art turbofan engine that combines high thrust capabilities, advanced materials, and superior noise reduction. Its digital control system enhances performance and reliability, while its environmentally friendly design meets the industry's push for sustainability. As regional and business aviation continues to evolve, the PW-6000 stands out as a leading choice for operators seeking efficiency, reliability, and performance.