Connections and Configuration

3.Once the cable passes the test, lay it in the pattern desired. Pay special attention to the following cable placement precautions.

DETECTION CABLE PLACEMENT PRECAUTIONS

Do not use detection cable that is damaged or dirty—for example, from plaster, spackle or debris.

Detection cable should not be dragged through contaminants (dirty or greasy areas). Floor must be clean for the detection cable to function properly and for the hold-down clips to adhere to the floor surface.

Careful consideration should be taken to place detection cable out of the direct discharge airflow path of environmental equipment. This type of equipment can discharge moisture into the airflow. Place cable 6 ft. (1.8m) from discharge to avoid nuisance alarms during humidification.

Tools or heavy objects can do permanent damage when dropped, rolled, or set on the detection cable. Avoid foot traffic on the detection cable as well.

Do not use any type of adhesive tape to secure the detection cable.

Do not allow soldering or welding near the detection cable without providing protection from heat and contaminants. (Also avoid installing the detection cable in or near these type of areas.)

Mild dishwashing liquid can be used to clean the detection cable of many contaminants.

4.Install the hold-down clips in pairs, as shown in Figure 10, with the following considerations:

a.The adhesive used to install the hold-down clips must NOT come in contact with the detection cable.

b.One pair every 6 to 8 ft. (1.8-2.4m) in straight patterns (see Figure 11).

c.One pair every 3 to 4 ft. (0.9-1.2m) in circular patterns (see Figure 12).

d.One pair at the beginning and end of the arc when turning 90 degrees (see Figure 13).

e.One pair as needed to maintain consistent uniform contact between the floor and detection cable.

Figure 10 Installation of hold- down clips in pairs

Figure 11 Cable laid in straight

Figure 12 Cable laid in circular

patterns

patterns

Hold-down clips

Hold-down clips

every 3-4 ft.

every 6-8 ft.

(0.9-1.2m)

(1.8-2.4m)

along straight

Figure 13 90° turn in cable

sections

 

 

Hold-down clips

 

at beginning &

 

end of arc

 

 

5.Once adhesive is completely dry, snap the cable into each hold-down clip.

6.Check that there are no gaps between the floor and detection cable. (Add clips as required.)

7.Be certain there are no alarms present on the module.

8.Do final testing as per instruction in Step 2.

15

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Image 19
Emerson MC68HC16Z1 user manual Patterns, Sections Hold-down clips At beginning End of arc

MC68HC16Z1 specifications

The Emerson MC68HC16Z1 is a versatile microcontroller that combines power and efficiency, making it an ideal choice for various embedded applications. As part of the Motorola 68HC16 series, the MC68HC16Z1 is designed to deliver robust performance while offering extensive support for both simple and complex tasks. With its 16-bit architecture, this microcontroller is well-equipped to handle a range of functionalities, from industrial control systems to automation processes.

One of the main features of the MC68HC16Z1 is its high-performance 16-bit CPU, which operates at speeds up to 20 MHz. This allows for efficient data processing and execution of instructions, which is critical in time-sensitive applications. The microcontroller boasts a rich instruction set, including various addressing modes that enhance programming flexibility. This versatility enables developers to implement efficient algorithms tailored to their specific application needs.

Power management is another noteworthy characteristic of the MC68HC16Z1. The device supports low-power operation modes, which is essential for battery-powered applications or scenarios where energy consumption is a concern. With its capability to switch between different operational states, the microcontroller can significantly extend battery life while ensuring that performance is not compromised.

The MC68HC16Z1 also includes an integrated analog-to-digital converter (ADC) that allows for direct interaction with analog signals. This feature is particularly beneficial in applications that require sensor data acquisition. Additionally, the microcontroller provides various communication interfaces, including serial communication options like UART and SPI, facilitating seamless data transfer between devices.

In terms of memory, the MC68HC16Z1 supports a wide range of options, including both RAM and ROM, allowing for flexible storage solutions depending on the application requirements. The built-in programmability further allows for updates and modifications to the firmware, ensuring that the system can adapt to evolving project specifications.

Moreover, the microcontroller features an extensive array of I/O ports, making it capable of interfacing with various peripheral devices such as sensors, actuators, and displays. This extensive connectivity enhances its usability in a range of applications, from robotics to automotive systems.

In summary, the Emerson MC68HC16Z1 microcontroller stands out for its balanced blend of performance, low power consumption, and feature-rich design. Its 16-bit architecture, integrated ADC, versatile communication interfaces, and extensive memory options make it a go-to choice for developers looking to create effective and reliable embedded systems. Whether for industrial automation or consumer electronics, the MC68HC16Z1 continues to be a dependable and powerful component in the realm of microcontroller technology.