Table 8 DIP switch settings for network address (continued)
Network address
Switch 1
Switch 2
Switch 3
Switch 4
Switch 5
18
Off
On
Off
Off
On
19
On
On
Off
Off
On
20
Off
Off
On
Off
On
21
On
Off
On
Off
On
22
Off
On
On
Off
On
23
On
On
On
Off
On
24
Off
Off
Off
On
On
25
On
Off
Off
On
On
26
Off
On
Off
On
On
27
On
On
Off
On
On
28
Off
Off
On
On
On
29
On
Off
On
On
On
30
Off
On
On
On
On
31
On
On
On
On
On
RS485 serial output with FXB protocol
Instruments with the RS485 FXB communication option use industry-
standard FXB protocol. Refer to the company website for FXB protocol
information.
Pulse communication
Instruments with the pulse communication option send an 8-µs pulse
signal when a particle is detected. Refer to
. An external pulse
counter or data acquisition system receives the pulse signal and counts
the pulses as particles.
Instruments with pulse communication have two pulse output channels
(Ch 1 and Ch 2). Channel 1 sends a pulse signal when the Channel
1 particle size is detected. Channel 2 sends a pulse signal when the
channel size that is selected by the user is detected.
Pulse communication includes a status output signal that goes from low
to high when there is an active alarm. Pulse communication cannot be
used in a network configuration.
Set the network address for pulse communication instruments to 1.
Refer to
on page 20.
The pulse signal can be sent in one of two count modes:
•
Differential mode
(default)—A signal is sent on Channel 1 when a
particle is between the first and the second channel size thresholds. A
signal is sent on the Channel 2 when a particle is larger than the user-
selected channel size threshold.
•
Cumulative mode
—A signal is sent on Channel 1 when a particle is
larger than the first or second channel size threshold. A signal is sent
on Channel 2 when a particle is larger than the user-selected channel
size threshold.
Figure 14 Differential versus cumulative count mode example
1
Pulse signal sent from counter
4
Channel 1
2
Data transfer in differential versus
cumulative mode
5
Differential count—one 0.3 µm and
two 5.0 µm particles
3
Channel 2
6
Cumulative count—three 0.3 µm
and two 5.0 µm particles
English
21
Summary of Contents for MET ONE 6003
Page 2: ...English 3 Fran ais 24 Espa ol 48 72 91 113 2...
Page 13: ...Figure 9 5 pin connector wiring Figure 10 10 pin connector wiring English 13...
Page 75: ...1 3 1 1 ModBus FX 2 Status 10Base T 100Base T 2 2 1 3 2 4 3 3 75...
Page 77: ...3 m 10 ft 3 m 10 ft 1 m 3 m 10 ft schedule 80 PVC Cobolite DIN DIN 5 77...
Page 78: ...5 DIN 79 6 90 90 T 78...
Page 81: ...9 5 10 10 81...
Page 83: ...12 1 5 2 6 4 20 mA 3 24 VDC 7 24 VDC 4 8 13 1 3 2 4 VHP IPA 83...
Page 89: ...3 PC CSV 15 1 1 7 cfm L min 2 8 cfm L min 3 9 RH 4 10 5 11 6 1 89...
Page 90: ...9 9 1 90 X 90 X FMS 90...
Page 95: ...2 2 1 3 2 4 3 3 3 1 3 5 2 4 3 0 0 1 cfm 0 3 m 0 5 m F 1 1 0 cfm 0 5 m N 95...
Page 97: ...3 m 3 m 1 m 3 m 80 PVC Cobolite DIN DIN 5 97...
Page 98: ...5 DIN 99 6 90 90 T 98...
Page 99: ...6 1 3 2 90 4 T 2 3 m2 1 2 2 95 30 cm 30 cm 4 4 Hytrel Bevaline Tygon Hytrel Bevaline Tygon 99...
Page 112: ...HACH Japan 9 9 1 112 X 112 X FMS 1 112...
Page 114: ...5 1 CE 1 ISO21501 4 CD 114...
Page 119: ...DIN DIN 5 5 DIN 119...
Page 120: ...120 6 90 90 T 6 1 3 2 90 4 T 2 3 m2 25 ft2 1 120...
Page 123: ...9 5 10 10 123...
Page 125: ...12 1 5 2 6 4 20 mA 3 24 VDC 7 24 VDC 4 8 13 1 3 2 4 VHP IPA 125...
Page 133: ...9 9 1 133 X 133 X FMS 1 133...
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