EDS6-122A [FUJI]
VORTEX FLOWMETER (DELTA FLOWPET); 涡街流量计( DELTA FLOWPET )型号: | EDS6-122A |
厂家: | FUJI ELECTRIC |
描述: | VORTEX FLOWMETER (DELTA FLOWPET) |
文件: | 总12页 (文件大小:209K) |
中文: | 中文翻译 | 下载: | 下载PDF数据表文档文件 |
VORTEX FLOWMETER (DELTA FLOWPET)
DATA SHEET
FMR, M
This instrument is a Karman vortex flowmeter capable of
measuring the flow rate of liquid, gas, and vapor. The heavy-
duty detecting section made of stainless steel ensures high
accuracy of the instrument.
FEATURES
1. The total flow and instantaneous flow rate can exter-
nally be selected and monitored.
2. The standard is a rainproof type that can be used out-
doors.
3. Heavy-duty stainless steel main body having the struc-
ture without moving part ensures high durability
4. It does not impose limitations to its mounting positions.
5. Remotely controllable external output (total pulse or
instantaneous analog) is available.
SPECIFICATIONS (Type: FMR)
Item
Description
Nominal diameter, connection
Fluid
10, 15, 25, 40, 50, 80, 100mm, wafer type
Liquid, gas, vapor
Flow rate range
See Table 1
Permissible
Fluid
-10 to +80°C, or -10 to +200°C
-10 to +50°C
temperature
range
Environment
Maximum pressure
Depends on connection standard (designed pressure: 5 MPa)
Within ±1% of full scale (or, for nominal diameter 10 mm, within ±2% of full scale).(Note)
For liquid: FS = 8 m/s. For gas with nominal diameter 10 to 50 mm: FS = 30 m/s.
For gas with nominal diameter 80, 100 mm: FS = 50 m/s.
Accuracy
Length of straight pipe
Main body
See Fig. 3
SCS14A (for nominal diameter 10 mm, main body: SCS14A, vortex source: SUS316)
10 to 25mm: SUS316, 40 to 100mm: XM19 (made of super stainless steel)
SCS13A
Sensor
Material
Mounting cylinder
Transducer case
Mounting posture
Polycarbonate
No limitation from viewpoint of accuracy
Avoid site exposed to direct sunshine
Installation site
(1), (2), (3), or (4) can be selected by push button.
Flow rate unit [L, m3, g, kg, t, L (normal), m3 (normal)], and
decimal point are indicated on LCD.
(Orientation of the indicator can be adjusted freely over 360°.)
* Alarm is indicated with LED (red).
(1) Total flow: 8 digits
Indicator
(LCD digital display)
(2) Instantaneous flow rate (per hour) 5 digits
(3) Instantaneous flow rate (per minute) 5 digits
(4) Resettable total flow 7 digits
Battery type
None
4 to 20 mA DC analog (instantaneous flow rate) (see Fig. 1 Load Resistance Range); or
Pulse output (open collector) (available if with indicator).
Output
signal
Externally
energized type
Rated values: 30 V DC, 20 mA. ON voltage: 1 V or less.
Pulse width: 30 ms (correct pulse) or 1 ms (non-correct pulse).
Alarm output (H, L) ... Open collector.
Rated values: 30 V DC, 20 mA. ON voltage: 1 V or less.
Cable
5-core shielded cable (1 m) ... For externally energized type
Battery type
Lithium battery unit. Life time: 4 years (at normal temperature) ... With weak battery alarm function.
12 to 45V DC
Power
supply
Externally
energized type
Rainproof type (conforms to JIS C0920 protection class 3, IP53s), non-explosion-proof type.
Direct sunshine is not permissible.
Structure
Backup
Parameter settings and total value are held in EEPROM
Note: Plus ±0.5% of full scale in case of analog output.
EDS6-122a
Date Aug. 10, 2005
FMR, M
CODE SYMBOLS
LOAD RESISTANCE RANGE [Fig. 1]
4 5 6 7 8
2
9 10
Digit
1,550
Description
Note FMR
Digit
4
5
6
<Nominal diameter>
10mm
15mm
25mm
40mm
50mm
80mm
100mm
0 1 0
0 1 5
0 2 5
0 4 0
0 5 0
0 8 0
1 0 0
Operation range
600
7
<Connecting flange standard>
JIS 10k
JIS 16k
JIS 20k
JIS 30k
ANSI 150
ANSI 300
JPI 150
1
2
3
4
5
6
7
8
300
Note1
Note1
Note1
Note1
0
12
24
37
45
Power voltage (VDC)
JPI 300
8
9
<Modification No.>
2
<Applied fluid>
For gas (Max. 80˚C)
For liquid (Max. 80˚C)
For gas and saturated vapor
(Max. 200˚C)
G
L
S
Note2
Note2
For liquid (Max. 200˚C)
H
10 <Output signal>
None (battery drive type)
0
1
2
3
4
Non-correct pulse output
Corrective pulse output
4 to 20mA DC output
Upper and lower limit alarm
output
Correct pulse + upper and
lower limit alarm output
Non-correct pulse + upper
and lower limit alarm output
5
6
Note 1) Nominal diameter 10 mm is not in application range.
Note 2) Radiator fins are provided if applied to hot gas, saturated vapor,
or hot liquid.
In case of saturated vapor, nominal diameter 10 mm cannot be selected.
Pressue loss [Fig. 2]
• Nominal diameter: 10 to 100mm
∆P = c · ρ
∆P: Pressure loss (mmH
ρ: Density (kg/m3)
To find a pressure loss
coefficient, read C value of
the intersection point of the
flow rate (Q) and the slant
line of the nominal
2
O)
15
10
1500
1000
5
500
2
1
200
100
50
diameter and assign the C
value to the above
0.5
equation.
0.2
0.1
20
10
5
0.05
0.02
0.01
2
1
Flow rate of liquid (m3/h)
Flow rate of gas/steam (m3/h)
0.1 0.2 0.5
1
2
5
10 20
50 100 200 500 103
1
2
5
10 20
Flow rate (m3/h)
50 100 200 500 1032000 5000104
2
FLOW RATE RANGE [Table1]
¡Liquid
Retain the minimum flow rate in Tables A (according to specific gravity) and B (according to viscosity), whichever is the
greater.
Table A (according to specific gravity)
Table B (according to viscosity)
unit: m3/h
Viscosity unit: mm2/s
Kinem
Specific gravity
Max.
flow
rate
Minimum flow rate (m3/h)
Minimum flow rate
atic
viscosity
Nominal
Nominal
0.5 0.6 0.7 0.8 0.9 1.0 1.1 1.2
diameter mm
1
2
3
5
10
15
20
25
30
40
diameter mm
10
0.3 0.3 0.3 0.2 0.2 0.2 0.2 0.2 2.2
0.4 0.4 0.4 0.4 0.3 0.3 0.3 0.3 4.7
1.0 0.9 0.9 0.8 0.8 0.7 0.7 0.7 16
1.7 1.5 1.4 1.3 1.3 1.2 1.2 1.1 31
2.7 2.5 2.3 2.2 2.1 2.0 1.9 1.8 53
6.0 5.5 5.1 4.7 4.6 4.6 4.6 4.6 118
11 11 11 11 11 11 11 11 205
10
0.3
1.2
0.4
1.8
0.6
2.9
1.8
2.8
3.6
1.1
15
25
15
25
0.4
5.9
6.5
7.1
11
Unmeasurable
55
40
40
14
15
16
21
50
50
24
26
28
80
80
38
45
100
100
14
For hatched area, retain Table A (according to specific gravity).
¡Gas
The flow rate range is indicated in actual base.
If the flow rate was given at standard status, be sure to convert it to actual flow rate and then, according to this table,
determine the flow rate range or nominal diameter.
Minimum flow rate (m3/h)
Maximum
Nominal
diameter mm
10
flow rate (m3/h)
0.38
4.5
9.4
23
0.7
3.3
6.9
17
1.2
2.6
5.4
13
2.0
2.2
4.6
12
3.6
1.8
3.8
10
6
11
1.3
19
1.1
34
0.9
(60)
0.7
1.5
8.5
18
15
3.2
8
2.6
7
2.2
6
1.8
5
1.5
4
25
60
119
40
39
63
29
46
23
37
19
31
16
26
56
95
13
11
9
8
6
50
22
47
80
18
38
66
15
12
10
199
80
140
240
101
174
80
67
32
55
26
45
22
37
741
100
140
115
1280
Gas kind
Argon
Air
Density kg/Nm3
1.785
Gas pressure MPa (gauge), temperature 20°C
Reference: Gas viscosity
0.007 (mPa·s)
0.017
—
—
—
—
—
—
—
—
—
—
—
0
0.02
0.07
0.05
0.01
0.07
0.12
0.20
0.17
0.1
0.26
0.4
0.55
0.85
0.75
0.5
1.05
1.5
2
3.6
—
1.293
2.7
2.5
1.7
2.8
Oxygen
Carbon dioxide
Nitrogen
1.429
0
0.35
0.23
0.42
1.35
0.95
1.55
4.4
3.3
—
0.0192
0.0138
0.0166
1.977
—
—
1.251
0.21
0.85
™Determination of minimum flow rate
In Table D, find a value that is nearest to and lower than
the pressure of gas desired, trace it upward in the same
column, and retain the value at the intersection with the
desired nominal diameter in Table C as minimum flow rate.
If it is necessary to exactly determine a minimum flow rate,
proceed to a calculation in the following manner.
Example 1
Suppose the fluid is air, the temperature 20°C, the pres-
sure 0.5 MPa (gauge), and the nominal piping diameter
80 mm. How can the minimum flow rate nominal diam-
eter be found?
The minimum flow rate at nominal diameter of 80 mm at
air of 0.4 and 0.85 MPa in Table D is, according to Table
C, 47 and 38 m3/h, respectively. At a pressure of 0.5
MPa, therefore, the minimum flow rate is, according to
interpolation,
Example 2
Suppose the fluid is carbon dioxide, the temperature 5
to 30°C, the pressure 0.8 to 1.5 MPa, and the maximum
flow rate 800 m3/h (normal). How can the minimum flow
rate and the applicable nominal diameter be found? First
obtain the actual maximum flow rate, and then deter-
mine the nominal diameter. For calculating the maxi-
mum flow rate when the temperature and pressure have
ranges, retain the higher temperature and lower pres-
sure. Therefore, the actual maximum flow rate is:
273.15+30
273.15
0.1013
0.1013+0.8
QMax. = 800 ×
×
99m3/h
Therefore, the nominal diameter is 40 mm. For obtain-
ing the minimum flow rate, retain the lower tempera-
ture and higher pressure.
From Tables C and D, the minimum flow rate at nominal
diameter of 40 mm and pressure of 0.95 MPa is 9 m3/h
or, at pressure of 1.7 MPa, is 8 m3/h. Therefore, accord-
ing to interpolation,
0.85
0.85
-
-
0.5
0.4
Qmin = 38+
× (47-
38) 45m3/h
Or the minimum flow rate can be obtained upon calcu-
lating an actual density.
Actual density ρ of air at 20°C and 0.5 MPa is:
1.7-1.5
Qmin = 8+
× (9-
8) 8.3m3/h
1.7
-0.95
Note: If the calculated result has a value below decimal point, truncate it
for maximum flow rate, or round it up for minimum flow rate.
273.15
273.15+20
0.1013+0.5
0.1013
ρ = 1.293 ×
×
7.04kg/m3
From Table C, the minimum flow rate at density of 6 and
nominal diameter of 80 mm is 47 m3/h and, likewise, at
density of 11, is 38 m3/h. At density of 7.04, therefore,
the minimum flow rate is, according to interpolation,
11-7.04
11-6
Qmin = 38+
× (47
-
38)
45m3/h
3
FMR, M
¡Saturated vapor
Unit: kg/h
Nominal diameter
40mm
Pressure
MPa
15mm
25mm
50mm
80mm
100mm
(gauge)
Minimum Maximum Minimum Maximum Minimum Maximum Minimum Maximum Minimum Maximum Minimum Maximum
0.049
0.098
0.196
0.294
0.392
0.490
0.588
0.686
0.785
0.883
0.981
1.08
5.4
6.1
8.0
9.5
15
20
14
15
20
24
27
30
33
36
39
42
44
47
49
52
54
51
67
22
25
33
40
45
51
56
61
65
70
74
78
83
86
90
102
133
194
254
313
371
429
487
545
602
661
718
776
827
885
36
41
172
224
79
90
641
834
135
154
202
241
277
310
342
372
400
428
455
481
507
529
553
1100
1440
2090
2730
3370
4000
4620
5240
5860
6480
7100
7730
8350
8900
9520
29
98
54
325
118
141
162
181
199
217
234
250
265
281
295
308
323
1210
1580
1950
2310
2670
3030
3390
3750
4110
4470
4830
5150
5510
38
128
158
187
216
245
275
303
333
362
391
417
446
64
425
11
47
74
524
13
14
15
16
17
18
19
20
21
22
56
83
621
65
91
718
73
99
815
82
107
114
121
128
135
141
147
912
91
1000
1100
1200
1290
1380
1480
99
108
117
125
133
1.18
1.27
1.37
Transducer integration reading unit
The integration reading is in the same unit system as for flow rate.
<Example> If the flow rate is in “m3/h”, the integration reading is in “m3”. The number of digits below decimal point is
the same as for correct pulse unit. (If the value of correct pulse is “1” or more, the decimal point will not be
indicated.)
Transducer correct pulse unit
The present table indicates correct pulse units for volumetric flow rate.
In case of fixed conversion to other than volumetric flow rate such as normal flow rate, refer to Tables A through D.
(Note)
Maximum flow rate m3/h
(non-correct pulse
frequency Hz)
Non-correct pulse
output frequency Hz
Q: Volumetric flow rate m3/h
Correct pulse unit
Nominal diameter
mm
Nominal meter coefficient L/P
(nominal non-correct pulse unit)
Fluid
Standard m3/P
10
15
2.2 (142.6)
4.7 (97.83)
0.004285
0.01335
0.08065
0.04556
0.1001
0.3328
0.7567
0.02143
0.06673
0.4033
0.2278
0.5005
1.664
64.8 Q
20.8 Q
3.44 Q
6.10 Q
2.78 Q
0.835 Q
0.367 Q
13.0 Q
4.16 Q
0.689 Q
1.22 Q
0.555 Q
0.167 Q
0.0734 Q
0.01
0.01
0.01
0.01
0.1
0.1
0.1
0.01
0.01
0.1
0.1
0.1
1
25
16 (55.11)
31 (189.0)
53 (147.1)
118 (98.49)
205 (75.25)
8.5 (110.2)
Liquid
40
50
80
100
10
15
18 (74.93)
60 (41.33)
119 (145.1)
199 (110.4)
741 (123.7)
1280 (93.98)
25
Gas
40
50
80
100
3.784
1
Note: In case of saturated vapor, multiply it by density. (Nominal meter coefficient) × density kg/L
4
¡Case 3
Correct pulse unit for fixed conversion
Table C
Use the following unit selection table for determining a
correct pulse unit for fixed conversion to standard status
(normal) flow rate or mass flow rate by multiplying the volu-
metric flow rate by conversion coefficient.
Nominal diameter
mm
Operating fluid density
kg/m3
Standard correct
pulse unit kg
0.50 to 4.66
4.67 to 46.6
46.7 to 60.0
0.50 to 1.49
1.50 to 14.9
15.0 to 60.0
0.50 to 2.47
2.48 to 24.7
24.8 to 60.0
0.50 to 4.38
4.39 to 43.8
43.9 to 60.0
0.50 to 1.99
2.00 to 19.9
20.0 to 60.0
0.50 to 1.99
2.00 to 19.9
20.0 to 60.0
0.50 to 2.64
2.65 to 26.4
26.5 to 60.0
0.01
0.1
1
Case
1
Fluid
Fixed conversion
Use Table:
Table A
10
15
Conversion to
standard (normal) status
Gas
0.01
0.1
1
2
3
4
Saturated vapor Conversion to mass flow rate Table B
Gas
Conversion to mass flow rate Table C
Conversion to mass flow rate Table D
Liquid
0.1
1
25
¡Case 1
Calculate the “conversion coefficient” by:
10
0.1
1
273.15
T+273.15
P+0.1013
0.1013
Z
Z
0
Conversion coefficient =
×
×
40
10
(Unless particularly affected, retain Z0 /Z = 1.)
T: Operating temperature (°C)
P: Operating pressure (MPa [gauge])
Z0: Compressibility factor at standard status
Z: Compressibility factor at operating status
0.1
1
50
10
0.1
1
80
Table A
10
1
10
Nominal diameter
mm
Standard correct pulse
unit m3 (normal)
Conversion coefficient
100
100
0.50 to 4.66
4.67 to 46.6
46.7 to 60.0
0.50 to 1.49
1.50 to 14.9
15.0 to 60.0
0.50 to 2.47
2.48 to 24.7
24.8 to 60.0
0.50 to 4.38
4.39 to 43.8
43.9 to 60.0
0.50 to 1.99
2.00 to 19.9
20.0 to 60.0
0.50 to 1.99
2.00 to 19.9
20.0 to 60.0
0.50 to 2.64
2.65 to 26.4
26.5 to 60.0
0.01
0.1
1
10
15
¡Case 4
0.01
0.1
1
Table D
Nominal diameter
mm
Standard correct
pulse unit kg
Specific gravity of liquid
0.1
1
1
1
10
0.500 to 2.00
0.500 to 0.749
0.750 to 2.00
0.500 to 1.23
1.24 to 2.00
0.500 to 2.00
0.500 to 0.999
1.00 to 2.00
0.500 to 2.00
0.500 to 1.32
1.330 to 2.00
25
10
0.1
1
15
10
10
40
25
40
100
10
10
0.1
1
10
50
50
100
100
100
1000
10
0.1
1
80
80
100
10
1
100
10
100
¡Case 2
Table B
Nominal diameter Saturated vapor pressure
Standard correct
pulse unit kg
mm
MPa
0.01
0.1
0.1
1
0.05 to 0.167
0.168 to 1.46
0.05 to 0.355
0.356 to 1.46
0.05 to 0.745
0.746 to 1.46
0.05 to 0.265
0.266 to 1.46
0.05 to 1.03
1.04 to 1.46
0.05 to 0.392
0.393 to 1.46
15
25
40
0.1
1
0.1
1
50
1
80
10
1
100
10
5
FMR, M
Installation procedure [Fig. 3]
1. Length of straight pipe: Conforms to ISO 5167
D = Nominal diameter.
Length (L) of
straight pipe.
D: Nominal
diameter.
No.
Piping status
L
Remarks
8D
Flow
Fuji’s
regulating
pipe
For nominal diameter 25 mm or more
(for details, contact us)
Honey vane L
1
2
L
12D
Flow
Flow straightener
L
Reducer
15D or more If coaxial reducer is located upstream
23D or more If elbow is located upstream
Flow
L
Flow
L
If 2 elbows are located horizontally
Elbow
3
4
25D or more
upstream
Flow
L
40D or more If 2 elbows are located vertically upstream
Flow
Fully
L
L
open
Fully open
sluice valve
If fully open sluice valve is located
15D or more
upstream
Flow
Flow
Half
open
If half open sluice valve, abrupt restrictor,
Half open
sluice valve
5
or otherwise excessively flow disturbing
objects upstream
50D or more
Notes
1. The concept is intended for Sch.40 pipe. Therefore, use Sch.40 pipe as standard.
2. Be sure to provide a straight pipe section of 5D or more downstream.
3. Provide pressure and temperature detectors downstream the flowmeter (figure below).
Pressure tap
Temperature tap
4 to 6.5D
2 to 4.5D
Flow-in
direction
D: Nominal diameter
2. Thermal insulation procedure
3. Considerations regarding process conditions
(1) Prevention of cavitation
If liquid is used, so that no cavitation will occur, secure a
line pressure higher than calculated by:
P ≥2.60 ∆P+1.25Po (MPa [abs])
For thermal insulation of piping, we recommend you to
adopt a simplified thermal insulation (without mortar fin-
ish) on the flowmeter mounting section for facilitating dis-
assembly or checkup. This arrangement allows to loosen
flowmeter connecting bolts without breaking the thermal
insulating material covering.
where,
∆P: Pressure loss (MPa)
P0: Liquid vapor pressure (MPa [abs])
(2) Pulsation
Arrange so connecting
bolts can be loosened
upon removing simplified
thermal insulation material.
Simplified thermal insulation
(convenient if divisible)
If the flowmeter is to be installed on a line where Roots
blower, compressor, or other pulsating pressure generat-
ing instruments are mounted, it may be affected by pulsa-
tion. The allowable pulsating pressure is calculated by:
Thermal insulation
of piping
2.25ρV2
100
N <
(kPa)
where,
N: Pulsating pressure (kPa)
ρ: Density (kg/m3)
V: Minimum velocity (m/s)
Arrange so flange tightening
nuts can be loosened.
Span
6
OUTLINE DIAGRAM (Unit: mm)
For liquid and gas (80°C max.)
H (mm)
10 to +80°C
Approximate mass (kg)
Nominal
diameter (mm)
φd (mm)
L (mm)
I (mm)
φD (mm)
-
-10 to +200°C
-
10 to +80°C
-10 to +200°C
10
15
25
40
50
65
65
65
80
80
32.5
32.5
32.5
40
40
40
10
40
40
67
81
91
232
232
232
217
221
237
257
264
264
264
249
253
269
289
1.4
1.4
2.0
2.7
2.8
5.6
9.3
1.6
1.6
2.2
2.9
3.0
5.8
9.5
14.5
26.6
37.6
48.5
72.4
95.2
80
100
100
125
126
156.2
48
Alarm 1 indicator LED *
Alarm 2 indicator LED *
83
AL1
DELTA
AL2
* No output signal. Not provided in case
of battery type/type code 10th digit: 0.
3
kgLtm /hmin(nomal)
M
R
ESET
ODE
(Externally energized type only)
Power and output cable
Flow-in direction
I
φd
L
7
FMR, M
OUTLINE DIAGRAM (Unit: mm)
For high temperature (200°C max.) of liquid, gas and vapor
H (mm)
10 to +80°C
Approximate mass (kg)
Nominal
diameter (mm)
φd (mm)
L (mm)
I (mm)
φD (mm)
-
-
10 to +200°C
-
10 to +80°C
-
10 to +200°C
10
15
25
40
50
65
65
65
80
80
32.5
32.5
32.5
40
40
40
10
40
40
67
81
91
232
232
232
217
221
237
257
264
264
264
249
253
269
289
1.4
1.4
2.0
2.7
2.8
5.6
9.3
1.6
1.6
2.2
2.9
3.0
5.8
9.5
14.5
26.6
37.6
48.5
72.4
95.2
80
100
100
125
126
156.2
48
Alarm 1 indicator LED *
Alarm 2 indicator LED *
83
AL1
DELTA
AL2
* No output signal. Not provided in case of
battery type/type code 10th digit: 0.
3
kgLtm /hmin(nomal)
M
ODE
R
ESET
(When 10th digit of the
code symbols is 2, or 3 only)
With 1m cable
φ70
φ70
Flow-in direction
I
φd
L
CONNECTION DIAGRAM (with 1m cable)
<Analog output>
<Correct or non-correct pulse output>
Analog output
4 to 20mA
SUP (Brown)
SUP (Brown)
Max.
SIG3 (Yellow)
20mA
12 to 45V
12 to 45V
DC
Max.
30V
DC
COM (Green)
COM (Green)
FMR
FMR
<Upper and lower limit alarm output>
(DC13.5V)
SUP (Brown)
SUP (Brown) SUP.
Max.
20mA SIG1 (Gray)
Integrating
meter
FMM
SIG3 (Yellow) SIG.
Max.
12 to 45V
DC
20mA SIG2 (White)
Max.
Max.
30V
COM (Green)
0V
COM (Green)
30V
FMR
¡Polarity
Wire color
Brown
Gray
FMR
<Correct or non-correct pulse output
+ upper and lower limit alarm output>
Description
SUP (and analog output)
SUP (Brown)
Max.
20mA SIG1 (Gray)
SIG. 1 ... Alarm 1 output (upper limit/lower limit)
SIG. 2 ... Alarm 2 output (upper limit/lower limit)
SIG. 3 ... Correct/non-correct pulse output
COM
Max.
20mA SIG2 (White)
12 to 45V
DC
White
Max.
30V
Max.
20mA SIG3 (Yellow)
Max.
30V
Yellow
Green
Max.
30V
COM (Green)
FMR
Note: Analog output and pulse output or upper/lower limit alarm cannot be combined.
8
INTEGRATING METER (Type: FMM)
OVERVIEW
This instrument is a compact type LCD display counter that
receives pulse signal from vortex flowmeter and indicates
total flow and digital instantaneous flow rate (with power
supply for the oscillator built in).
Flush mount type
FEATURES
1. One-chip CPU mounted on this instrument has permit-
ted many functions.
Pressing pushbutton enables switching to the follow-
ing 4 display modes.
Wall type
q Total flow, w Zero reset total, e Instantaneous flow
rate (switching between per hour display and per minute
display is possible.), r Meter coefficient
2. This instrument has a function of a scaler and of a di-
vider.
3. It converts input pulse signal representing flow rate into
an analog signal through built-in F/I conversion circuit.
(Option)
4. Equipped with pulse output before or after the correc-
tion
SPECIFICATIONS
Item
Description
Display method
LCD Height of letters: 12.7mm
Pressing "MODE" switch allows the following display modes to rotate. (Mode display such as b1, b2, and c is displayed on
the most significant and the second digit of the display window.)
Mode
Display
Total flow
Instantaneous flow rate
Instantaneous flow rate
Total flow
Divided value*
Meter coefficient*
Number of cycle samples
Digit
Description
Not resettable to 0
Per hour
8
5
5
7
1
5
3
b1
b2
c
d
F
**
**
Per minute
Resettable to 0
0 (1/1), 1 (1/10), 2 (1/100)
0.0001 to 1.9999
1 to 128
Items to be
displayed
A
*: Not displayed when "SELECT" switch is turned to "0" or "8".
When "SELECT" switch is turned to "4" or "c", the values of the above 7 items are displayed.
The setting of "Divided value", "Meter coefficient", and "Number of cycle samples" can be changed easily by the operation
on the front panel of this instrument. However, do not change them except when the change is unavoidable, because the
setting has been adjusted to meet the specifications of the flowmeter combined to this instrument.
**: Effectively indicated only when the input pulse has small frequency variation.
Weak battery voltage alarm
Trigger level
"BATT" blinks.
3V DC hysteresis 0.8V DC
200Hz (50Hz in the case of contact input)…..Standard
Response pulse
Note that it can be followed up to 2kHz by setting the input division to 1/10 or 1/100. When the scaler value is more than
1, 150Hz max.
Power supply for the oscillator
Types of signals
Capacity
13.5V DC or 24V DC, 50mA, with overcurrent protection
Open collector pulse, Corrective pulse (the same unit as the display), Standard…or non-corrective pulse
30V DC, 50mA max.
1.5V DC max.
1ms, 50ms, 100ms, 250ms
ON-state voltage
Pulse width
4 to 20mA DC and 1 to 5V DC
Signal
Current output: 350Ω max. When output voltage is short-circuited: 600Ω max. Output voltage: 1MΩ min.
Within ±0.1% of the full scale
Within 1% of the full scale at 10% of the full scale
4(2) to 19.99Hz: 6.5s [The value in ( ) shows the value when an internal step-up circuit is used.]
Load resistance
Conversion accuracy
Ripple
Full scale puls
20 to 199.9Hz: 2.1s
200 to 2000Hz: 1.5s
Time constant
Open MOS-FET × 2
Output signal
Capacity
230 V AC/340 V DC, 200 mA or less
16 Ω or less (leakage current 1 µA or less when OFF)
ON resistance
0.0001 to 1.9999, Adjustable in steps of 0.0001
Selection of the unit to be displayed: 1/1, 1/10, or 1/100
The counter display value and setting are backed up by built-in E2PROM
-10 to +50 C
85 to 264V AC, 50/60Hz
16VA max.
Batch power terminals and ground terminal, 10MΩ or more, 500V DC megger
Batch power terminals and ground terminal, 1500V AC, 1 minute
Approx. 0.6kg (flush mount type), approx. 0.8kg (wall type)
Resin frame and aluminum case (flush mount type), plastic case (wall type)
Scaler
Dividing
Backup function
Ambient temperature
Power voltage
Power consumption
Insulation resistance
Withstand voltage
Mass
Case
Finish color of the instrument frame Munsell color code N1.5 equivalent
9
FMR, M
CODE SYMBOLS
4 5 6 7 8 9 10
3
FMM
Digit
Digit
Description
4
5
6
<Power voltage>
85 to 264V AC 50/60Hz
Input signal
3-wire open corrector pulse
Output signal (open collector)
Pulse width: Approx. 1ms
Pulse width: Approx. 50ms
Pulse Width: Approx. 100ms
Pulse width: Approx. 250ms
7
6
2
5
6
7
7
<Analog output and alarm output signal>
None (Standard)
0
1
Analog output (4 to 20mA DC / 1 to 5V DC) and upper/lower limit alarm output
8
9
<Modification No.>
Additional function
3
None (Standard)
With a battery for lighting the LCD when power is OFF
<Construction>
0
1
10
Flush mount type
Wall type
1
2
OUTLINE DIAGRAM (Unit: mm)
(Flush mount type)
105.5
6.5
96
Upper terminals
BATT
ALARM1
ALARM2
RESET
MODE
Lower terminals
“RESET” button
“ALARM1” LED*
“MODE” button
“ALARM2” LED*
Mounting bracket
* Only for analog/alarm output (Code symbol 7th digit: “1”)
PANEL CUTOUT DIMENSIONS
min. 120
+0.8
92
0
10
OUTLINE DIAGRAM (Unit: mm)
(Wall type)
125
110
Mounting hole
4 - φ5.4
BATT
ALARM1
ALARM2
RESET
MODE
59.7
96
Applied cable diameter: φ5.5 to φ7
CONNECTIONS
WHEN PLACING AN ORDER, SPECIFY:
1. Integrating meter type
Terminal
No.
Display
Description
Category
2. Type of combined flowmeter
3. Unit of integration and output pulse
4. Kind of output signal
M Correct pulse / M Non-correct pulse
5. Source voltage
1
2
3
4
5
6
7
8
1
2
3
4
5
6
7
8
SUP.
SIG.
0V
Flow rate
input
FLOW
INPUT
3-wire pulse input
Lower
+
terminals
PULSE
OUT
Pulse
output
Open collector output
6. Installation site conditions, etc.
-
L1 (+)
L2 (-)
POWER
Power
AC power
Grounded (Earth)
4 to 20mA DC <option>
Grounding
+
-
Current
output
ANALOG
OUT
+
-
Voltage
output
1 to 5V DC <option>
Upper
terminals
ALARM1
Open MOS-FET <option>
(non polar)
Alarm
output
OUT
Alarm
output
ALARM2
OUT
Open MOS-FET <option>
(non polar)
Terminal connecting screw: M3.5
11
FMR, M
For enquiry, show us the following specifications.
Fill out the required portions or make check marks in the squares.
Setting item
1. Measured fluid
2. Range of flow rate
Specification
1
m3
g
kg
t
*
Max.
* Analog full scale corresponds to maximum value.
Usual
Min.
L
/h
kL
/min
normal
°C
MPa [gauge]
Density
actual
3. Temperature range
4. Pressure range
Max.
Usual
Usual
Min.
Min.
Max.
5. Gravity or density
Gravity
kg/m3 [normal]
kg/m3 [actual]
2
mm2/s
at
°C
*
6. Viscosity
mPa·s (cP)
7. Connection
Nominal diameter
Flange standard
mm,
K
",
JIS
ANSI/JPI
RF
3
*
8. Correction reference
Reference temperature
°C
Reference pressure
MPa [gauge]
9. Pulse signal
Non-correct pulse, Correct pulse
10. Special comment
*1: Specify vapor in terms of kg/h.
*2: Depending on the viscosity, the measurement could be impossible. (See flow rate range table B.)
*3: In case of normal flow rate, specify reference temperature and reference pressure.
In case of vapor, specify reference pressure.
Caution on Safety
*Before using this product, be sure to read its instruction manual in advance.
Head Office
Gate City Ohsaki, East Tower, 11-2, Osaki 1-chome,
Shinagawa-ku, Tokyo 141-0032, Japan
http://www.fesys.co.jp/eng
Instrumentation Div.
International Sales Dept.
No.1, Fuji-machi, Hino-city, Tokyo, 191-8502 Japan
Phone: 81-42-585-6201, 6202 Fax: 81-42-585-6187
http://www.fic-net.jp/eng
Printed in Japan
Information in this catalog is subject to change without notice.
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