Fema M Series User manual

Series M . M60-LC
Panel meter for load cells
Digital panel meter for load cells. Provides excitaon voltage to power up to 8 cells. Standard
96 x 48 mm size (1/8 DIN). Reading with 6 digit display. Accepts 4 and 6 wire load cells, includes ‘sense’
funcon, fast access to alarm setpoints, tare and ‘auto-tare’ funcons, ‘on power up’ funcons, stabil-
ity alarms, congurable operator menu, congurable led brightness. Universal AC and DC power. Up
to 3 oponal modules for output and control (relays, transistor, control SSR, analog outputs, Modbus
RTU communicaons, RS-485 ASCII, RS-232, ...)
www.fema.es
Tel. [phone] inf[email protected]
DIGITAL PANEL METERS
4507r05
User’s Manual
ELECTRONICS FOR INDUSTRIAL AUTOMATION
PANEL METERS . SIGNAL CONVERTERS . LARGE DISPLAYS
Weight
Kg

FEMA ELECTRÓNICA . SERIES M . M60-LC
2
1. Panel meter M60-LC
Panel meter for load cells, size 96 x 48 mm (1/8 DIN)
Digital panel meter, with 96 x 48 mm (1/8 DIN) size and 6
digits with 14 mm digit height, for load cell signals. Pro-
vides excitaon voltage congurable to +5 Vdc or +10 Vdc
to power up to 8 standard 350 Ohms cells. Scalable read-
ing from 999999 to -199999 with congurable decimal
point.
Tare funcon, with congurable controls, and ‘auto-tare’
funcon for automac tare correcon when weight is re-
moved from the cell. Three working modes with dierent
acquision speeds and noise rejecon to 50 and 60 Hz.
Output and control opons with 1, 2 and 3 relays, isolated
analog outputs, Modbus RTU communicaons, transistor
outputs, SSR control outputs, RS-485 ASCII and RS-232.
Special opons up to 4 and 6 relays.
Independent alarms congurable as maximum or mini-
mum, with acvaon at setpoint or when reading is
stable, with 1 or 2 setpoints per alarm, hysteresis, inde-
pendent acvaon and deacvaon delays, congurable
inverted acvaon of the relay and congurable locked
alarms (see secon 1.12.8).
Front protecon IP65. Connecons by plug-in screw ter-
minals. For industrial applicaons.
Funcons included :
• tare accessible from frontal key or rear contact (see sec-
on 1.11)
• automac ‘auto-tare’ funcon (see secon 1.12.4)
• access to gross weight value and tare value (see sec-
on 1.9.5)
• funcon ‘On Power Up’ for automac acvaon of
funcons at start-up (see secon 1.12.14)
• scale factor for easy modicaon of reading units (see
secon 1.12.5)
• ‘stock units’ funcon to count units (see secon 1.12.6)
• access to the measured signal value (in mV), excitaon
current provided (in mA) and real excitaon voltage (see
secon 1.12.13)
• congurable ‘Fast access’ menu (key ‘UP’ (5)) with
access to selected funcons (see secon 1.12.13)
Mulple display lters, memory for maximum and mini-
mum, password, 5 congurable brightness levels.
1. Power and signal connecons
- connect the power (see secon 1.8)
- connect the signal (see secon 1.8)
- read recommendaons to connect the ‘sense’ (see secon
1.8.1) and for load cell ground connecons (see secon
1.8.2)
2. Inial setup (see secon 1.12.2)
- theorecal conguraon of the cell (obtain the load cell
data : sensivity, load and excitaon) and congure the
instrument
- apply the empirical conguraon of the cell (apply the
high and low ‘eld correcon’)
- assign the ‘system zero’
3. Advanced conguraon (oponal) (see secon 1.12.7)
- tare conguraon, see secons 1.11 and 1.12.4
1.1 How to use this manual
- funcon ‘stock units’ (see secon 1.12.6)
- scale factor (see secon 1.12.5)
- acquision modes (see secon 1.9.1)
4. Congure the alarms (oponal) (see secon 1.12.8)
5. Display lters (oponal) (see secon 1.12.10)
6. Congure operator controls (oponal)
- congure the rear control (see secon 1.12.11)
- congure the front key ‘LE’ (3)(see secon 1.12.12)
- congure the fast access (key ‘UP’ (5)) (see secon 1.12.13)
7. Congure other funcons (oponal)
- congure the ‘on power up’ funcon (see secon 1.12.14)
- congure the password and brightness level (see secon 1.12.17)
8. Congure the output and control opons: analog (AO) or
serial (RTU, S4, S2) (see secon 1.12.18)
If this is the rst me you are conguring this instrument,
below are the steps to follow to install and congure the in-
strument. Read all the manual secons in order to have a
full and clear view of the characteriscs of the instrument.
Do not forget to read the installaon precauons
at secon
1.19 .

FEMA ELECTRÓNICA . SERIES M . M60-LC
3
1. Panel meter M60-LC . . . . . . . . . . . . . . . . 2
1.1 How to use this manual . . . . . . . . . . . . 2
1.2 Index . . . . . . . . . . . . . . . . . . . . . . . 3
1.3 How to order . . . . . . . . . . . . . . . . . . 3
1.4 Material included . . . . . . . . . . . . . . . . 4
1.5 Addional informaon . . . . . . . . . . . . . 4
1.6 Front view . . . . . . . . . . . . . . . . . . . . 4
1.7 Rear view . . . . . . . . . . . . . . . . . . . . 4
1.8 Signal and power connecons . . . . . . . . . 5
1.8.1 Connecng the ‘sense’ . . . . . . . . . . . 5
1.8.2 Connecng the cell to the ground . . . . . 5
1.8.3 Real cases . . . . . . . . . . . . . . . . . . 5
1.9 Technical specicaons. . . . . . . . . . . . . 6
1.9.1 Acquision modes. . . . . . . . . . . . . . 6
1.9.2 Signal ranges . . . . . . . . . . . . . . . . . 7
1.9.3 Number and type of cells accepted . . . . 7
1.9.4 Mechanical dimensions (mm (in)). . . . . 7
1.9.5 Gross weight, net and tare . . . . . . . . . 7
1.10 Included funcons. . . . . . . . . . . . . . . 8
1.11 ‘Tare’ funcons included . . . . . . . . . . . 8
1.12 Conguraon . . . . . . . . . . . . . . . . . 9
1.12.1 How to operate the menus . . . . . . . . 9
1.12.2 Inial set-up . . . . . . . . . . . . . . . .10
1.12.3 Inial setup menu . . . . . . . . . . . . .11
1.12.4 Funcon ‘auto-tare’ . . . . . . . . . . . .12
1.12.5 Scale factor . . . . . . . . . . . . . . . . .12
1.12.6 Funcon ‘stock’. . . . . . . . . . . . . . .12
1.12.7 Advanced conguraon menu . . . . . .13
1.12.8 Alarms. . . . . . . . . . . . . . . . . . . .14
1.12.9 Alarm conguraon . . . . . . . . . . . .15
1.12.10 Display lters . . . . . . . . . . . . . . .16
1.12.11 Rear controls . . . . . . . . . . . . . . .17
1.12.12 Front key ‘LE’ (3). . . . . . . . . . . . .17
1.12.13 Fast access. . . . . . . . . . . . . . . . .18
1.12.14 ‘On power up’ funcon. . . . . . . . . .18
1.12.15 ‘Fast access’ conguraon menu . . . .19
1.2 Index
1.12.16 ‘On power up’ conguraon. . . . . . .19
1.12.17 Tools . . . . . . . . . . . . . . . . . . . .20
1.12.18 Access to opons conguraons menu 20
1.13 Full conguraon menu. . . . . . . . . . . .22
1.14 Factory conguraon . . . . . . . . . . . . .25
1.15 Messages and errors . . . . . . . . . . . . .25
1.16 Praccal cases . . . . . . . . . . . . . . . . .26
1.16.1 Normal case . . . . . . . . . . . . . . . .26
1.16.2 Load cell with external power. . . . . . .26
1.16.3 Connecons with a juncon box . . . . .26
1.16.4 Connecons with 3 or 4 load cells . . . .27
1.16.5 Measuring mV at the laboratory . . . . .27
1.17 To access the instrument . . . . . . . . . . .28
1.18 Modular architecture . . . . . . . . . . . . .28
1.19 Precauons on installaon . . . . . . . . . .29
1.20 Warranty . . . . . . . . . . . . . . . . . . . .29
1.21 CE declaraon of conformity . . . . . . . . .29
2. Output and control modules . . . . . . . . . . .30
2.1 Module R1 . . . . . . . . . . . . . . . . . . . .30
2.2 Module T1 . . . . . . . . . . . . . . . . . . . .30
2.3 Module SSR . . . . . . . . . . . . . . . . . . .31
2.4 Module AO . . . . . . . . . . . . . . . . . . .31
2.5 Module RTU . . . . . . . . . . . . . . . . . . .32
2.6 Module S4 . . . . . . . . . . . . . . . . . . . .32
2.7 Module S2 . . . . . . . . . . . . . . . . . . . .33
2.8 Modules R2, R4, R6 . . . . . . . . . . . . . . .33
3. Other opons . . . . . . . . . . . . . . . . . . . .34
3.1 Opon NBT . . . . . . . . . . . . . . . . . . .34
3.2 Opon G . . . . . . . . . . . . . . . . . . . . .34
4. Accessories . . . . . . . . . . . . . . . . . . . . .35
4.1 THM benchtop housing. . . . . . . . . . . . .35
4.2 Adapter DRA-M . . . . . . . . . . . . . . . . .35
4.3 Adapter KA96 . . . . . . . . . . . . . . . . . .35
4.4 WME wall housing . . . . . . . . . . . . . . .35
4.5 Protector KIP . . . . . . . . . . . . . . . . . .35
M60 LC
Model Power
-
Opon 1 Others
H
- - -
Opon 2
-
Opon 3
-
-H (85-265 Vac/dc)
-L (11/60 Vdc,
24 Vac, 48 Vac)
-R1 (1 relay)
-AO (analog output)
-RTU (Modbus RTU)
-S4 (RS-485)
-S2 (RS-232)
-T1 (1 transistor)
-SSR (1 SSR control)
-(empty)
-NBT (no buons)
-G (green led)
-(empty)
1.3 How to order

FEMA ELECTRÓNICA . SERIES M . M60-LC
4
Signal
(see secon 1.8)
Opon 1 Opon 2Opon 3
Power
(see secon 1.8)
1234567 890
Front leds ‘A’ and ‘B’ show the acve funcon (see Table 1).
See secon 1.9.5 for a denion on gross weight, net weight
and tare. The manual acvaon of the ‘tare’ acvates a fast
ash on led ‘B’.
1.4 Material included
The shipment includes :
- 1 instrument M60-LC
- 1 pack of orange power terminals
- 1 pack of green signal terminals
- 1 user’s manual
- 1 set of units label (see Figure 1)
If the instrument mounts output and control opons (see
secon 2), the shipment also includes:
- 1 pack of green signal terminals for each output and con-
trol opon installed
Figure 1 - Set of units label
1.5 Addional informaon
User’s manual
• www.fema.es/docs/4507_M60-LC_manual_en.pdf
Datasheet
• www.fema.es/docs/4509_M60-LC_datasheet_en.pdf
Declaraon CE
• see secon 1.21
Warranty
• www.fema.es/docs/4153_Warranty1_en.pdf
Web
• www.fema.es/Series_M
1.6 Front view
1.7 Rear view
Reading A B
Gross weight on o
Actual tare value o on
‘tare’ funcon acvated o fast ash
Net weight o o
Units (‘stock units’) on on
Table 1 - Meaning for the front leds ‘A’ and ‘B’
Key ‘UP’
Alarms and ‘A’,‘B’ leds
Units
Key ‘SQ’
‘Conguraon menu’
(see secon 1.12)
‘Fast access‘
(see secon 1.12.13)
Key ‘LE’

FEMA ELECTRÓNICA . SERIES M . M60-LC
5
1.8 Signal and power connecons
Vexc+
Signal+
Signal-
Sense-
Vexc-
1234567
Sense+
EK
7EK ‘on / o’ rear control (short circuit to ‘Vexc-’)
6Vexc+ Excitaon voltage +
5Sense+ Excitaon voltage sense +
4Signal+ Signal +
3Signal- Signal -
2Sense- Excitaon voltage sense -
1Vexc- Excitaon voltage -
Figure 2 - Signal connecons
1.8.1 Connecng the ‘sense’
Measuring with load cells requires a stable and accurate ex-
citaon voltage. Connecng the ‘sense +’ and ‘sense -’ termi-
nals to the load cell, provides the instrument with an accurate
value of the excitaon voltage received by the cell. Deviaons
and errors from the standard excitaon value are automa-
cally compensated by the instrument, increasing the accuracy
and reliability of the measure.
If you do not wish to use the ‘sense ’, place a shortcircuit be-
tween terminals ‘sense +’ and ‘Vexc+’, and between terminals
‘sense -’ and ‘Vexc-’.
For applicaons with mulple cells (2, 3, 4 cells or more) con-
nect the ‘sense ’ wires to the ‘electrical middle point’ of the
power wires of all the cells (see secon 1.16.4).
1.8.2 Connecng the cell to the ground
Measuring with load cells requires an electrically clean instal-
laon. When connecng the ground to the cell system, assure
that :
• the cell connecon to ground is performed in such a way
that the current to ground DOES NOT ow through the cell.
890
8Neutral AC / Negave DC
9Not connected
0Phase AC / Posive DC
Figure 3 - Power connecons
1234567
Vexc+
Signal+ Signal-
Sense-
Vexc-
Sense+
EK
Figure 4 - Example for connecons with 1 load cell.
!
The ‘sense’ terminals must be always connected.
If you do not use the ‘sense’, shortcircuit with
‘Vexc’ terminals (see secon 1.8.1).
!
Fuse : to comply with the security regulaon 61010-
1, add to the power line a protecon fuse acng as
a disconnecon element, easily accessible to the op-
erator and idened as a protecon device.
• Power ‘H’ 250 mA me-lag fuse
• Power ‘L’ 400 mA me-lag fuse
1.8.3 Real cases
See secon 1.16 for dierent examples on how to con-
nect the load cell and congure the instrument.

FEMA ELECTRÓNICA . SERIES M . M60-LC
6
Digits
number of digits 6
led 7 segments
color red or green
digit height 14 mm
Reading
max. reading 999999
min. reading -199999
decimal point congurable X.X.X.X.X.X
overrange ash reading
underrange ash reading
Load cells
type of cells 1 mV/V, 2 mV/V, 3 mV/V and others
excitaon voltage congurable 5 Vdc or 10 Vdc
max. excitaon current 140 mA
Vexc. protecon against shortcircuit
(see error at secon 1.15)
max. terminals voltage 30 Vdc
number of cells* 1 to 8 load cells (power 5 Vdc)
1 to 4 load cells (power 10 Vdc)
*(values calculated for standard 350 Ohms load cells. For
cells with dierent impedance, the number is limited by the
140 mA available current)
Measure
signal ranges (see secon 1.9.2)
accuracy at 25 ºC (see secon 1.9.2)
thermal stability 50 ppm/º
input impedance 20 MOhm
acquisions / second see Table 2
(and refresh for alarms, analog outputs and bus)
display refresh see Table 2
step response see Table 2
0 % to 99 % signal
signal terminals plug-in screw terminals (pitch 3.81 mm)
Power
power ‘H’ 85 to 265 Vac/dc
power ‘L’ 11 to 60 Vdc and 24/48 Vac
isolaon* 2500 Ve with power ‘H’
*(60 seconds) 1500 Ve with power ‘L’
consumpon <1.5 W only meter
<4.0 W meter with opons
power terminals plug-in screw terminals (pitch 5.08 mm)
wire secon 1 to 2.5 mm2 (AWG17 to AWG14)
Conguraon front keypad with 3 keys
Front protecon IP65
Output and control opons relay, analog, communicaons, ...
(see secon 2)
Mechanical
mounng panel
connecons plug-in screw terminal
housing ABS, polycarbonate (V0)
weight <150 gr.
front size 96 x 48 mm (1/8 DIN)
panel cut-out 92 x 44 mm
depth 91 mm (including terminals)
Temperature
operaon 0 to +50 ºC
storage 20 to +70 ºC
warm-up me 15 minutes
Acquisions / sec. Display refresh Step response
Mode standard 16 acq. / sec. 16 refresh / sec. 63 mSec.
Mode 50 Hz 50 acq. / sec. 16 refresh / sec. 20 mSec.
Mode 60 Hz 60 acq. / sec. 16 refresh / sec. 17 mSec.
Table 2 - Technical data for the congured acquision mode
The instrument works by default with a fast acquision mode
of 16 acquisions per second, with a noise rejecon opmized
for 50 and 60 Hz frequencies. Two addional faster acquision
modes are available, opmized for noise rejecon to a single
specic frequency of 50 Hz or 60 Hz.
To opmize the noise rejecon only to 50 Hz and / or increase
the acquision speed to 50 acquisions per second, congure
the ‘Mode’ (‘ModE’) parameter to ‘50.hZ’ value. This selec-
on increases the speed to 50 acquisions per second and
increases the noise rejecon to 50 Hz, although it reduces the
noise rejecon to 60 Hz. Congure the parameter value to ‘60.
hZ’ to increase to 60 acquisions per second and maximum
rejecon to 60 Hz noise, reducing the noise rejecon for 50 Hz.
To congure the mode see secon 1.12.7.
1.9 Technical specicaons
1.9.1 Acquision modes

FEMA ELECTRÓNICA . SERIES M . M60-LC
7
Signal
ranges
Accuracy Max. input
signal
0/100 mVdc 0.05% FS
30 V
0/30 mVdc 0.05% FS
0/20 mVdc 0.05% FS
0/15 mVdc 0.05% FS
0/10 mVdc 0.05% FS
0/5 mVdc 0.05% FS
Table 3 - Input signal ranges
1.9.2 Signal ranges
The instrument works with 6 internal signal ranges and
the acve range is automacally selected when the in-
strument is started. The selecon depends on the value
of the two parameters : ‘Sensivity’ (‘MV.V’) and ‘Excita-
on voltage’ (‘V.EXc’) (see secon 1.12.2)
Example : with a sensivity conguraon of 2.0000 mV/V
and a congured excitaon voltage of 10 Vdc, the instru-
ment selects the 20 mV input signal range, by calculat-
ing 2 mV/V x 10 Vdc = 20 mV.
The internal signal ranges available are shown below at
Table 3.
1.9.3 Number and type of cells accepted
The instrument accepts connecon for up to 8 standard
350 Ohms load cells. With a congured excitaon voltage
of 10 Vdc connect from 1 to 4 load cells. With a cong-
ured excitaon voltage of 5 Vdc connect from 1 to 8 load
cells. For load cells with dierent impedance, calculate
the current consumpon for each cell, and the total must
not exceed the maximum current the instrument can pro-
vide.
In case of problems with the power or the signal provided
by the load cells, the instrument provides three funcons
for troubleshoong purposes. These funcons allow to
access the signal input value (in mV), the excitaon volt-
age value at the ‘sense’ terminals (in Vdc) and the current
provided to the cells (in mA). The operator can use this
values to idenfy the cause of the problem. See secon
1.12.13 for more informaon on how to access this val-
ues in real me.
44
92
Panel
cut-out
48
1.9.4 Mechanical dimensions (mm (in))
The instrument shows the value for the net weight, and can
be congured to switch reading to gross weight and the actual
value of the tare. The relaon between them is :
• Net weight = gross weight - tare
Operator can access these values by conguring the fast ac-
cess menu (key ‘UP (5)) (see secon 1.12.13).
Reading the gross weight or tare values acvate the front leds
‘A’ and ‘B’ (see secon 1.6).
1.9.5 Gross weight, net and tare
1.9 Technical data (cont.)
96
(3.78 x 1.89 in)
(3.63 x 1.74 in)
16 8
75
(0.63 in) (2.95 in) (0.31 in)

FEMA ELECTRÓNICA . SERIES M . M60-LC
8
Included funcons Secon
Funcon tare yes 1.11
Auto-tare
automac zero tare 1.12.4
Maximum tare to prevent undesired
tare acvaons 1.12.7
Scale factor change the reading
scale
1.12.5
1.12.7
Stock of units counts units instead of
weight 1.12.6
Modes high rejecon to 50 Hz
and 60 Hz 1.9.1
Alarms
standard
stability alarms
double setpoint
acvaon delays
deacvaon delays
hysteresis
inverted relay
locked deacvaon
1.12.8
Display lters
xed digits
recursive
‘steps’
le zeros
1.12.10
Rear controls
acvate funcons from
rear terminal
1.12.11
Front key ‘LE’ (3)
acvate funcons from
key ‘LE’
(3)1.12.12
Fast access (key ‘UP’ (5))
fast access to param-
eters from front key
‘UP’
(5)
1.12.13
On power up
acvate funcons at
power up
1.12.14
Memory
maximum and minimum 1.12.13
Password
blocks access to congu-
raon menu
1.12.17
Troubleshoong func-
ons
values for input signal,
excitaon voltage and
excitaon current
1.9.3
1.12.13
Display brightness 5 levels 1.12.17
Table 4 - Funcons included
1.10 Included funcons 1.11 ‘Tare’ funcons included
Acvate the tare funcon to force the instrument to take the
actual signal as a ‘0’ weight. The tare funcon does not mod-
ify the internal calibraon of the cell, and can be acvated as
many mes as needed. The tare funcon is typically used to
set a ‘0’ reading when a xed weight has been added to the
load cell.
Example : a truck enters a loading area and is placed on a
weighing system. The instrument indicates that the weight of
the truck is 2.500 Kg. A tare is applied to the instrument, and
now the reading is 0 Kg. The truck enters the loading area
and when it leaves, it is placed on the weighing system again.
Now the reading is 1.550 Kg. This is the weight of the mate-
rial loaded on the truck. When the truck leaves the weighing
system the instrument reads -2.500 Kg. Acvate a tare again
to force a reading of 0 Kg or wait for a new truck.
The instrument accepts dierent ways to acvate the tare
funcon:
• from the rear terminal, shortcircuit the ‘EK’ terminal against
the ‘Vexc-’ terminal. Previously, congure the ‘EK’ terminal
with the tare funcon (see secon 1.12.11).
• from the front keypad, press the front key ‘LE’ (3). Previ-
ously, congure the ‘LE’ (3) key with the tare funcon (see
secon 1.12.12).
• automacally when the instrument starts. Previously, con-
gure the ‘on power up’ funcon with the tare funcon (see
secon 1.12.14).
• automacally with the ‘auto-tare’ funcon. The inherent
mechanical characteriscs of a load cell makes the ‘zero
weight’ signal a non constant value. This can be detected
by placing and removing the same weight from a load cell,
several mes. When the weight is removed, the reading is
not always ‘0’, but a random value close and around ‘0’. The
‘auto-tare’ funcon automates the acvaon of the ‘tare’
when the reading of the instrument is stable and close to ‘0’
(see secon 1.12.14).
To avoid accidental tares, the instrument provides the ‘Max.
Tare’ (‘MAX.t’) parameter. The acvaon of the ‘tare’ func-
on, either manual or automac, is not applied if the reading
is higher than the value dened in this parameter (see secon
1.12.7).
The actual tare value can be accessed from the front key ‘UP’
(5) acvang the ‘Tare’ funcon at the ‘Key UP’ menu (see
secon 1.12.15). A reset to the tare value can be applied also
from this same menu.

FEMA ELECTRÓNICA . SERIES M . M60-LC
9
The instrument has two menus accessible to the user :
‘Conguraon menu’ (key ‘SQ’) (<)
‘Fast access’ menu (key ‘UP’) (5)
Conguraon menu
The ‘conguraon menu’ modies the conguraon pa-
rameters to adapt the instrument to the applicaon needs.
To access the ‘conguraon menu’ press for 1 second the
‘SQ’ (<) key. This access can be blocked by acvang the
‘Password’ (‘PASS’) funcon. While operang the ‘congu-
raon menu’, the alarm status is ‘hold’ to the status it had
before accessing the menu, and the output and control
modules remain in ‘error’ state. When leaving the ‘congu-
raon menu’, the instrument applies a system reset, fol-
lowed by a brief disconnecon of the alarms and the out-
put and control modules. Funconality is then recovered
.
For a detailed explanaon on the ‘conguraon menu’ see
the following secons, and for a full view of the ‘congura-
on menu’ see secon 1.13.
‘Fast access’ menu ’
The ‘fast access’ menu is an operator congurable menu,
providing fast and direct access to the most usual funcons
of the instrument with a single key pad stroke. Press key
‘UP’ (5) to access this menu
.
See secon 1.12.15 for a list of selectable funcons for
the ‘fast access’ menu in this instrument. The ‘Password’
(‘PASS’) funcon does not block access to this menu. Ac-
cessing and modifying parameters in the ‘fast access’ menu
does not interfere with the normal funconality of the in-
strument, and it does not generate any system reset when
validang the changes.
Operang with the front keypad inside the menus
Key ‘SQ’ (<) - press the ‘SQ’ (<) key for 1 second to ac-
cess the ‘conguraon menu’. Inside the menu, the ‘SQ’
(<) key acts as an ‘ENTER’. It enters into the menu opon
selected, and when entering a numerical value, it validates
the number
.
Key ‘UP’ (5) - press the ‘UP’ (5) key to access the ‘fast ac-
cess’ menu. Inside the menu,the ‘UP’ (5) key sequenally
moves through the available parameters and menu entries.
When entering a numerical value, it modies the digit se-
lected by increasing its value to 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 .
Key ‘LE’ (3) - press the ‘LE’ (3) key to acvate the con-
gured special funcons associated to this key. Inside the
menu, the ‘LE’ (5) acts as an ‘ESCAPE’. It leaves the select-
ed menu level and eventually, by leaving all menu levels, it
1.12 Conguraon
1.12.1 How to operate the menus
leaves from the conguraon menu. Then changes are ap-
plied and the instrument is back to normal funcon. When
entering a numerical value, it selects the acve digit, and
the value is then modied by key ‘UP’ (5).
‘ Rollback ’
Aer 30 seconds without interacon from the operator, the
instrument will rollback and leave the ‘conguraon menu’
or the ‘fast access’ menu. All changes will be discarded
.
(2)
(3)
(3)
(3)
(3)
(3)
(4)
(4)
(4)
(4)
(5)
(5)
(5)
(5)
(3)
(3)
(6)
(6)
(1)
Example of operaon inside
the ‘conguraon menu’.
1. The (<) key enters into
the ‘conguraon menu’.
2. The (<) key enters into
the ‘InP’ menu.
3. The (5) key moves
through the menu op-
ons.
4. The (<) key selects the
desired range and returns
to the ‘InP’ menu.
5. The (3) key leaves the
actual level and moves to
the previous menu level.
6. The (3) key leaves the
‘conguraon menu’.
Changes are applied and
saved at this moment.
Figure 5 - Example of operaon inside the ‘conguraon
menu’ (menu entries are given as example, and may not be the
exactly the same as the instrument menu entries).

FEMA ELECTRÓNICA . SERIES M . M60-LC
10
1.12.2 Inial set-up
Before starng to congure the instrument, idenfy the pa-
rameters of the load cell, at the manufacturers datasheet (see
Table 5). If the parameters are not know, leave the instrument
with the default values.
Load cell
parameters
Default values
Sensivity 2 mV/V
Nominal weight 1000 Kilos
Excitaon voltage 10 Vdc
Table 5 - Parameters of the load cell
For an accurate measure, the instrument needs to correctly
congure its parameters for the parcular load cell connect-
ed. The conguraon procedure has a rst theorecal step
and a second empirical step. The third and nal step will set
the ‘system zero’ of the instrument.
Theorecal conguraon of the load cell
The theorecal parameters are congured at the ‘Parameters
of the cell’ (‘cELL’) menu.
• at the ‘Decimal point’ (‘dP’) parameter, place the decimal
point according to the resoluon you want to see.
• at the ‘Nominal weight’ (‘LoAd’) parameter introduce the
nominal weight of the load cell. The value is entered with the
resoluon congured in the parameter above.
• at the ‘Sensivity’ (‘MV.V’) parameter, introduce the value
of the cell sensivity.
• at the ‘Excitaon voltage’ (‘V.EXc’) parameter, select 5 or
10 Vdc. (The ‘LAb’ value enables the laboratory mode, for di-
rect measure from a millivolt generator instead of a load cell
(see secon 1.16.5)).
Example : load cell with 1.95 mV/V sensivity and a nominal
value of 5 Kg and power 5 Vdc. To read in grams with a deci-
mal point, congure the theorecal parameters as indicated
below :
Decimal point : XXXXX.X
Sensivity : 1.95 mV/V
Nominal weight : 5000.0
Excitaon voltage : 5 Vdc
When the theorecal values are congured, leave the cong-
uraon menu. Apply a ‘system zero’. Force a tare, and place
dierent weights to check if the reading is correct. If it is not
correct, apply the empirical conguraon and again the ‘sys-
tem zero’.
Empirical conguraon of the load cell
The second part of the load cell conguraon is an empiri-
cal process of eld correcon. The instrument will detect and
correct the individual deviaons of this parcular load cell.
For the empirical conguraon you will need access to two
weights : a low weight, as small as possible (it can be the cell
without weight) and a high weight as close as possible to the
nominal weight of the cell.
In each case the meter will be informed of the real weight
applied to the cell in order to correct and compensate for the
measured deviaons at the signal. Both correcons are need
(high and low) for a correct conguraon of the load cell.
• low weight correcon : place the load cell without weight
or with the smallest weight possible, and access the ‘Low
weight correcon’ (‘F.Lo’) menu. Press key SQ (‘<’), intro-
duce the value of the weight and press again SQ (‘<’). The
instrument will ash shortly and return to the menu entry
‘Low weight correcon’ (‘F.Lo’).
• high weight correcon : place the load cell with a weight
closest to nominal and access the ‘High weight correcon’
(‘F.hI’) menu. Press key SQ (‘<’), introduce the value of the
weight and press again SQ (‘<’). The instrument will ash
shortly and return to the menu entry ‘High weight correc-
on’ (‘F.hI’).
Once both correcons are applied, leave the conguraon
menu. Force a tare, and place dierent weights to check that
the reading is correct. As a last step, assign the ‘system zero’ if
you want to access gross weight and net values.
Assign the ‘system zero’
This is a necessary and important step for a correct measure-
ment with a load cell.
• assign the ‘system zero’ : place the load cell without weight
or with the weight that will be considered as ‘zero’ and access
the ‘System zero’ (‘S.ZEr’) parameter. Press key SQ (‘<’). The
instrument will ash shortly and return to the menu entry
‘System zero’ (‘S.ZEr’).
The empirical conguraon of the load cell recalcu-
lates and updates the theorecal sensivity value
(‘Sensivity mV/V’ (‘M V.V’) parameter). Manual
modicaons of this parameter will modify the congura-
on of the cell. To prevent accidental modicaon con-
sider the acvaon of the ‘password’ funcon (see secon
1.12.17).
!
Once the load cell has been correctly congured,
and the reading of the instrument is correct, it is not
necessary to access again this part of the congura-
on menu. If you need to scale the reading to dierent units,
use the ‘Scale factor’ (‘ScL.F) parameters at the ‘Advanced
conguraon’ menu (see secon 1.12.7).
!

FEMA ELECTRÓNICA . SERIES M . M60-LC
11
Press ‘SQ’ (<) for 1 second to access the ‘con-
guraon menu’. For a descripon on how to op-
erate inside the menus see secon 1.12.1. For a
full vision of the ‘conguraon menu’ structure
see secon 1.13.
At the inial set up of the instrument, rst congure the
theorecal part of the load cell at the
‘Load cell param-
eters’ (‘cELL’) menu and later congure the empirical part of
the load cell at the ‘Field correcon’ (‘F.cor’) menu.
See sec-
on 1.12.2 for addional informaon.
• at the ‘Decimal point’ (‘dP’) parameter,
select the deci-
mal point posion. Move the decimal point with key ‘LE’
(3). The posion dened will be used for all reading pa-
rameters.
Example : to read in ‘Kg’ with tenths of kilograms, place the
decimal point at ‘XXXXX.X’ and the reading will be always
be shown with 1 decimal.
Changing the posion of the decimal point will only light a
dierent decimal point led, but will not modify or re-scale
the measure of the instrument.
• at the ‘Sensivity mV/V’ (‘MV.V’) parameter, congure the
value for the load cell sensivity. Accepts any value between
0.0001 and 99.9999 mV/V. Default value is 2.0000 mV/V.
• at the ‘Nominal weight’ (‘LoAd’) parameter, congure the
nominal weight of the load cell. accepts any value between
0 and 999999. The decimal point will be shown in the posi-
on congured at the ‘Decimal point’ (‘dP’) parameter. De-
fault value is 1000.
Example : for a 5 Kg cell, congure a value of 5000 to read
in grams.
• at the ‘Excitaon voltage’ (‘V.Exc’) parameter, congure
the voltage to power the load cell. Select ‘5 Vdc’ or ‘10 Vdc’.
Default value is 10 Vdc. Select ‘LAb’ for a millivolt meter
mode in laboratory (see secon 1.16.5).
The ‘Field correcon’ (‘F.cor’) menu includes the funcons for
the empirical conguraon of the load cell. See secon 1.12.2
for addional informaon on each funcon.
• at the ‘Low weight correcon’ (‘F.Lo’) parameter, intro-
duce the real value of the actual weight at the cell. Use the
lowest weight possible, close to 0. Press key SQ (‘<’) to
start the correcon process.
• at the ‘High weight correcon’ (‘F.hI’) introduce the real
value of the actual weight at the cell. Use the lowest weight
possible, close to nominal weight of the cell. Press key SQ
(‘<’) to start the correcon process.
The ‘System zero’ (‘S.ZEr’) entry assigns the actual weight to
the ‘system zero’ of the instrument. See secon 1.12.2 for ad-
dional informaon.
1.12.3 Inial setup menu
Load cell
parameters
Inial
conguraon
Deci mal point
Sensivity
mV/V
Nominal weight
Excitaon
voltage 5 Vdc
10 Vdc
Field
correcon
High weight
correcon
Low weight
correcon
Low weight
value
High weight
value
System zero
Laboratory
mode

FEMA ELECTRÓNICA . SERIES M . M60-LC
12
1.12.4 Funcon ‘auto-tare’
The ‘auto-tare’ funcon automacally acvates the ‘tare’
when the weight is removed from the load cell. The ‘auto-
tare’ conguraon has three parameters :
• Acvaon value : the ‘auto-tare’ funcon acvates when
reading is lower than the dened value.
• Stability band: reading must be stable, and its uctuaon
must be lower than the number of counts dened in this pa-
rameter.
• Stability me : reading must be within the stability band for
the me dened in this parameter.
When these three parameters are met (the system is ‘without
weight’ and the reading is ‘stable’) the ‘auto-tare’ funcon au-
tomacally acvates the ‘tare’.
Example : weighing system with reading from 0.0 to 2500.0
Kg. When weight is removed from the system, there is al-
ways a variable remnant value : 2.2 Kg, 3.1 Kg, -0,7 Kg, ...
This remnant value is associated to the specic imperfecons
of each load cell. Also this remnant value takes some me to
stabilize, approximately 1 second. A manual tare can be ap-
plied each me the load cell is unloaded in order to correct
this error. The ‘auto-tare’ funcon will correct it automa-
cally without operator intervenon, conguring the follow-
ing parameters.
•acvaon value = 5.0
•stability = 1.0
•stability me = 2 seconds
When reading is lower than ‘5.0’, the ‘auto-tare’ system ac-
vates, and it will analyze the stability of the signal. When
reading does not change more than ±1.0 counts for a me of
2 seconds, the tare will automacally acvate.
The ‘auto-tare’ funcon is aected by the ‘Maximum tare’
(‘MAX.t’) parameter. The instrument will not accept the ac-
vaon of the tare when reading is higher than the ‘Maximum
tare’ (‘MAX.t’) value.
The ‘Scale factor’ (‘ScL.F’) congures a xed mulplier to ap-
ply to the reading.
Example: a weighing system is congured to read in Kg, but
the system is going to be shipped to an area where measure
must be in pounds. The relaon between kilograms and
pounds is: 1 Kg = 2,20462 pounds. Within the scale factor,
congure the mulplier to 220462 and the divider to 100000.
The instrument is now congured to read in ‘pounds’.
The ‘Stock units’ (‘Stck’) funcon is provided to count large
quanes of small units, in situaons such as stock invento-
ry, recepon of goods, etc. The operator must congure the
number of ‘units’ assigned to a weight. The instrument will
measure the weight but will show the number of ‘units’.
To congure the ‘Stock units’ funcon, weight a known num-
ber of units. Then introduce the number of units, either from
the conguraon menu (‘Advanced conguraon’ \ ‘Stock
units’) or from the fast access menu (key ‘UP’ (5)).
Example from the conguraon menu : place 50 units on the
load cell, and check that the instrument is weighing correctly.
Enter the conguraon menu, and at the ‘Stock units’ (‘Stck’)
parameter, within the ‘Advanced conguraon’, introduce
‘50’ as the number of units. Save the value (key ‘SQ’ (<))
and leave the conguraon menu (key ‘LE’ (3) two mes).
The instrument restart and reads 50 units. Add more units
and observe that the reading increases proporonally to the
number of units.
Example from the front key ‘UP’ (5) : congure the func-
on ‘Stock units’ to be accessible from the front key ‘UP’ (5)’
(fast access menu) (see secon 1.12.13) and leave the con-
guraon menu. Place 50 units on the load cell, and check
that the instrument is weighing correctly. Access the param-
eter ‘Stock units’ through the front key ‘UP’ (5), and cong-
ure the number of units actually on the load cell (50 units).
Save the value (key ‘SQ’ (<)) and leave the fast access menu
(key ‘LE’ (3)). The instrument reads 50 units. Add more units
and observe that the reading increases proporonally to the
number of units
In both cases, seng a value to the ‘Stock units’ (‘Stck’) pa-
rameter assigns the value to the actual weight. The actual val-
ue of units (‘Stock units’ (‘Stck’) parameter) can be assigned
to the actual weight by pressing front key ‘LE’ (3) (see secon
1.12.12) and/or acvang the rear terminal ‘EK’ (see secon
1.12.11).
Assign the value ‘0’ to the ‘Stock units’ (‘Stck’) parameter to
disable this funcon and return to normal reading of weight.
1.12.5 Scale factor
1.12.6 Funcon ‘stock’

FEMA ELECTRÓNICA . SERIES M . M60-LC
13
At the ‘Auto-tare’ (‘Aut.t’) menu congure the acvaon val-
ue and stability values to control the automac acvaon of
the tare, when weight is removed from the cell. See secon
1.12.4 for addional informaon.
• at the ‘Acvaon value’ (‘SEt’) parameter, congure the
working limits for the ‘auto-tare’. The ‘auto-tare’ only ac-
vates for lower values of reading. Accepts any value be-
tween 0 and 999999. Default value is 1000.
• at the ‘Stability band’ (‘bAnd’) parameter, congure the
number of counts allowed to consider a signal ‘stable’. The
‘auto-tare’ only acvates if the reading uctuates within this
band of counts. Accepts any value between 0 and 999999.
Default value is 10.
• at the ‘Stability me’ (‘tIME’) parameter, congure the
minimum me, in tenths of second, for the signal to be
within the stability band to consider it ‘stable’. Accepts any
value between ‘0.0’ and ‘99999.9’. Default value is ‘0.0’.
Value 0 at the stability band and/or 0.0 at the stability me,
disable the ‘auto-tare’ funcon.
The tare is automacally acvated when reading is lower
than the acvaon value, and the uctuaon of the reading
is lower than the counts dened at the ‘stability band’ for
the me dened at the ‘stability me’.
At the ‘Maximum tare’ (‘MAX.t’) parameter, congure the
maximum value of reading to allow for a tare to be applied.
See secon 1.12.4 for addional informaon. Accepts any val-
ue between 0 and 999999. Default value is 999999.
At the ‘Scale factor’ (‘ScL.F’) parameter, congure the value
for the mulplier and the divider. See secon 1.12.5 for addi-
onal informaon. Accepts any value between 0 and 999999.
Default value is 1.
At the ‘Stock units’ (‘Stck’) parameter, congure the number
of units for the actual weight. See secon 1.12.6 for addional
informaon. Accepts any value between 0 and 999999. De-
fault value is 0 (funcon disabled).
At the ‘Mode’ (‘ModE’) parameter, congure the acquision
mode. See secon 1.9.1 for addional informaon. Default
value is ‘Standard’ (‘Std’).
Stability me
Auto-tare
Stability band
Acvaon value
Maximum tare
Advanced conf.
Scale factor
Divider
Mulplier
Standard
Mode
60 Hz
50 Hz
Stock units Units
1.12.7 Advanced conguraon menu

FEMA ELECTRÓNICA . SERIES M . M60-LC
14
1.12.8 Alarms
The instrument manages 3 independent internal alarms, each
one controlling the acvaon of an oponal relay, transistor
or SSR control output. These outputs are oponal (see secon
2) and are installed at the free slots of the instrument (see
secon 1.18).
The instrument has three front leds that reect the state of
the three internal alarms, idened as ‘1’, ‘2’ and ‘3’. For op-
ons with 4 and 6 relay outputs, see special modules R2, R4
and R6 at secon 2.8.
• Congurable parameters
Each alarm has several conguraon parameters, starng
with the usual setpoint, hysteresis and maximum (alarm
acve when reading is higher than setpoint) or minimum
(alarm acve when reading is lower than minimum) alarm
types (see Figure 6).
• Acvaon and deacvaon delays
Each alarm can congure independent acvaon and deac-
vaon delays. These delays aect the alarm as a whole, and
the delay will aect the front led and the associated relay.
• Stability acvaon
The stability acvaon delays the alarm acvaon unl the
reading is stable (see Figure 7).
Applicaon : the lling of a tank with liquid is controlled with
a load cell. Upon reaching 5000 liters, the alarm 1 acvates to
stop the lling pump. Aer the pump has stopped, the liquid
is sll moving inside the tank, and this movement is reected
in weight and reading oscillaons. Alarm 2 is congured as
‘stability alarm’ and acvates when the liquid inside the tank
is at rest. At this moment, the tank can be removed safely.
• Second setpoint
Conguring a second setpoint creates ‘windowed alarms’.
The windowed alarm controls with a single relay output if
the reading is inside or outside the values dened (see Fig-
ure 8).
• Inverted relay
Acvate the ‘inverted relay’ funcon to invert the acvaon
logic of the associated relay.
• ‘Locked alarms’
Acvate the ‘locked alarms’ funcon to force the operator to
interact with the instrument when an alarm has acvated.
Once acvated, the alarm will remain locked at acve state,
even if the reading returns to a value below setpoint, unl
the operator manually unlocks the alarms by pressing the
front key ‘LE’ (3).
Reading
t
setpoint
hysteresis
Alarm as maximum, no
hysteresis and no delays
on
o
acvaon
delay
on
o
deacvaon
delay
Alarm as maximum, with
hysteresis and delays
on
o
Alarm as minimum , no
hysteresis and no delays
t
t
t
Figure 6 - Examples of alarms with 1 setpoint
Reading
t
Set points 1 and 2
Alarm 2 as maximum with
stability.
on
o
t
Alarm 1 as maximum.
on
o
t
AL1
AL2
5000
Figure 7 - Example of alarm with stability
Reading
t
Set point 2
Set point 1
Alarm as minimum, with
double setpoint, no hyster-
esis and no delays
on
o
t
Figure 8 - Example of alarm with double setpoint

FEMA ELECTRÓNICA . SERIES M . M60-LC
15
Alarm 1
Setpoint
Hysteresis
Acve
Type of alarm
Setpoint 2
Alarms
Acvaon
delay
Deacvaon
delay
Inverted relay
Locked alarm
Stability Stability band
Stability me
Alarms 1, 2 and 3 are congured from menu ‘ALr1’, ‘ALr2’ or
‘ALr3’. See secon 1.12.8 for addional informaon.
•
at the ‘Acve’ (‘Act’) parameter select ‘on’
• at the ‘Type of alarm’ (‘TypE’) parameter, select ‘MAX’
for maximum alarm (acvates when reading is higher
than setpoint), or ‘MIn’ for minimum alarm (acvates
when reading is lower than setpoint).
• at the ‘Setpoint’ (‘SEt’) parameter, congure the alarm
acvaon point . Value accessible through the ‘fast access’
menu (see secon 1.12.13).
•
at the ‘Hysteresis’ (‘hySt’) parameter, select the hyster-
esis value. Hysteresis applies to the alarm deacvaon.
Alarm deacvates once the reading is beyond the set-
point plus the hysteresis value. Hysteresis prevents relay
switching in case of signal uctuaons close to the set-
point value
.
•
at the ‘Acvaon delay’ (‘dEL.0’) parameter, congure
the delay to apply before the alarm is acvated. Delay
starts to count once the setpoint is reached. Value from
0.0 to 99.9 seconds
.
•
at the ‘Deacvaon delay’ (‘dEL.1’) parameter, cong-
ure the delay to apply before the alarm is deacvated.
Delay starts to count once the setpoint is reached plus
the hysteresis value. Value from 0.0 to 99.9 seconds
.
• at the ‘Stability’ (‘StbL’)
parameter, congure the con-
dions to detect stability at the signal and acvate the
alarm. Value ‘0’ at ‘stability band’ or at ‘stability me’ de-
acvate the stability control of the alarm.
- at the ‘Stability band’ (‘bAnd’) parameter, congure the
number of counts that the reading can change and sll be
considered stable. Values from 0 to 999999. Default is 10.
-at the ‘Stability me’ (‘tIME’) parameter, congure the
me, in tenths of second, that the reading must be within
the ‘stability band’ to be considered stable.
Values from 0.0
to 99999.9. Default is 0.0.
• to work with ‘windowed alarmas’ congure ‘Setpoint 2’
(‘SEt2’) to ‘on’ and congure the value for the second set-
point. The second setpoint must always be higher than the
rst setpoint.
• at the ‘Inverted relay’ (‘r.Inv’) parameter, congure ‘on’
to invert the acvaon of the relay.
Relay is inacve when
alarm is acve, and relay is acve when alarm is inacve .
• at the ‘Locked alarm’ (‘A.Lck’) parameter, congure ‘on’
to block the automac alarm deacvaon. Alarm deacva-
on must be performed manually, by pressing the front key
‘LE’ (3) (see secon 1.12.12) or rear control (see secon
1.12.11).
1.12.9 Alarm conguraon

FEMA ELECTRÓNICA . SERIES M . M60-LC
16
1.12.10 Display lters
The instrument provides several funcons to act upon the
reading in order to increase stability, reduce noise and adapt
to parcular needs. These funcons are grouped under the
‘Display’ (‘dISP’) menu and are explained below :
• the ‘Fixed digits’ (‘FIX.d’) funcon allows to x each digit
to a xed value. Typically, one or more right digits are xed
to ‘0’. Fix digits starng from the right. Value ‘-’ indicates that
the digit is not xed.
• the ‘Average lter’ (‘AVr’) applies a recursive lter upon
the reading values, in order to reduce oscillaons due to
noisy signals. Congure the lter strength between ‘0’ and
‘100’. The lter is stronger with higher values. Increasing the
strength of the lter slows the reading. Value ‘0’ disables the
lter.
• the ‘Steps’ (‘StEP’) funcon congures the reading to be
done in steps of 1, 2, 5, 10, 20 or 50 counts.
Example: congure a step of 20 and the reading will change
in steps of 20 counts (‘1420’, ‘1440’, ‘1460’, ...).
• the ‘Le zero’ (‘LZEr’) funcon lights all zeros to the le.
• the ‘Memory of maximum’ (‘MAX’) displays the maximum
reading stored on memory. To reset this memory,
select the
‘rSt’ input. The value can be accessed through the ‘fast ac-
cess’ menu at front key ‘UP’ (5) (see secon 1.12.13).
• the ‘Memory of minimum’ (‘MIn’) displays the minimum
reading stored on memory. To reset this memory,
select the
‘rSt’ input.
The value can be accessed through the ‘fast ac-
cess’ menu at front key ‘UP’ (5) (see secon 1.12.13).
Le zeros
Steps
Average lter 0 to 100
Display Fixed digits Fix digits
Memory of
maximum
Memory of
minimum

FEMA ELECTRÓNICA . SERIES M . M60-LC
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The instrument provides a digital ‘on/o’ input at the rear
terminals, referenced as ‘EK’ (see secon 1.8). Assign func-
ons to this terminal and acvate these funcons with a short
circuit between terminal ‘EK’ and terminal ‘Vexc-’. Funcons
available are explained below :
• the ‘Tare’ (‘tArE’) funcon applies a tare.
• the ‘Alarm unlock’ (‘A.LcK’) funcon unlocks all alarms
that are locked due to the ‘Locked alarms’ funcon (see sec-
on 1.12.8).
• the ‘Stock units’ (‘Stck’) funcon assigns the actual weight
to the number of units dened at the ‘stock units’ parameter
(see secon 1.12.6).
In case of mulple funcons enabled, the acvaon is per-
formed sequenally in the same order as the conguraon
menu (rst is the tare, then the alarm unlock, etc).
1.12.11 Rear controls
1.12.12 Front key ‘LE’ (3)
The front key ‘LE’ (3) can be congured to acvate a set of
funcons. Funcons available are explained below :
•the ‘Tare’ (‘tArE’) funcon applies a tare.
•the ‘Alarm unlock’ (‘A.LcK’) funcon unlocks all alarms
that are locked due to the ‘Locked alarms’ funcon (see sec-
on 1.12.8).
•the ‘Stock units’ (‘Stck’) funcon assigns the actual weight
to the number of units dened at the ‘stock units’ parameter
(see secon 1.12.6).
In case of mulple funcons enabled, the acvaon is per-
formed sequenally in the same order as the conguraon
menu (rst is the tare, then the alarm unlock, etc).
Rear controls Tare
Alarm unlock
Stock units
Key LE Tare
Alarm unlock
Stock units

FEMA ELECTRÓNICA . SERIES M . M60-LC
18
1.12.13 Fast access
The ‘fast access’ is an operator congurable menu. When
congured, the operator can access the most usual funcons
with a single press of the front key ‘UP’ (5). Funcons avail-
able are listed below :
• access to alarm setpoints from the front key ‘UP’ (5) al-
lows to read and modify the actual setpoint values
• access to the ‘stock units’ parameter from the front key
‘UP’ (5) allows to read and modify the actual ‘stock value’
parameter. See secon 1.12.6 for addional informaon
about the ‘stock units’ funcon.
• values for ‘gross weight’ and ‘tare’ are accessible from the
front key ‘UP’ (5) (see secon 1.9.5). To reset the tare value
visualize the value and press key ‘UP’ (5). When message
‘rSt’ appears, press key ‘SQ’ (<). The instrument returns
to visualize the ‘tare’ value. Press key ‘LE’ (3) to leave the
menu.
• funcons ‘signal mV’, ‘exc. voltage’ and ‘exc. current’
ve access to values for the input signal measured in mV,
the excitaon voltage measured in Vdc between terminals
‘sense+’ and ‘sense-’, and the excitaon current measured in
mA provided from the instrument to the load cell
These three funcons act as an integrated voltmeter and
ammeter, to be used for troubleshoong purposes, as they
give informaon on the real signals received and provided
to the load cell.
1.12.14 ‘On power up’ funcon
The ‘On power up’ (‘on.Pu’) menu allows to dene a series
of funcons to acvate when the instrument restarts aer a
power loss.
Funcons available are a delay on the acvaon of measure
and control funcons, and a tare funcon.
These funcons will acvate only aer a restart due to power-
loss, they will not apply aer a restart due to changes in con-
guraon.
Delay the measure and control funcons gives me to slow
system elements to start completely before the instrument
begins to acquire signal and control the outputs.
• access to maximum and minimum memories from the
front key ‘UP’ (5) allows to visualize the values. To reset the
maximum or minimum value, visualize the value, and press
key ‘UP’ (5). When message ‘rSt’ appears, press key ‘SQ’
(<). The instrument returns to visualize the actual memory
value. Press key ‘LE’ (3) to leave the menu
The ‘fast access’ menu is not aected by the password func-
on, allowing to have a locked access to the general congu-
raon menu, while sll some funcons are accessible to the
operator through the ‘fast access’ menu.
• Super fast access
If only one funcon is congured at the ‘fast access’ menu,
pressing the front key ‘UP’ (5) will shortly read the name of
the funcon and then automacally show into the value.
While on delay mode, the instrument shows all decimal points
lightened and ashing, all alarms are deacvated, and there is
no signal acquision or communicaons control. When the
delay me is over, the instrument starts its normal funcon-
ing.

FEMA ELECTRÓNICA . SERIES M . M60-LC
19
At the ‘Key UP (‘fast access’)’ (‘K.uP’) menu congure which
funcons and parameters will be accessible through the ‘fast
access’ menu. Select ‘on’ to acvate each funcon. See sec-
on 1.12.13 for addional informaon.
• the ‘Setpoint 1’ (‘ALr1’) funcon allows to visualize and
modify the setpoint for alarm 1.
• the ‘Setpoint 2’ (‘ALr2’) funcon allows to visualize and
modify the setpoint for alarm 2.
• the ‘Setpoint 3’ (‘ALr3’) funcon allows to visualize and
modify the setpoint for alarm 3.
•the ‘Stock units’ (‘Stck’) funcon allows to visualize and
modify the quanty of units dened at the ‘stock units’ pa-
rameter (see secon 1.12.6).
• the ‘Gross weight’ (‘GroS’) funcon allows to visualize the
gross weight.
• the ‘Tare value’ (‘tArE’) funcon allows to visualize the ac-
tual tare value.
• the ‘Signal mV’ (‘c.MV’) funcon allows to visualize the
actual value of the input signal, without scaling. Value is of-
fered in mV.
• the ‘Exc. voltage’ (‘c.EXc’) funcon allows to visualize the
actual value of the excitaon voltage, measured between
terminals ‘sense+’ and ‘sense-’. Value is oered in Vdc.
• the ‘Exc. current’ (‘c.MA’) funcon allows to visualize the
actual value of the current provided by the instrument to the
load cell. Value is oered in mA.
• the ‘Memory of maximum’ (‘MAX’) or ‘Memory of mini-
mum’ (‘MIn’) allows to visualize and/or reset the actual val-
ue of the maximum and minimum memory.
1.12.15 ‘Fast access’ conguraon menu
Key UP
(‘Fast access’)
Gross weight
Setpoint 1
Setpoint 2
Setpoint 3
Tare value
Stock units
Memory of
maximum
Memory of
minimum
Signal mV.
Exc. voltage
Exc. current
The ‘On power up’ (‘on.Pu’) menu assigns funcons to apply
when the instrument restarts aer a power loss. See secon
1.12.14 for addional informaon.
• at the ‘Delay’ (‘dLAy’) parameter congure the me the
instrument waits before starng normal operaon. Value be-
tween 0 and 200 seconds.
• at the ‘tare’ (‘tArE’) parameter congure to ‘on’ to acvate
a tare every me the instrument restarts aer a power loss.
1.12.16 ‘On power up’ conguraon
On power up Delay
Tare
Seconds

FEMA ELECTRÓNICA . SERIES M . M60-LC
20
1.12.17 Tools
1.12.18 Access to opons conguraons menu
Tools Password
Version
Factory
conguraon
Minimum
Brightness
Maximum
Standard
Reset
‘inial conf.’
Access to the oponal module installed at slot 1
Access to the oponal module installed at slot 2
Access to the oponal module installed at slot 3
The ‘OPt.1’, ‘OPt.2’ and ‘OPt.3’ menu entries give access to
the conguraon menus for the oponal modules installed at
Opt.1, Opt.2 and Opt.3 slots.
See secon 2 for a list of the dierent modules available that
can be installed on each slot. The conguraon menu for each
module is described at the User’s Manual of each module.
The ‘Tools’ (‘tooL’) menu groups funcons with a variety of
uses.
•at the ‘Password’ (‘PASS’) funcon dene a 6 digit code to
block access to the ‘conguraon menu’. Acvate the pass-
word to prevent access to the instrument conguraon by
non authorized personnel. To acvate the ‘Password’ func-
on select ‘on’ and enter the code.
The numerical code is asked when accessing the ‘congu-
raon menu’ (key‘SQ’ (<)). Funcons congured to be ac-
cessible through the ‘fast access’ menu are not ‘Password’
blocked.
•at the ‘Factory conguraon’ (‘FAct’) select ‘yes’ to ac-
vate the default factory conguraon (see secon 1.14 for a
list of default parameters). The cell conguraon parameters
(‘Inial conf.’ (‘Init’) menu) are not aected by this reset if
the ‘Reset ‘inial conf.’’ (‘F.InI’) parameter is ‘o’.
•at the ‘Reset ‘inial conf’’ (‘F.InI’) parameter select ‘on’ to
include the cell conguraon parameters when acvang
the default factory conguraon.
The factory reset applied to the ‘inial conguraon’
parameters aects the cell conguraon parameters.
For a correct reading, a new cell conguraon must
be applied, as indicated in secon 1.12.2.
!
•the ‘Version’ (‘VEr’) parameter informs about the rmware
version loaded on the instrument.
•At the ‘Brightness’ (‘LIGh’) parameter select the intensity
of the display brightness. Five levels available. With this
funcon the instrument brightness can be adapted to match
the brightness of nearby instruments.