LAUMAS WLIGHT User manual

Installation and User Manual
version 1.00
WLIGHT
2014/30/EU
EN55022:2010 EN61000-6-2:2005 EN61000-6-4:2007
SYSTEM IDENTIFICATION
Load Cell Systems reserves the right to change specifications without notice. ©2019
Web: https://loadcellsys.com
Email: [e-mail]
Phone: [phone]

KEY TO SYMBOLS
Below are the symbols used in the manual to draw the reader's attention:
Warning! Risk of electrocution.
Warning! This operation must be performed by skilled workers.
Read the following indications carefully.
Further information.
GUARANTEE
24 months from the delivery document date. The guarantee covers only defected parts and includes the replacement
parts and labour. All shipping and packing costs are paid by the customer. It is possible to have the repair in
guarantee on condition that the returned product has not been transformed, damaged or repaired without
authorization. No guarantee is applicable on returned products without the original label and/or serial number. No
guarantee against misuse.
Batteries: Laumas provides 1 year guarantee from the date of delivery note, against material defects or battery
manufacturing faults.
DISPOSAL
This symbol on the product or on the packaging indicates that:
-This is an electrical/electronic device that should be disposed of separately from the municipal solid waste via
designated collection facilities
-Improper use or disposal can be harmful to human health and the environment
-Non-compliance with these guidelines will be sanctioned according to the laws in force in the destination country
-It is recommended to dispose of packaging in accordance with local regulations

TABLE OF CONTENTS
USER WARNINGS................................................................................................................. 1
RECOMMENDATIONS FOR CORRECT INSTALLATION OF WEIGHING INSTRUMENTS. 1
RECOMMENDATIONS FOR CORRECT INSTALLATION OF THE LOAD CELLS ............... 1
LOAD CELL INPUT TEST (QUICK ACCESS) .........................................................................4
LOAD CELL TESTING.............................................................................................................4
MAIN SPECIFICATIONS OF THE INSTRUMENT.................................................................. 5
BUFFER BATTERY..................................................................................................................5
TECHNICAL SPECIFICATIONS ............................................................................................ 6
ELECTRICAL CONNECTIONS.............................................................................................. 7
BASIC INFORMATION............................................................................................................. 7
KEY CONNECTORS ........................................................................................................................ 7
KEYS AND LED FUNCTIONS ............................................................................................... 8
MENU MAP .......................................................................................................................... 10
SYSTEM PARAMETERS ....................................................................................................... 10
INSTRUMENT COMMISSIONING........................................................................................ 11
PROGRAMMING OF SYSTEM PARAMETERS .................................................................. 12
THEORETICAL CALIBRATION ............................................................................................. 12
MAXIMUM CAPACITY ................................................................................................................... 13
TARE WEIGHT ZERO SETTING.................................................................................................... 13
ZERO VALUE MANUAL ENTRY.................................................................................................... 13
REAL CALIBRATION (WITH SAMPLE WEIGHTS)............................................................... 14
FILTER ON THE WEIGHT...................................................................................................... 15
ANTI PEAK..................................................................................................................................... 15
ZERO PARAMETERS............................................................................................................ 16
RESETTABLE WEIGHT SETTING FOR SMALL WEIGHT CHANGES ......................................... 16
AUTOMATIC ZERO SETTING AT POWER-ON............................................................................. 16
ZERO TRACKING .......................................................................................................................... 16
SETTING UNITS OF MEASURE ............................................................................................ 17
NET FUNCTIONS................................................................................................................... 17
SEMI-AUTOMATIC TARE (NET/GROSS).............................................................................. 18
PRESET TARE (SUBTRACTIVE TARE DEVICE) ................................................................. 18
SEMI-AUTOMATIC ZERO (WEIGHT ZERO-SETTING FOR SMALL VARIATIONS) ............ 19
PEAK...................................................................................................................................... 19
SERIAL COMMUNICATION SETTING .................................................................................. 20
RS232 SERIAL COMMUNICATION ............................................................................................... 21
DIRECT CONNECTION BETWEEN RS485 AND RS232 WITHOUT CONVERTER...................... 21
TEST....................................................................................................................................... 22
BATTERY OPERATION......................................................................................................... 22
ENERGY SAVING .................................................................................................................. 23
DATE AND TIME SETTING.................................................................................................... 23
INFO MENU............................................................................................................................ 23

PIECE COUNTER ................................................................................................................ 24
INCREASING OPERATION ................................................................................................... 24
DECREASING OPERATION.................................................................................................. 24
DISPLAY AND OPERATION.................................................................................................. 24
TOTALIZER ......................................................................................................................... 25
SELECT TOTALIZER OPERATING MODE ........................................................................... 25
DISPLAY AND OPERATION.................................................................................................. 26
ALARMS .............................................................................................................................. 27
PRINTING EXAMPLES........................................................................................................ 28
CONTINUOUS FAST WEIGHT TRANSMISSION PROTOCOL ........................................... 29
CONTINUOUS WEIGHT TRANSMISSION TO REMOTE DISPLAYS PROTOCOL............. 30
ASCII BIDIRECTIONAL PROTOCOL .................................................................................. 31
1. READING WEIGHT OR PEAK (IF PRESENT) FROM PC............................................. 31
2. SEMI-AUTOMATIC ZERO (WEIGHT ZERO-SETTING FOR SMALL VARIATIONS).... 32
3. SWITCHING FROM GROSS TO NET WEIGHT ............................................................ 32
4. SWITCHING FROM NET TO GROSS WEIGHT ............................................................ 32
5. SWITCHING FROM NET TO GROSS WEIGHT ............................................................ 33
6. TARE ZERO SETTING .................................................................................................. 33
7. REAL CALIBRATION (WITH SAMPLE WEIGHT)......................................................... 34
8. CHECK-SUM CALCULATION....................................................................................... 35
MODBUS-RTU PROTOCOL ................................................................................................ 36
FUNCTIONS SUPPORTED IN MODBUS............................................................................... 36
COMMUNICATION ERROR MANAGEMENT ........................................................................ 38
LIST OF AVAILABLE REGISTERS ....................................................................................... 39
POSSIBLE COMMANDS TO BE SENT TO THE COMMAND REGISTER (40006) ............... 42
REAL CALIBRATION COMMANDS (WITH SAMPLE WEIGHTS)................................................. 42
COMMUNICATION EXAMPLES ............................................................................................ 43
RESERVED FOR THE INSTALLER..................................................................................... 45
MENU LOCKING.................................................................................................................... 45
MENU UNLOCKING............................................................................................................... 45
TEMPORARY MENU UNLOCKING ....................................................................................... 45
SETTING UNLOCK PASSWORD .......................................................................................... 45
DATA DELETION AND PROGRAM SELECTION ................................................................. 45
KEYPAD OR DISPLAY LOCKING......................................................................................... 46
DECLARATION OF CONFORMITY - EU............................................................................. 47

- 1 -
USER WARNINGS
RECOMMENDATIONS FOR THE PROPER USE OF WEIGHING INSTRUMENT
-Keep away from heat sources and direct sunlight
-Repair the instrument from rain (except special IP versions)
-Do not wash with water jets (except special IP versions)
-Do not dip in water
-Do not spill liquid on the instrument
-Do not use solvents to clean the instrument
-Do not install in areas subject to explosion hazard (except special Atex versions)
RECOMMENDATIONS FOR CORRECT INSTALLATION OF WEIGHING INSTRUMENTS
The terminals indicated on the instrument’s wiring diagram to be connected to earth must
have the same potential as the weighed structure (same earthing pit or earthing system). If
you are unable to ensure this condition, connect with an earthing wire the terminals of the
instrument (including the terminal –SUPPLY) to the weighed structure.
The cell cable must be individually led to its panel input and not share a conduit with other cables;
connect it directly to the instrument terminal strip without breaking its route with support terminal strips.
Use “RC” filters on the instrument-driven solenoid valve and remote control switch coils.
Avoid inverters in the instrument panel; if inevitable, use special filters for the inverters and separate
them with sheet metal partitions.
The panel installer must provide electric protections for the instruments (fuses, door lock switch etc.).
It is advisable to leave the equipment always switched on to prevent the formation of condensation.
MAXIMUM CABLE LENGTHS
-RS232: 15 m for baud rates up to 19200
RECOMMENDATIONS FOR CORRECT INSTALLATION OF THE LOAD CELLS
SIZING OF LOAD CELLS CAPACITY
For safety reasons, in case of static weighing, it is advisable to use the load cells at a maximum of
70-80% of its nominal capacity (assuming that the load is uniformly distributed over the entire
weighed structure); depending on the handling mode of the load to weigh, consider to further reduce
the % of load with respect to the nominal capacity (ex.: forklifts handling, bridge cranes, etc.).
In case of weighing with dynamic loads, the installer has to estimate the thrust speed, the
acceleration, the frequency, etc.

- 2 -
INSTALLING LOAD CELLS
The load cells must be placed on rigid, stable in-line structures; it is important to use the mounting
modules for load cells to compensate for misalignment of the support surfaces.
CONNECTING SEVERAL CELLS IN PARALLEL
Connect several cells in parallel by using - if necessary - a watertight junction box with terminal box.
The cell connection extension cables must be shielded, led individually into their piping or conduit
and laid as far as possible from the power cables (in case of 4-wire connections, use cables with
4x1 mm2minimum cross-section).
PROTECTION OF THE CELL CABLE
Use water-proof sheaths and joints in order to protect the cables of the cells.
MECHANICAL RESTRAINTS (pipes, etc.)
When pipes are present, we recommend the use of hoses and flexible couplings with open
mouthpieces with rubber protection; in case of hard pipes, place the pipe support or anchor bracket as
far as possible from the weighed structure (at a distance at least 40 times the diameter of the pipe).
WELDING
Avoid welding with the load cells already installed. If this cannot be avoided, place the welder ground
clamp close to the required welding point to prevent sending current through the load cell body.
WINDY CONDITIONS - KNOCKS –VIBRATIONS
The use of weigh modules is strongly recommended for all load cells to compensate for
misalignment of the support surfaces. The system designer must ensure that the plant is protected
against lateral shifting and tipping relating to: shocks and vibration; windy conditions; seismic
conditions in the installation setting; stability of the support structure.

- 3 -
EARTHING THE WEIGHED STRUCTURE
By means of a copper wire with suitable cross-section, connect the cell upper support plate with the
lower support plate, then connect all the lower plates to a single earthing system. Electrostatic
charges accumulated because of the product rubbing against the pipes and the weighed container
walls are discharged to the ground without going through or damaging the load cells. Failure to
implement a proper earthing system might not affect the operation of the weighing system; this,
however, does not rule out the possibility that the cells and connected instrument may become
damaged in the future. It is forbidden to ensure earthing system continuity by using metal parts
contained in the weighed structure.
FAILURE TO FOLLOW THE INSTALLATION RECOMMENDATIONS WILL BE CONSIDERED
A MISUSE OF THE EQUIPMENT

- 4 -
LOAD CELL INPUT TEST (QUICK ACCESS)
From the weight display, press for 3 seconds; the response signal of the load cells is displayed,
expressed in mV with four decimals.
LOAD CELL TESTING
Load cell resistance measurement (use a digital multimeter):
-Disconnect the load cells from the instrument and check that there is no moisture in the cell
junction box caused by condensation or water infiltration. If so, drain the system or replace it if
necessary.
-The value between the positive signal wire and the negative signal wire must be equal or similar
to the one indicated in the load cell data sheet (output resistance).
-The value between the positive excitation wire and the negative excitation wire must be equal or
similar to the one indicated in the load cell data sheet (input resistance).
-The insulation value between the shield and any other cell wire and between any other cell wire
and the body of the load cell must be higher than 20 Mohm.
Load cell voltage measurement (use a digital multimeter):
-Take out the load cell to be tested from underneath the container, or alternatively, lift the
container support.
-Make sure that the excitation of two wires of the load cell connected to the instrument (or
amplifier) is 5 VDC ±3%.
-Measure the response signal between the positive and the negative signal wires by directly
connecting them to the tester, and make sure that it is comprised between 0 and 0.5 mV.
-Apply load to the cell and make sure that there is a signal increment.
IF ONE OF THE ABOVE CONDITIONS IS NOT MET, PLEASE CONTACT THE TECHNICAL
ASSISTANCE SERVICE.


3 s

- 5 -
MAIN SPECIFICATIONS OF THE INSTRUMENT
Indicator with 6-wire load cell input installable on table, wall or column. Dimensions:
120x200x280 mm. 6-digit semi-alphanumeric red LED display (20 mm height), 8 signaling LED.
5-key mechanical keyboard. D-SUB connectors. IP40 protection rating.
Real-time clock/calendar with buffer battery.
A RS232 serial port for connection to: PC/PLC up to 32 instruments (max 99 with line repeaters) by
ASCII Laumas or ModBus R.T.U. protocols, remote display, printer.
24 VDC/1 A stabilized power supply included.
Designed to operate with 8 NiMH rechargeable batteries, 1.2 V, AA type (not included).
BUFFER BATTERY
The instrument is equipped with an internal battery that allows to keep active the internal clock even
in the event of power failure.
At the first start and after long periods of inactivity, leave the instrument on for at least 12
hours to fully charge the battery.

- 6 -
TECHNICAL SPECIFICATIONS
POWER SUPPLY and CONSUMPTION
12/24 VDC ±10%; 6 W (standard)
NO. OF LOAD CELLS IN PARALLEL and SUPPLY
max 8 (350 ohm); 5 VDC / 120 mA
LINEARITY
< 0.01% F.S.
THERMAL DRIFT
< 0.0005% F.S./°C
A/D CONVERTER
24 bit (16000000 points)
MAX DIVISIONS
(with measurement range: ±10 mV = sens. 2 mV/V)
±999999
MEASUREMENT RANGE
±39 mV
MAX SENSITIVITY OF USABLE LOAD CELLS
±7 mV/V
MAX CONVERSIONS PER SECOND
300 conversions/second
DISPLAY RANGE
±999999
NO. OF DECIMALS / DISPLAY INCREMENTS
0÷4 / x 1 x 2 x 5 x 10 x 20 x 50 x 100
DIGITAL FILTER / READINGS PER SECOND
10 levels / 5÷300 Hz
SERIAL PORTS
RS232
BAUD RATE
2400, 4800, 9600, 19200, 38400, 115200
HUMIDITY (non condensing)
85%
STORAGE TEMPERATURE
-30°C +80°C
WORKING TEMPERATURE
-20°C +60°C
WORKING TEMPERATURE
-20°C +58°C
Equipment to be powered by 12-24 VDC LPS or Class 2 power source.

- 7 -
ELECTRICAL CONNECTIONS
BASIC INFORMATION
-It is possible to supply up to eight 350 ohm load cells or sixteen 700 ohm load cells.
-For 4-wire load cells, make a jumper between EX- and REF- and between EX+ and REF+.
KEY CONNECTORS
Connector
Pin
Signal
Power supply
+SUPPLY (12/24 VDC)
-SUPPLY (12/24 VDC)
D1
Female
Load cell
1
-LOAD CELL EXCITATION (-Exc)
2
-LOAD CELL REF/SENSE
3
4
5
LOAD CELL SHIELD
6
+LOAD CELL EXCITATION (+Exc)
7
+LOAD CELL REF/SENSE
8
-LOAD CELL SIGNAL (-Sig)
9
+LOAD CELL SIGNAL (+Sig)
D4
Male
RS232 serial port
1
2
RS232: RXD
3
RS232: TXD
4
5
RS232: SHIELD, GND
6
7
8
9

- 8 -
KEYS AND LED FUNCTIONS
KEYS
KEY
Short press
Long press (3 s)
Into menus
Semi-automatic zero
Tare resetting
Cancel or return to
previous menu
Gross Net
Net Gross
Select figure to be
modified or go to previous
menu item.
If  = :
activate peak
If  = :
select operating mode (base,
piece counter, totalizer)
PIECE COUNTER: show in
sequence total weight on scale,
average unit weight calculated,
number of pieces
TOTALIZER: show in sequence
number of weighing, totalized
partial weight, total weight
If  = :
deactivate peak
If  = :
when in piece counter
or totalizer mode,
select another
operating mode.
Print actual weight
mV load cell test
Modify selected figure or
go to next menu item.
Confirm or enter in
submenu
+
Setting general parameters
(press immediately
followed by )
+
Setting preset tare (press
immediately followed by )

- 9 -
LED
LED
Function
NET
net weight (semi-automatic tare or preset tare)
zero (deviation from zero not more than ±0.25 divisions)
stability
kg
unit of measure: kg
g
unit of measure: g
W1
not used
W2
W3
Into menus LEDs light up in sequence to indicate that it is not displaying a weight.
0

- 10 -
MENU MAP
Into menus changes are applied right after pressing the ENTER key (no further confirmation is required).
SYSTEM PARAMETERS

+


 




 

















 
 








3 s






+



- 11 -
INSTRUMENT COMMISSIONING
Use the POWER button to turn the device on or off.
Upon switch-on, the display shows in sequence:
- →  (ONLY in case of approved program);
-instrument model (e.g.: );
- followed by the software code (e.g.:  );
-program type:  (base);
-followed by the software version (e.g.:  );
- followed by the hardware code (e.g.:  );
-serial number (e.g.: );
Check that the display shows the weight and that when loading the load cells there is an increase in
weight. If there is not check and verify the connections and correct positioning of the load cells.
-If the instrument has already been theoretical CALIBRATED (plant system identification tag
present on the instrument and on the cover: load cell’s rated data already entered):
▫Reset to zero (see section TARE WEIGHT ZERO SETTING)
▫Check the calibration with sample weights and correct the indicated weight if necessary (see
section REAL CALIBRATION (WITH SAMPLE WEIGHTS)).
-If the instrument HAS NOT BEEN CALIBRATED (missing plant system identification tag)
proceed with calibration:
▫If load cells data are unknown, follow the procedure in section REAL CALIBRATION (WITH
SAMPLE WEIGHTS)
▫Enter the rated data of load cells following the procedure given in section THEORETICAL
CALIBRATION
▫Reset to zero (see section TARE WEIGHT ZERO SETTING)
▫Check the calibration with sample weights and correct the indicated weight if necessary (see
section REAL CALIBRATION (WITH SAMPLE WEIGHTS)).
-If you use serial communication, set the related parameters (see section SERIAL
COMMUNICATION SETTING).

- 12 -
PROGRAMMING OF SYSTEM PARAMETERS
From the weight display, press simultaneously keys MENU and ESC to access the parameter setting.
MENU/ENTER: to enter a menu/confirm the data entry.
: to modify the displayed figure or menu item.
: to select a new figure or modify the displayed menu item.
ESC: to cancel and return to the previous menu.
THEORETICAL CALIBRATION
This function allows the load cell rated values to be set.
To perform the theoretical calibration set the following parameters in sequence:
- (default: ): the system full scale is given by one cell capacity multiplied by the
number of cells used. Example: 4 cells of 1000 kg FULL SCALE = 1000 x 4 = 4000.
The instrument is supplied with a theoretical full scale value  corresponding to 10000. To
restore factory values, set 0 as full scale.
- (default: 2.00000 mV/V): sensitivity is a load cell rated parameter expressed in mV/V.
Set the average sensitivity value indicated on the load cells. It’s possible to set a value between
0.50000 and 7.00000 mV/V. Example of 4-cell system with sensitivity: 2.00100, 2.00150,
2.00200, 2.00250; enter 2.00175, calculated as (2.00100 + 2.00150 + 2.00200 + 2.00250) / 4.
-:the division (resolution) is the minimum weight increment value which can be
displayed. It is automatically calculated by the system according to the performed calibration, so
that it is equal to 1/10000 of full scale. It can be changed and be variable between 0.0001 and
100 with x1 x2 x5 x10 increments.
-By modifying the full scale or the sensitivity, the real calibration is cancelled and the
theoretical calibration only is considered valid.
-If the theoretical full scale and the recalculated full scale in real calibration (see section
REAL CALIBRATION (WITH SAMPLE WEIGHTS)) are equal, this means that the
calibration currently in use is theoretical; if they are different, the calibration in use is the
real calibration based on sample weights.
-By modifying the theoretical full scale, the system’s parameters containing a weight
value will be set to default values.

+





- 13 -
MAXIMUM CAPACITY
: maximum displayable weight (from 0 to max full scale; default: 0). When the weight exceeds
this value by 9 divisions, the display shows . To disable this function, set 0.
TARE WEIGHT ZERO SETTING
This menu may also be accessed directly from the weight display, holding down the
key for 3 seconds.
Perform this procedure after having set the THEORETICAL CALIBRATION data.
Use this function to set to zero the weight of the empty system after commissioning and then later
on to compensate zero variations due to the presence of product residues.
Procedure:
-Confirm the message  by pressing ENTER.
-The weight value to be set to zero is displayed. In this phase all of the LEDs are flashing.
-Confirming once again, the weight is set to zero (the value is stored to the permanent memory).
-Press to display the value of the total weight reset by the instrument, given by the sum of all
of the previous zero settings.
ZERO VALUE MANUAL ENTRY
WARNING: perform this procedure only if it’s not possible to reset the weighed structure tare, for
example because it contains product that can not be unloaded.
Set in this parameter the estimated zero value (from 0 to max 999999; default: 0).
0

+




+




+


 

-14 -
REAL CALIBRATION (WITH SAMPLE WEIGHTS)
After having performed the THEORETICAL CALIBRATION and TARE WEIGHT ZERO
SETTING, this function allows correct calibration to be done using sample weights of known
value and, if necessary, any deviations of the indicated value from the correct value to be
corrected.
Load onto the weighing system a sample weight, which must be at least 50% of the maximum
quantity to be weighed.
By confirming the message  the flashing value of the weight currently on the system is
displayed. In this phase all of the LEDs are off. Adjust the value on display by using the arrow keys if
necessary. After confirming, the new set weight will appear with all the LEDs flashing.
After an additional confirmation, the message  will be restored and by repeatedly pressing
the key ESC the weight will once again be displayed.
Example: for a system of maximum capacity 1000 kg and 1 kg division, two sample weights are
available, one of 500 kg and the other one of 300 kg. Load both weights onto the system and correct
the indicated weight to 800. Now remove the 300 kg weight, the system must show 500; remove the
500 kg weight too; the system must read zero. If this does not happen, it means that there is a
mechanical problem affecting the system linearity.
WARNING: identify and correct any mechanical problems before repeating the procedure.
-If theoretical full scale and recalculated full scale in real calibration are equal, it means
that the theoretical calibration is currently in use; otherwise, the real calibration based on
sample weights is in use.
-If the correction made changes the previous full scale for more than 20%, all the
parameters with settable weight values are reset to default values.
LINEARISATION OPTION ON MAX 5 POINTS:
It is possible to perform a linearisation of the weight repeating the above-described
procedure up to a maximum of five points, using five different sample weights. The
procedure ends by pressing the ESC button or after entering the fifth value; at this point it will
no longer be possible to change the calibration value, but only to perform a new real calibration. To
perform a new calibration, should return to the weight display and then re-entering into the
calibration menu.
By pressing after having confirmed the sample weight that has been set, the full scale appears,
recalculated according to the value of the maximum sample weight entered and making reference to
the cell sensitivity set in the theoretical calibration ().

+




- 15 -
FILTER ON THE WEIGHT
Setting this parameter allows a stable weight display to be obtained.
To increase the effect (weight more stable) increase the value (from 0 to 9, default 4).
As seen in the diagram:
-By confirming the  message, the currently programmed filter value is displayed.
-By changing and confirming the value, the weight is displayed and it will be possible to
experimentally verify its stability.
-If stability is not satisfactory, confirming brings back the message  and the filter may be
modified again until an optimum result is achieved.
The filter enables to stabilise a weight as long as its variations are smaller than the corresponding
“response time”. It is necessary to set this filter according to the type of application and to the full
scale value set.
FILTER VALUE
Response times [ms]
Display and serial port
refresh frequency [Hz]
0
12
300
1
150
100
2
260
50
3
425
25
4 (default)
850
12.5
5
1700
12.5
6
2500
12.5
7
4000
10
8
6000
10
9
7000
5
ANTI PEAK
When the weight is stable, the anti peak filter removes any sudden disturbances with a maximum duration
of 1 second. Confirm the filter on the weight with ENTER and select one of the following options:
-: anti peak filter enabled (default);
-: anti peak filter disabled.
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ZERO PARAMETERS
RESETTABLE WEIGHT SETTING FOR SMALL WEIGHT CHANGES
  (from 0 to max full scale; default: 300; considered decimals: 300 –30.0 –3.00 –0.300): this
parameter indicates the maximum weight value resettable by external contact, keypad or serial
protocol.
AUTOMATIC ZERO SETTING AT POWER-ON
  (from 0 to max 20% of full scale; default: 0): If at switch-on the weight value is lower than
the value set in this parameter and does not exceed the   value, the weight is reset. To
disable this function, set 0.
ZERO TRACKING
  (from 1 to 5, default: ): When the weight value is stable and, after a second, it
deviates from zero by a figure in divisions smaller or equal to the figure in divisions set in this
parameter, the weight is set to zero. To disable this function, set .
Example: if the parameter  is set to 5 and   is set to 2, the weight will be
automatically set to zero for variations smaller than or equal to 10 ( x  ).
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