Ero electronic Tms User manual

UUSER MANUALUSER MANUAL

USER MANUALUSER MANUAL

USER MANUAL

UMANUEL DE SERVICEMANUEL DE SERVICE

MANUEL DE SERVICEMANUEL DE SERVICE

MANUEL DE SERVICE

BEDIENUNGSANLEITUNGBEDIENUNGSANLEITUNG

BEDIENUNGSANLEITUNG

UISTRUZIONI D'USOISTRUZIONI D'USO

ISTRUZIONI D'USOISTRUZIONI D'USO

ISTRUZIONI D'USO

TMSTMS

TMS

170.IU0.TMS.001

TMS-0-01.pmd 16/02/2005, 14.281

INDEXINDEX

INDEX

MOUNTING REQUIREMENTS .......................... 1

DIMENSIONS AND PANEL CUT OUT ............... 2

WIRING GUIDE LINES....................................... 3

PRELIMINARY HARDWARE SETTINGS........... 8

CONFIGURATION PROCEDURE...................... 9

OPERATIVE MODE.......................................... 14

SMART function ........................................ 14

Output power OFF ..................................... 15

Heater break down alarm .......................... 15

Direct access to the set point .................... 16

Lamp test ................................................... 16

OPERATIVE PARAMETERS............................ 16

ERROR MESSAGES........................................ 19

GENERAL INFORMATIONS ............................ 21

DEFAULT PARAMETERS...............................A.1

GBGB

GB FF

INDEXINDEX

INDEX

MONTAGE.......................................................... 1

DIMENSIONS ET PERCAGE ............................. 2

RACCORDEMENTS ELECTRIQUES ................ 3

MISE AU POINT PRELIMINAIRE....................... 8

PROCEDURES DE CONFIGURATION ............. 9

DIALOGUE UTILISATEUR............................... 14

Algorithme SMART .................................... 15

Invalidation du signal de sortie .................. 15

Alarme de dysfonctionnement ................... 16

Accès direct à la modification directe du

point de consigne ..................................... 16

Lamp Test .................................................. 16

PARAMETRES DE FONCTIONNEMENT ........ 17

MESSAGES D’ERREUR .................................. 19

CARACTERISTIQUES TECHNIQUES............. 21

DEFAULT PARAMETERS...............................A.1

TMS-0-01.pmd 16/02/2005, 14.282

INDICEINDICE

INDICE

MONTAGGIO ....................................................... 1

DIMENSIONI E FORATURA ................................. 2

COLLEGAMENTI ELETTRICI ............................... 3

IMPOSTAZIONI HARDWARE PRELIMINARI .... 8

PROCEDURE DI CONFIGURAZIONE............... 9

MODO OPERATIVO......................................... 14

Algoritmo SMART ...................................... 15

Inibizione del segnale di uscita .................. 15

Allarme di malfunzionamento del carico

comandato tramite l'uscita principale ........ 16

Accesso diretto alla modifica

diretta del set point .................................... 16

Lamp Test .................................................. 16

PARAMETRI OPERATIVI................................. 17

MESSAGGI DI ERRORE.................................. 19

CARATTERISTICHE TECNICHE ..................... 21

DEFAULT PARAMETERS...............................A.1

IIIII

INHALINHAL

INHALTSVERZEICHNISTSVERZEICHNIS

TSVERZEICHNISTSVERZEICHNIS

TSVERZEICHNIS

MONTAGE .......................................................... 1

ABMESSUNGEN UND

FRONTTAFELAUSSCHNITT .............................. 2

ELEKTRISCHE ANSCHLÜSSE.......................... 3

HARDWAREEINSTELLUNGEN ......................... 8

KONFIGURATION............................................... 9

BETRIEBSMODUS........................................... 14

SMART-Algorithmus . ................................ 15

Sperre des Ausgangssignals. .................... 15

Heizleiterbruch-Alarm ................................ 16

Direkte Änderung des Sollwerts ................ 16

Lamp Test .................................................. 16

BETRIEBSPARAMETER .................................. 17

FEHLERMELDUNGEN..................................... 19

TECHNISCHE MERKMALE ............................. 21

DEFAULT PARAMETERS...............................A.1

TMS-0-01.pmd 16/02/2005, 14.283

GBGB

panel

screw

gasket

Fig. 1

MOUNTING REQUIREMENTSMOUNTING REQUIREMENTS

MOUNTING REQUIREMENTS

Select a mounting location having the following

characteristics:

1) it should be easy accessible also on the rear

side.

2) there is no vibrations or impact

3) there are no corrosive gases (sulphuric gas,

ammonia, etc.).

4) there are no water or other fluid (i.e. condense)

5) the ambient temperature is in accordance with

the operative temperature of the instrument

(from 0 to 50 °C).

6) the relative humidity is in accordance with the

instrument specifications ( 20% to 85 % non

condensing).

The instrument can be mounted on a panel up to

15 mm thick with a square cutout of 45 x 92 mm.

For outline and cutout dimensions refer to Fig. 2.

The surface texture of the panel must be better

than 6,3 µmm.

The instrument is shipped with rubber panel

gasket (50 to 60 Sh).

To assure the IP65 and NEMA 4 protection, insert

the panel gasket between the instrument and the

panel as shown in fig. 1.

While holding the instrument against the panel

proceed as follows:

1) insert the instrument through the panel gasket,

2) insert the instrument, with the panel gasket,

through the panel cut out,

3) while pressing the instrument firmly against the

panel, insert the mounting bracket and slide it

up to the end of the case,

4) with a screwdriver, turn the screws with a

torque between 0.3 and 0.4 Nm,

5) Make sure you cannot move the case within

the cut out otherwise you do not have a NEMA

4X/IP65 protection.

bracket

GBGB

DIMENSIONS AND PANEL CUT OUTDIMENSIONS AND PANEL CUT OUT

DIMENSIONS AND PANEL CUT OUT

Fig. 2

GBGB

WIRING GUIDELINESWIRING GUIDELINES

WIRING GUIDELINES

Connections are to be made with the instrument

housing installed in its proper location.

Fig. 3.A TERMINAL BLOCK (for 100/240 V AC

models)

Fig. 3.B TERMINAL BLOCK (for 24 V AC/DC

models)

A) MEASURING INPUTA) MEASURING INPUT

A) MEASURING INPUT

NOTENOTE

NOTE: Any external components (like zener

barriers etc.) connected between sensor and

input terminals may cause errors in measurement

due to excessive and/or not balanced line

resistance or possible leakage currents.

THERMOCOUPLE INPUTTHERMOCOUPLE INPUT

THERMOCOUPLE INPUT

Fig. 4 THERMOCOUPLE INPUT WIRING

NOTENOTE

NOTE:

1) Don’t run input wires together with power cables.

2) For TC wiring use proper compensating cable

preferably shielded

3) If shielded cable is used, it should be grounded

at one point only.

Shield

GBGB

RTD INPUTRTD INPUT

RTD INPUT

Fig. 5 RTD INPUT WIRING

NOTENOTE

NOTE:

1) Don’t run input wires together with power cables.

2) Pay attention to the line resistance; a high line

resistance (higher than 20 Ω/wire) may cause

measurement errors.

3) If shielded cable is used, it should be grounded

at one point only.

4) The resistance of the 3 wires must be the

same.

B) CURRENT TRANSFORMER INPUTB) CURRENT TRANSFORMER INPUT

B) CURRENT TRANSFORMER INPUT

Fig. 6 CURRENT TRANSFORMER INPUT

WIRING

Note:

1) The input impedance is equal to 10 Ω.

2) the maximum input current is equal to 50 mA

(50 / 60 Hz).

RTD

13 4

RTD

Current

transformer

Load

GBGB

3) Use copper conductors only.

4) Don’t run input wires together with power cables.

5) Relay output and SSR drive output are both

available. When a relay output is desired it is

necessary to enable the SSR output and

viceversa (see chapter "Preliminary hardware

settings").

The following recommendations avoid serious

problems which may occur, when using relay

output for driving inductive loads.

INDUCTIVE LOADSINDUCTIVE LOADS

INDUCTIVE LOADS

High voltage transients may occur when switching

inductive loads.

Through the internal contacts these transients

may introduce disturbances which can affect the

performance of the instrument.

The internal protection (varistor) assures a correct

protection up to 0.5 A of inductive component but

the OUT 1 NC contact and out 3 are not

protected.

The same problem may occur when a switch is

used in series with the internal contacts as shown

in Fig. 8.

Fig. 8 EXTERNAL SWITCH IN SERIES WITH

THE INTERNAL CONTACT

C) RELAY OUTPUTSC) RELAY OUTPUTS

C) RELAY OUTPUTS

Fig. 7 RELAY OUTPUT WIRINGS

The output 2 and the NO contact of the output 1 are

protected, by varistor, from inductive load with an

inductive component up to 0,5 A.

The rating of the out 1 contact is equal to 3A/250

V AC on resistive load.

The rating of the out 2 and 3 contacts is equal to

2A/250 V AC on resistive load.

The number of operations is 1 x 105at specified

rating.

NOTESNOTES

NOTES:

1) To avoid electric shock, connect power line at

the end of the wiring procedure.

2) For power connections use No 16 AWG or larger

wires rated for at last 75 °C.

OUT 1 20 C

22 NC

AL2/HBD

(OUT 3)

C - OUT 3

NO - OUT 3

AL1/COOL

(OUT 2)

OUT 2

C - OUT 2

NO/NC

[see Fig.11 (J303)]

LOAD

CPOWER

LINE

GBGB

In these cases it is recommended to install an

additional RC network across the external contact

(or close to the non protected contact of the

instrument) as shown in Fig. 8.

The capacity (C) and resistive (R) values are

shown in the following table.

The cable involved in relay output wiring must be

as far away as possible from input or communica-

tion cables.

D) LOGIC OUTPUT FOR SSR DRIVED) LOGIC OUTPUT FOR SSR DRIVE

D) LOGIC OUTPUT FOR SSR DRIVE

Fig. 9 SSR DRIVE OUTPUT WIRING.

These are time proportioning outputs.

Logic level 0Logic level 0

Logic level 0: Vout < 0.5 V DC.

Logic level 1Logic level 1

Logic level 1:

- 14 V + 20 % @ 20 mA

- 24 V + 20 % @ 1 mA.

Maximum current = 20 mA.

NOTESNOTES

NOTES:

1) These outputs are not isolated.

A double or reinforced isolation between instru-

ment output and power supply must be assured

by the external solid state relay.

2) Relay output and SSR drive output are both

available. When a SSR output is desired it is

necessary to enable the relay output and

viceversa (see chapter "Preliminary hardware

settings").

LOAD

(mA)

<40 mA

<150 mA

<0.5 A

(µF)

0.047

0.1

0.33

(Ω)

100

(W)

1/2

OPERATING

VOLTAGE

260 V AC

Solid state relay

OUT 1

OUT 2

(AL1/Cool.)

GBGB

R (S,T)

12 N

Power line

from 100 V to 240 V AC (50/60Hz)

or 24 V AC/DC

E) POWER SUPPLYE) POWER SUPPLY

E) POWER SUPPLY

Fig. 10 POWER LINE WIRING

NOTENOTE

NOTE:

1) Before connecting the instrument to the power

line, make sure that line voltage corresponds

to the description on the identification label.

2) To avoid electric shock, connect power line at

the end of the wiring procedure.

3) For supply connections use No 16 AWG or larger

wires rated for at last 75 °C.

4) Use copper conductors only.

5) Don’t run input wires together with power cables.

6) For 24 V AC/DC power supply, the input polarity

is a do not care condition.

7) The power supply input has no fuse protection.

Please, provide a fuse type T, 1 A, 250 V

externally.

When fuse is damaged, it is advisable to verify

the power supply circuit, so that it is necessary to

send back the instrument to your supplier.

8) The safety requirements for Permanently

Connected Equipment say:

- a switch or circuit-breaker shall be included in

the building installation;

- It shall be in close proximity to the equipment

and within easy reach of the operator;

- it shall be marked as the disconnecting

device for the equipment.

NOTENOTE

NOTE: a single switch or circuit-breaker can drive

more than one instrument.

9) When a neutral line is present, connect it to

terminal 12.

GBGB

PRELIMINARY HARDWAREPRELIMINARY HARDWARE

PRELIMINARY HARDWARE

SETTINGSSETTINGS

SETTINGS

1) Remove the instrument from its case.

2) For out 1 and 2 it is possible to select the

desired output type by setting the J304 and J305

jumpers.

J304 (AL1, Cool.) 1-2 = SSR 2-3 = Relay

J305 (OUT 1) 1-2 = SSR 2-3 = Relay

3) For out 2 it is possible to select the used relay

contact (NO or NC) by setting J303 jumper.

J303 (AL1, Cool.) 1-2 = Out NO 2-3 = Out NC

NoteNote

Note : J303 is a soldering jumper and it is located

on the soldering side of the card.

Fig 11

OPEN INPUT CIRCUITOPEN INPUT CIRCUIT

OPEN INPUT CIRCUIT

These device are capable to detect leads break

for TC and RTD inputs. For RTD input it shows

this status as an overrange condition.

For thermocouple input only, it is possible, to

select the overrange indication (standard) by

closing CH2 and opening SH2 or underrange

indication by closing SH2 and opening CH2.

SH2 and CH2 are located on the soldering side of

the CPU card (see fig.12).

Fig. 12

XY00

345

J301

J302

L305

R301

R303

D305

C308

C306

C307

R305

C312

C310

D307

R308

C309

PZ12 PZ13

PZ14 PZ15

PZ16

PZ19

PZ20 PZ21 PZ22

R307

R306

Q302

U302

TR301

J304

J305

Y301

D306

D308

D304

U301

PZ18

PZ17

C301

C304

J303

C303

C311

C302 C305

C314

C313

L304 L301

L303

L302

R309

R310

R312

R314

R311 R302

R304

R313

Q303

Q305

D302

Q301

Q304

D301

D310

K302

K301

J 303

J304 J305

CH2

SH2

GBGB

GENERAL NOTES for configuration.GENERAL NOTES for configuration.

GENERAL NOTES for configuration.

FUNC = This will memorize the new value of

the selected parameter and go to the

next parameter (increasing order).

SMRT = This will scroll back the parameters

without memorization of the new value.

= This will increase the value of the

selected parameter

= This will decrease the value of the

selected parameter.

CONFIGURATION PROCEDURECONFIGURATION PROCEDURE

CONFIGURATION PROCEDURE

1) Remove the instrument from its case.

2) Set the internal switch V2 in open condition

Fig.13

3) Re-insert the instrument..

4) Switch the instrument “ON”.

The display will show COnF.

NOTENOTE

NOTE : If “CAL” indication is displayed, press

immediately the push-button to return to the

configuration procedure.

5) Push the FUNC push-button.

The instrument will show on the lower display

the parameter code and on the upper display

the actual parameter value.

P1 - Input type and standard rangeP1 - Input type and standard range

P1 - Input type and standard range

0 = TC type L range 0 / +800 °C

1 = TC type J range 0 / +800 °C

2 = TC type K range 0 / +999 °C

3 = TC type N range 0 / +999 °C

4 = RTD type Pt 100 range -199 / +500 °C

5 = RTD type Pt 100 range -19.9 /+99.9 °C

6 = TC type T range 0 / +400 °C

8 = TC type L range 0 / +999 °F

9 = TC type J range 0 / +999 °F

10 = TC type K range 0 / +999 °F

11 = TC type N range 0 / +999 °F

12 = RTD type Pt 100 range -199 / +999 °F

13 = TC type T range 0 / +752 °F

P2 = Initial scale valueP2 = Initial scale value

P2 = Initial scale value

Not present when P1 = 5

Initial scale value used by the PID algorithm to

calculate the input span.

P2 is programmable within the input span

selected by P1.

When P2 has been modified, the instrument

assignes to the rL parameter the new P2 value.

GBGB

P3 = Full scale valueP3 = Full scale value

P3 = Full scale value

Not present when P1 = 5

Full scale value used by the PID algorithm to

calculate the input span.

P3 is programmable within the input span

selected by P1.

When P3 has been modified, the instrument

assignes to the rH parameter the new P3 value.

NOTENOTE

NOTE: the minimum input span (P3 - P2) is

- 300 °C or 600 °F for TC input

- 100 °C or 200 °F for RTD input.

P4 = Output configurationP4 = Output configuration

P4 = Output configuration

H = heating

HC = heating/cooling

P5 = Main output typeP5 = Main output type

P5 = Main output type

rEL = Relay output.

SSr = SSR output.

NOTENOTE

NOTE:

Setting P5 = rEL, the C parameter will be

automatically set to 20 s.

Setting P5=SSr, the C parameter will be

automatically set to 2 s.

P6 = Cooling output typeP6 = Cooling output type

P6 = Cooling output type

Available only when P4 = HC

AIr = air

OIL = oil

H2O = water

NOTENOTE

NOTE:

Setting P6 = Air, the C2 parameter will be

automatically set to 10 s

and rC parameter will be

set to 1.00.

Setting P6=OiL, the C2 parameter will be au-

tomatically set to 4 s and rC

parameterwillbe setto0.80.

Setting P6=H2O, the C2 parameter will be au-

tomatically set to 2 s and rC

parameterwillbe setto0.40.

P7 = Alarm 1P7 = Alarm 1

P7 = Alarm 1

Available only when P4 = H.

0 = Not provided

1 = Process alarm

2 = Band alarm

3 = Deviation alarm

P8 = Alarm 1 operative modeP8 = Alarm 1 operative mode

P8 = Alarm 1 operative mode

Available only when P7 is different from 0 and

P4 = H.

H.A = high alarm (outside band) with automatic

reset

L.A = low alarm (inside band) with automatic reset

H.L= high alarm (outside band) with manual reset

L.L= low alarm (inside band) with manual reset

P9 = Stand by (mask) of the alarm 1P9 = Stand by (mask) of the alarm 1

P9 = Stand by (mask) of the alarm 1

Available only when P7 is different from 0 and

P4 = H. OFF = stand by (mask) disabled

ON = stand by (mask) enabled

NOTENOTE

NOTE: the alarm stand by function allows to

disable the alarm indication at instrument start up

or, for band and deviation alarms, after a set point

modification.

The alarm will be automatically reactivated when

the initial alarm condition disappears.

GBGB

P10 = Alarm 2P10 = Alarm 2

P10 = Alarm 2

0 = Not provided

1 = Process alarm

2 = Band alarm

3 = Deviation alarm

Alarm 2 and HBD functions are in OR condition

on the output 3 (see P16 parameter).

P11 = Alarm 2 operative mode and reset of theP11 = Alarm 2 operative mode and reset of the

P11 = Alarm 2 operative mode and reset of the

HBD alarm.HBD alarm.

HBD alarm.

Available only when P10 is different from 0 or P16

is different from OFF.

H.A = high alarm (outside band) with

automatic reset

L.A = low alarm (inside band) with automatic reset

H.L= high alarm (outside band) with manual reset

L.AL= low alarm (inside band) with manual reset

NOTENOTE

NOTE: The HBD alarm is a low alarm but it

assumes the same reset type selected for

alarm 2.

P12 = Stand by (mask) of the alarm 2P12 = Stand by (mask) of the alarm 2

P12 = Stand by (mask) of the alarm 2

Available only when P10 is different from 0.

OFF = stand by (mask) disabled

ON = stand by (mask) enabled

For other details see P9 parameter.

P13 = Type of OFFSET applied to theP13 = Type of OFFSET applied to the

P13 = Type of OFFSET applied to the

measured valuemeasured value

measured value

P13 = 0 the OFFSET (P14) is

constant all over the range.

P13 different from 0P13 is the application point of

the OFFSET selected by P14

parameter.

NOTENOTE

NOTE: the P13 and P14 parameters do not

modify the measuring or read-out limits of the

instrument so that when one of this limit has been

exceeded, the instrument will show an out of

range condition.

P14 = OFFSET valueP14 = OFFSET value

P14 = OFFSET value

When P13 = 0, P 14 is programmable, in

engineering units, from -20% to

+ 20% of the input span (see

P1).

When P13 ≠0 P14 is programmable, in

engineering units, from -20% to

+ 20% of the P13 value.

NOTENOTE

NOTE: the P14 parameter can not be set lower

than -199 units.

P15 = Threshold of the “Soft Start” function.P15 = Threshold of the “Soft Start” function.

P15 = Threshold of the “Soft Start” function.

Threshold value, in engineering units, used by the

instrument for automatic enabling of the "soft

start" function (timed output power limiting).

At instrument start up, if the measured value is

lower than the programmed threshold value, the

instrument will automatically enable the output

power limiter (see OLH parameter) and it

maintains this limit for a time programmed by tOL

parameter.

At instrument start up, if the tOL parameter is

equal to "InF", the P15 setting has no effect.

P13 = 0

Readout.

Adjusted

curve

Input

P14

Real

curve

P13

Readout.

P14

Input

Real

curve

Adjusted

curve

GBGB

P16 =P16 =

P16 = Measure of the current consumed byMeasure of the current consumed by

Measure of the current consumed byMeasure of the current consumed by

Measure of the current consumed by

the load driven by the main outputthe load driven by the main output

the load driven by the main output

(HBD)(HBD)

(HBD)

OFF = measure disabled

n.O. = measure enabled during the ON period

(logic status 1 for SSR output or contact

NO for relay output)

n.C. = measure enabled during the OFF period

(logic status 0 for SSR output or contact

NC for relay output)

P17 =P17 =

P17 =Full scale of the current transformer.Full scale of the current transformer.

Full scale of the current transformer.Full scale of the current transformer.

Full scale of the current transformer.

Available only when P16 is different from OFF.

10 = 10 A (resolution: 0.1 A)

25 = 25 A (resolution: 1 A)

50 = 50 A (resolution: 1 A)

100 = 100 A (resolution: 1 A)

P18 = Safety lockP18 = Safety lock

P18 = Safety lock

0 = device unlocked. All the parameters can be

modified

1 = device locked. No one parameters can be

modified exception made for SP.

From 2 to 499 = during operative mode, SP

parameter can be modified and

this number allows to enable/

disable the modification of all the

other parameters.

From 500 to 999 = SP, A1 and A2 parameters

can be modified and this number

allows to enable/disable the

modification of all the other

parameters.

NOTENOTE

NOTE: After FUNC push-button pressure it will be

impossible to display this value again. If you don't

remember the old key, set a new value.

The configuration procedure is completed and the

instrument will show " -.-.-." on both displays.

When it is desired to end the configuration

procedure push the FUNC push-button; the

display will show "COnF".

When it is desired to access to the advanced

configuration parameter, proceed as follows:

1) using and push-button set the 217 code.

2) push the FN push-button; the instrument will

start the auxiliary configuration procedure and

it will show the following additional param-

eters.

P19 - Main output actionP19 - Main output action

P19 - Main output action

Available only when P4 = H.

r = Reverse (heating)

d = direct (cooling)

NoteNote

Note : when P4 = HC, this parameter is

equal to "r".

P21 - Alarm 1 output actionP21 - Alarm 1 output action

P21 - Alarm 1 output action

Available only when P7 is different from 0 and P4

is equal to H.

r = reverse (relay de-energized in alarm

condition).

d = Direct (relay energized in alarm condition)

Input

Output t

Input

Output

Reverse Direct

GBGB

P22 - Alarm 2 output actionP22 - Alarm 2 output action

P22 - Alarm 2 output action

Available only when P10 is different from 0 and

P16 is different from "OFF".

r = reverse (relay de-energized in alarm

condition).

d = Direct (relay energized in alarm condition)

P23 - Automatic modification of the "relativeP23 - Automatic modification of the "relative

P23 - Automatic modification of the "relative

cooling gain"cooling gain"

cooling gain"

Available only when P4=HC.

OFF = The SMART function will NOTNOT

NOTNOT

NOT modify

the "relative cooling gain" parameter

value.

ON = The SMART function will modify the

"relative cooling gain" parameter value.

P24 - Control output maximum rate of riseP24 - Control output maximum rate of rise

P24 - Control output maximum rate of rise

This parameter allows to set the maximum rate of

rise of the control output.

It is programmable from 1 to 10 % of the output

signal per second.

Setting a value greater then 10%/s the upper

display will blank and no limit is applied.

P25 - Display of the protect parameterP25 - Display of the protect parameter

P25 - Display of the protect parameter

enabling/disabling.enabling/disabling.

enabling/disabling.

Available only when P18 is different from 0.

OFF = protected parameter cannot be displayed

ON = protected parameter can be displayed

P26 - SMART function enabling/ disablingP26 - SMART function enabling/ disabling

P26 - SMART function enabling/ disabling

0 = The SMART function is disabled

1 = The SMART function enabling/disabling

is NOTNOT

NOTNOT

NOT protected by the safety key.

2 = The SMART function enabling/disabling

is protected by the safety key.

P27 - Maximum value of the proportional bandP27 - Maximum value of the proportional band

P27 - Maximum value of the proportional band

settable by the SMART functionsettable by the SMART function

settable by the SMART function

Available only when P26 is different from 0.

This parameter may be programmed from P28 or

P29 value to 99.9.

P28 - Minimum value of the proportional bandP28 - Minimum value of the proportional band

P28 - Minimum value of the proportional band

settable by the SMART functionsettable by the SMART function

settable by the SMART function

Available only when P4=H and P26 is different

from 0.

This parameter may be programmed from 1.0 %

to P27 value.

P29 - Minimum value of the proportional bandP29 - Minimum value of the proportional band

P29 - Minimum value of the proportional band

settable by the SMART function in heating/settable by the SMART function in heating/

settable by the SMART function in heating/

cooling control onlycooling control only

cooling control only

Available only when P4=HC and P26 is different

from 0.

This parameter may be programmed from 1.5 %

to P27 value.

P30 - Minimum value of integral time settableP30 - Minimum value of integral time settable

P30 - Minimum value of integral time settable

by SMART function.by SMART function.

by SMART function.

Available only when P26 is different from 0.

This parameter may be programmed from 00.1

(mm.s) to 02.0 (mm.s).

P31 - Extension of the anti-reset-wind upP31 - Extension of the anti-reset-wind up

P31 - Extension of the anti-reset-wind up

Range: from -30 to +30 % of the proportional

band.

NOTENOTE

NOTE: a positive value increases the high limit of

the anti-reset-wind up (over set point) while a

negative value decreases the low limit of the anti-

reset-wind up (under set point).

The auxiliary configuration is finished and the

instrument will show "CnF" on the upper display.

GBGB

OPERATIVE MODEOPERATIVE MODE

OPERATIVE MODE

1) Remove the instrument from its case.

2) Set the V2 jumper (see fig. 13) in close

condition.

3) Re-insert the instrument.

4) Switch on the instrument.

The upper display will show the measured value

while the lower display will show the programmed

set point (we define this display condition as

“normal display mode”).

NoteNote

Note: When a ramp is applied to the set point value

(see rP parameter), the displayed set point

value may be different from the operative set

point.

When the HBD function is configured, the control

output is enabled and the instrument is in normal

display mode, pushing the push-button the

lower display will show the current, followed by

the "A" symbol, consumed by the load driven by

the main output.

NOTENOTE

NOTE: the time out has no effect on this

indication.

When it is desired to come back to the normal

display mode, push the push-button again.

SMART functionSMART function

SMART function

The SMART algorithm is a NEW self-tuning

function of the instrument. It is used by the

instrument to calculate and set automatically the

control parameters.

The SMART algorithm may be ever operative; in

this case it will adapt continuously the control

parameter in order to perform the best control

action.

To start "SMART" function, depress the SMRT

push-button for more than 1.5 seconds when the

instrument is in NORMAL DISPLAY MODE, the

SMRT indicator will start blinking or lighting

according to the special function performing.

When it is desired to disable the SMART function,

push the SMRT push-button again, the SMRT

indicator will turn to OFF.

NOTESNOTES

NOTES:

1) During the SMART function operation, the

relative cooling gain (if present) is limited within

the following ranges:

Cooling element range

Air 0.85 to 1.00

OIL 0.80 to 0.90

H2O 0.30 to 0.60

2) The SMART function use a derivative action

equal to 1/4 of the integral action.

3) The limits of the proportional band and of the

integral time settable by the SMART function

are programmed by P27, P28, P29 and P30

parameter.

4) The enabling/disabling of the SMART function

may be under safety key protection.

5) When SMART function is enabled, it is

impossible to modify the Pb, ti and td

parameter; for rC parameter see P23

parameter.

GBGB

HEATER BREAK DOWN ALARMHEATER BREAK DOWN ALARM

HEATER BREAK DOWN ALARM

This alarm allows to verify, continuously, the

current consumed by the load driven by the main

output and generates an alarm condition when

this current is lower than a programmable

threshold.

To display the main load consumption, push the

push-button when the instrument is in

NORMAL DISPLAY MODE.

The upper display will show the measured value

while the lower display will show the main load

consumption (in Ampere) followed by the

engineering unit (A).

To come back to the normal display mode, push

the  push-button.

When an alarm condition is detected, the LED

AL2/HB will be flashing and the relay of the out 3

(alarm 2 OR heater break down alarm) will be

activated.

OUTPUT POWER OFFOUTPUT POWER OFF

OUTPUT POWER OFF

The TMS allows to turn OFF manually the output

signal in order to stop the control (the instrument

will operate as an indicator only).

To turn OFF the output signal proceed as follows:

1) push and maintain the pressure on the 

push-button

2) push FUNC push-button.

3) Maintaining the pressure on both push-buttons

for more than 3 seconds; the lower display will

show "OFF" and the output signal will be

inhibited.

When it is desired to come back to the normal

control, repeat the actions 1, 2 and 3; the

instrument goes automatically to the NORMAL

DISPLAY MODE.

NOTE:NOTE:

NOTE: 1)The instrument memorizes the output

status.

2)If the output is turned OFF when the

SMART function was performing the first

part of the algorithm (LED SMRT is

flashing), the SMART function will be

aborted and when the instrument comes

back to the normal control, the SMART

function will be disabled.

If the output is turned OFF when the

SMART function was performing the

adaptive part of the algorithm (LED

SMRT is lit), the SMART function will be

stopped and, when the instrument

comes back to the normal control, the

smart function also will be activated.

GBGB

DIRECT ACCESS TO THE SET POINTDIRECT ACCESS TO THE SET POINT

DIRECT ACCESS TO THE SET POINT

MODIFICATIONMODIFICATION

MODIFICATION

The instrument allows to modify the set point

value without to use the FUNC push-button.

When a rapid set point modification is required,

proceed as follows:

1) Pushing, for more than 3 seconds, the  or

push-button; the set point value, shown on

the lower display, will start to change.

2) Using the  and push-buttons, it is

possible to set the desired value.

3) When the desired value is reached, do not

push any push-button for more than 3

seconds, the new set point will become

operative after 3 seconds from the last push-

button pressure.

If, during this procedure, it is desired to lose the

new value, push the FUNC push-button; the

instrument automatically returns to the normal

display mode without to memorize the new set

point.

LAMP TESTLAMP TEST

LAMP TEST

When it is desired to verify the display efficiency,

push and FUNC push-buttons. The instrument

will turn ON, with a 50 % duty cycle, all the LED

of the display (we define this function "LAMP

TEST").

No time out is applied to the LAMP TEST.

When it is desired to come back to the normal

display mode, push and FUNC push-buttons

again.

No other keyboard function is available during

LAMP TEST.

OPERATIVE PARAMETERSOPERATIVE PARAMETERS

OPERATIVE PARAMETERS

Operative parameter modificationOperative parameter modification

Operative parameter modification

Push the FUNC push-button, the lower display

will show the code while the upper display will

show the value or the status (ON or OFF) of the

selected parameter.

By or push-button it is possible to set the

desired value or the desired status.

Pushing the FUNC push-button, the instrument

memorizes the new value (or the new status) and

goes to the next parameter.

A pressure of the SMRT push-button allows to come

back to the previous parameter without to memorize

the new set of the actual parameter.

Some parameters may be not visualized according

to the specific instrument configuration.

NOTENOTE

NOTE: 1) If, during operative parameter

modification, no push-button is

pressed for more than 10 seconds,

the instrument reverts automatically

to the “normal display mode” without

to memorize the last parameter

setting.

2) The instrument do not display all

parameter but it select the

parameter in accordance with:

a) the instrument configuration

b) P25 setting

c) the proportional band setting.

GBGB

Param.Description

SP Main set pointMain set point

Main set pointMain set point

Main set point

Range: from rL to rH.

n.rS Manual reset of the alarmsManual reset of the alarms

Manual reset of the alarmsManual reset of the alarms

Manual reset of the alarms

This parameter is available only when one

alarm with manual reset has been

programmed.

Set ON and push the FUNC push-button

to reset the alarms.

nnn Software key for parameter protectionSoftware key for parameter protection

Software key for parameter protectionSoftware key for parameter protection

Software key for parameter protection.

This parameter is skipped if P18 = 0 or 1.

The instrument will shows the safety key

status:

ON = the instrument is in LOCK condition

OFF = the instrument is in UNLOCK

condition

When it is desired to switch from LOCK to

UNLOCK condition, set a value equal to

P18 parameter

When it is desired to switch from UNLOCK

to LOCK condition, set a value different

from P18 parameter.

A1 Alarm 1 threshold valueAlarm 1 threshold value

Alarm 1 threshold valueAlarm 1 threshold value

Alarm 1 threshold value

This parameters is present if the alarm 1

is configured only.

Ranges:

- From P2 to P3 for process alarm.

- From 0 to 500 units for band alarm.

- From -199 to 500 units for deviation

alarm.

A2 Alarm 2 threshold valueAlarm 2 threshold value

Alarm 2 threshold valueAlarm 2 threshold value

Alarm 2 threshold value

For other details see A1 parameter.

H1 Alarm 1 hysteresisAlarm 1 hysteresis

Alarm 1 hysteresisAlarm 1 hysteresis

Alarm 1 hysteresis

This parameters is present if the alarm 1

is configured only.

Range: From 0.1% to 10.0% of the input

span or 1 LSD.

NoteNote

Note: If the hysteresis of a band alarm is

larger than the alarm band, the instrument

will use an hysteresis value equal to the

programmed band minus 1 digit.

H2 Alarm 2 hysteresisAlarm 2 hysteresis

Alarm 2 hysteresisAlarm 2 hysteresis

Alarm 2 hysteresis

For other details see H1 parameter.

Pb Proportional band.Proportional band.

Proportional band.Proportional band.

Proportional band.

Range::

: from 1.0 % to 99.9 % of span for

heating output.

From 1.5 % to 99.9 % of span for heating/

cooling output.

When Pb parameter is set to 0, the

instrument performs an ON-OFF control;

the ti, td, IP, C, C2, rC, OLP, OLH and

tOL parameters are skipped and SMART

function is disabled.

NoteNote

Note: When SMART is enabled, the Pb

parameter range is limited by P27, P28 and

P29 parameters.

HS Hysteresis for ON/OFF control actionHysteresis for ON/OFF control action

Hysteresis for ON/OFF control actionHysteresis for ON/OFF control action

Hysteresis for ON/OFF control action

It is available only when Pb=0.

Range: from 0.1% to 10.0% of the input

span.

ti Integral timeIntegral time

Integral timeIntegral time

Integral time

"ti" is skipped if Pb=0 (ON/OFF action).

Range: from 00.1 to 20.0 [mm.ss]. Above

this value the display blanks and integral

action is excluded

NoteNote

Note: When SMART is enabled, the mini-

mum value of the integral time is limited by

P30 parameter.

td Derivative timeDerivative time

Derivative timeDerivative time

Derivative time

"td" is skipped if Pb=0 (ON/OFF action).

Range: from 0.01 to 9.59 m.ss. Setting the

0 value the derivative action is excluded.

NoteNote

Note: When SMART is enabled the td

value will be equal to 1/4 of the integral

time.

Table of contents

Languages:

Other ero electronic Temperature Controllers manuals

ero electronic

ero electronic LFS - R Installation and operating instructions

ero electronic

ero electronic LFS User manual

ero electronic

ero electronic ESR-AC User manual

Popular Temperature Controllers manuals by other brands

Cumberland

Cumberland EXPERT-50 user manual

Omega Engineering

Omega Engineering OS136 SERIES user guide

TiEmme

TiEmme GLH110 user manual

Bosch

Bosch FR 120 Operating instructions for the user

Vaillant

Vaillant VRC 470 operating instructions

ECKELMANN

ECKELMANN UA 410 L Series Operating instruction

Carel

Carel ir33 smart user manual

First

First UNI TEMP Series manual

AKO

AKO 14212 instructions

dixell

dixell XW20K Installing and operating insructions

Full Gauge Controls

Full Gauge Controls MT-519Ri manual

Brivis

Brivis KJR-12B/DPBGT-E owner's manual

BriskHeat

BriskHeat HL101 Series instruction manual

Euromex

Euromex AE.5168 instruction manual

La Crosse Technology

La Crosse Technology CA308148 Setup guide

PolyScience

PolyScience Standard Controller Models Operator's manual

American Standard

American Standard ZZSENSAL0400AA Installer's guide

METER

METER RT-1 quick start guide

ero electronic TMS User manual

Popular Temperature Controllers manuals by other brands