DAB E.SYBOX Mode d'emploi

ISTRUZIONI PER L’INSTALLAZIONE E LA MANUTENZIONE

INSTRUCTIONS FOR INSTALLATION AND MAINTENANCE

INSTRUCTIONS POUR L’INSTALLATION ET L’ENTRETIEN

BEDIENUNGS- UND WARTUNGSANWEISUNGEN

GEBRUIKS- EN ONDERHOUDSAANWIJZINGEN

ИНСТРУКЦИИ ПО МОНТАЖУ И ТЕХОБСЛУЖИВАНИЮ

ASENNUS- JA HUOLTO-OHJEET

INSTALLATIONS - OCH UNDERHÅLLSANVISNING

INSTRUCTIUNI DE INSTALARE SI INTRETINERE

ΟΔΗΓΙΕΣ ΕΓΚΑΤΑΣΤΑΣΗΣ ΚΑΙ ΣΥΝΤΗΡΗΣΗΣ

INSTRUCCIONES PARA LA INSTALACIÓN Y EL MANTENIMIENTO

KURULUM VE BAKIM TALİMATI

INSTRUKCJA MONTAŻU I KONSERWACJI

NÁVOD K INSTALACI A ÚDRŽBĚ

INSTALLÁCIÓS ÉS KARBANTARTÁSI KÉZIKÖNYV

ИНСТРУКЦИЯ ЗА МОНТИРАНЕ И ПОДДРЪЖКА

INSTRUÇÕES PARA A INSTALAÇÃO E A MANUTENÇÃO



Manuale valido per le versioni  rmware 5.x-4.x-1.x

Manual valid for  rmware versions 5.x-4.x-1.x

Manuel valide pour les versions micrologiciel 5.x-4.x-1.x

Gültiges Handbuch für die Firmware-Versionen 5.x-4.x-1.x

Handleiding geldig voor de  rmware-versies 5.x-4.x-1.x

Руководство действительно для редакции зашитой программы 5.x-4.x-1.x

Käyttöopas laiteohjelmaversioille 5.x-4.x-1.x

Bruksanvisning för programvaruversioner 5.x-4.x-1.x

Manual valabil pentru versiunile de  rmware 5.x-4.x-1.x

Εγχειρίδιο έγκυρο για τις εκδόσεις  rmware 5.x-4.x-1.x

Manual válido para las versiones  rmware 5.x-4.x-1.x

Donanım yazılımının 5.x-4.x-1.x versiyonları için geçerli el kitabı

Instrukcja obowiązuje dla wersji  rmware 5.x-4.x-1.x

Příručka platná pro verze  rmwaru 5.x-4.x-1.x

A kézikönyv a  rmware 5.x-4.x-1.x verzióhoz érvényes ( rmware 5.x-4.x-1.x=

beépített programverzió)

Валидно за вариант 5.x-4.x-1.x

Manual válido para as versões  rmware 5.x-4.x-1.x

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INDEX

Key 60

Warnings 60

Responsibility 61

1. General 61

1.1 Description of the Integrated Inverter 62

1.2 Integrated expansion vessel 62

1.3 Integrated electropump 63

1.4 Technical characteristics 64

2. Installation 65

2.1 Vertical Conguration 66

2.1.1 Hydraulic connections 66

2.1.2 Loading operation – Installation above head and below head 67

2.2 Horizontal conguration 67

2.2.1 Hydraulic connections 68

2.2.2 Orientation of the interface panel 68

2.2.3 Loading operation – Installation above head and below head 69

3. Commissioning 69

3.1 Electrical connections 69

3.2 Conguration of the integrated inverter 70

3.3 Priming 70

4. Protection systems 71

4.1 Description of blockages 71

4.1.1 “BL” AAnti Dry-Run (Protection against dry running) 71

4.1.2 Anti-Cycling (Protection against continuous cycles without utility request) 72

4.1.3 Anti-Freeze (Protection against freezing of water in the system) 72

4.1.4 “BP1” Blockage due to fault of the internal pressure sensor 72

4.1.5 PB” Blockage due to line voltage outside specications 72

4.1.6 “SC” Blockage due to short circuit between the motor phases 72

4.2 Manual reset of error conditions 73

4.3 Self-reset of error conditions 73

5. Inverter electronic control and user interface 73

5.1 Operation with control unit 73

5.1.1 Functions made available by control units 74

5.1.2 Electrical connections of utility inputs and outputs 74

5.1.3 Safety mode operation 74

5.1.4 Control unit function setup 75

5.1.5 Association and disassociation of e.sybox and control unit 75

6. The keypad and the display 76

6.1 Direct access with a combination of keys 77

6.2 Access by name with a drop-down menu 80

6.3 Structure of the menu pages 81

6.4 Blocking parameter setting by Password 82

6.5 Enabling and disabling the motor 82

7. Meaning of the individual parameters 82

7.1 User Menu 82

7.1.1 Status 82

7.1.2 RS: Rotation speed display 82

7.1.3 VP: Pressure display 82

7.1.4 VF: Flow display 82

7.1.5 PO: Absorbed power display 83

7.1.6 C1: Phase current display 83

7.1.7 Operating hours and number of starts 83

7.1.8 PI: Power histogram 83

7.1.9 Multi-pump system 83

7.1.10 Output ow meter 83

7.1.11 VE: Version display 83

7.1.12 FF: Fault log display 84

7.2 Monitor Menu 84

7.2.1 CT: Display contrast 84

7.2.2 BK: Display brightness 84

7.2.3 TK: Backlight switch-on time 84

7.2.4 LA: Language 84

7.2.5 TE: Dissipator temperature display 84

7.3 Setpoint Menu 84

7.3.1 SP: Setting the setpoint pressure 84

7.3.2 Setting the auxiliary pressures 84

7.3.2.1 P1: Setting the auxiliary setpoint 1 85

7.3.2.2 P2: Setting the auxiliary setpoint 2 85

7.3.2.3 P3: Setting the auxiliary setpoint 3 85

7.3.2.4 P4: Setting the auxiliary setpoint 4 85

7.4 Manual Menu 85

7.4.1 Status 85

7.4.2 RI: Speed setting 85

7.4.3 VP: Pressure display 86

7.4.4 VF: Flow display 86

7.4.5 PO: Absorbed power display 86

7.4.6 C1: Phase current display 86

7.4.7 RS: Rotation speed display 86

7.4.8 TE: Dissipator temperature display 86

7.5 Installer Menu 86

7.5.1 RP: Setting the pressure fall to restart 86

7.5.2 OD: Type of plant 86

7.5.3 AD: Address conguration 86

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7.5.4 MS: Measuring system 87

7.5.5 AS: Association of devices 87

7.5.6 PR: Remote pressure sensor 88

7.6 Technical Assistance Menu 88

7.6.1 TB: Water lack blockage time 88

7.6.2 T1: Switch-off time after low pressure signal 89

7.6.3 T2: Delay in switching off 89

7.6.4 GP: Proportional gain coefcient 89

7.6.5 GI: Integral gain coefcient 89

7.6.6 RM: Maximum speed 89

7.6.7 Setting the number of devices and of reserves 89

7.6.8 NA: Active devices 89

7.6.9 NC: Simultaneous devices 89

7.6.10 IC: Conguration of the reserve 89

7.6.10.1 Examples of conguration for multipump systems 90

7.6.11 ET: Max. switching time 90

7.6.12 AY: Anti Cycling 91

7.6.13 AE: Enabling the anti-block function 91

7.6.14 AF: Enabling the anti-freeze function 91

7.6.15 Setup of the auxiliary digitali inputs IN1, IN2, IN3, IN4 91

7.6.15.1 Disabling the functions associated with the input 92

7.6.15.2 Setting external oat function 92

7.6.15.3 Setting auxiliary setpoint input function 92

7.6.15.4 Setting system enabling and fault reset 93

7.6.15.5 Setting low pressure detection (KIWA) 94

7.6.16 Setup of the outputs OUT1, OUT2 94

7.6.17 O1: Setting output 1 function 95

7.6.18 O2: Setting output 2 function 95

7.6.19 FW: Firmware update 95

7.6.20 RF: Fault and warning reset 95

7.6.21 PW: Change password 95

7.6.21.1 Password for multipump systems 96

8. Reset and factory settings 96

8.1 Reset generale del sistema 96

8.2 Factory settings 96

8.3 Restoring the factory settings 96

9. Particular installations 98

9.1 Inhibiting self-priming 98

9.2 Wall installation 99

9.3 Installation with Quick Connection 99

9.4 Multiple Sets 99

9.4.1 Introduction to multipump systems 99

9.4.2 Making a multipump system 99

9.4.3 Wireless communication 100

9.4.4 Connection and setting of the inputs 100

9.4.5 Parameters linked to multipump operation 100

9.4.6 First start of the multipump system 101

9.4.7 Multipump adjustment 101

9.4.8 Assigning the starting order 102

9.4.9 Max. switching time 102

9.4.10 Reaching the maximum inactivity time 102

9.4.11 Reserves and number of devices that participate in pumping 102

9.4.12 Wireless Control 103

10. Maintenance 103

10.1 Accessory tool 103

10.2 Emptying the system 105

10.3 Non-return valve 105

10.4 Motor shaft 106

10.5 Expansion Vessel 106

11. Updang the e.Sybox rmware 106

11.1 General 106

11.2 Updating the rmware 107

11.2.1 Updating between one e.sybox and another 107

11.2.1.1 Manual updating 107

11.2.1.2 Automatic updating 107

11.2.1.3 Semiautomatic updating 108

11.2.2 Updating the e.sybox by e.sylink 108

12. Troubleshooting 108

13. Disposal 110

14. Guarantee 110

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and working conditions, have been approved by the person in

charge of plant safety, authorizing them to perform all the neces-

sary activities, during which they are able to recognize and avoid

all dangers. (Denition for technical personnel IEC 364).

The products dealt with in this discussion fall within the type of

professional equipment and belong to insulation class 1.

It is the responsibility of the installer to make sure that the power

supply system is equipped with an efcient grounding system

according to the regulations in force.

To improve immunity to possible noise radiating to other

equipment, it is advisable to use separate wiring to power the

inverter.

The appliance is not intended to be used by persons (including

children) with reduced physical, sensory or mental capacities, or

who lack experience or knowledge, unless, through the media-

tion of a person responsible for their safety, they have had the

benet of supervision or of instructions on the use of the appli-

ance. Children must be supervised to ensure that they do not

play with the appliance.

Safety

Use is allowed only if the electric system is in possession of safe-

ty precautions in accordance with the regulations in force in the

country where the product is installed (for Italy CEI 64/2).

Pumped liquids

The machine has been designed and made for pumping water,

free from explosive substances and solid particles or bres, with

a density of 1000 Kg/m³, a kinematic viscosity of 1mm²/s and

non chemically aggressive liquids.

The power supply cable must never be used to carry or shift the

pump.

KEY

The following symbols have been used in the discussion:

Situation of general danger. Failure to respect the instruc-

tions that follow may cause harm to persons and property.

Situation of electric shock hazard. Failure to respect the

instructions that follow may cause a situation of grave risk for

personal safety.

Notes

WARNINGS

This manual refers to e.sybox products. In the following discussion, the

term e.sybox will be used when the characteristics are shared by both

models. If the characteristics differ, the models and their differences will

be specied.

Read this documentation carefully before installation.

Installation and operation must comply with the local safety reg-

ulations in force in the country in which the product is installed.

Everything must be done in a workmanlike manner.

Failure to respect the safety regulations not only causes risk to

personal safety and damage to the equipment, but invalidates

every right to assistance under guarantee.

Skilled personnel

The electrical and hydraulic connections may only be carried out

by skilled personnel in possession of the technical qualications

required by the safety regulations in force in the country in which

the product is installed.

The term skilled personnel means persons whose training, ex-

perience and instruction, as well as their knowledge of the re-

spective standards and requirements for accident prevention

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Never pull on the cable to detach the plug from the socket.

If the power cable is damaged, it must be replaced by the manu-

facturer or by their authorised technical assistance service, so as

to avoid any risk.

Failure to observe the warnings may create situations of risk for persons or

property and will void the product guarantee.

RESPONSIBILITY

The Manufacturer does not vouch for correct operation of

the electropumps or answer for any damage that they may

cause if they have been tampered with, modi ed and/or run

outside the recommended work range or in contrast with

other indications given in this manual.

The Manufacturer declines all responsibility for possible er-

rors in this instructions manual, if due to misprints or errors

in copying. The Manufacturer reserves the right to make any

modi cations to products that it may consider necessary

or useful, without affecting their essential characteristics.

1- GENERAL

The product is an integrated system composed mainly of a self-priming

multi-stage centrifugal electropump, an electronic circuit that controls it

and an expansion vessel.

Applications

Water systems supply and pressure boosting domestic use or industrial

use.

On the outside the product appears as a parallelepiped that presents 6

faces as shown in Fig.1.

A B C D

E

F

F igure 1

A

B

E

F

Face A: a door allows access to the Technical Compartment. The door can

be removed by inserting 2  ngers in the rubber grips, squeezing and rotat-

ing the door around the hinges on the side opposite the grips (see Fig.2).

To put the door back in place, insert the hinges in their slots and close the

door until it clicks.

F igure 2

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Inside the technical compartment you can access (see Fig.3):

1. Valve of the expansion vessel;

2. Technical data plate;

3. Rapid Guide;

4. Motor shaft;

5. Accessory tool;

6. Filling cap (only for vertical

con guration)

Face B: a removable screw cap gives access to the non return valve (see

par. 10.3). Remove it only in the case of maintenance by skilled personnel.

Face C: the 4 brass threads form the seat for the 4 support feet in the case

of vertical installation. The two 1” screw caps can be removed to make the

connections towards the system, depending on the installation con gura-

tion you want to adopt. If applicable, connect to the connection marked

“IN” the system from which you want to draw water (well, cistern,…) and

connect the delivery system to the connection marked “OUT”. There is

also a ventilation grid.

Face D: removing the 1” cap allows access to a second delivery connec-

tion which can be used at the same time or alternatively to the one marked

”OUT” of face C. The power supply cable is for connection to the power

mains.

Face E: the 4 brass threads form the seat for the 4 support feet in the case

of horizontal installation. The 1” cap has the main function of emptying the

system. There are also 2 ventilation grids.

Face F: as indicated by the label to be removed, the 1” cap has a dual

function: in the case of horizontal installation, the outlet that is closed by

the cap acts as the system’s loading door (see below “loading operations”,

par. 2.2.3); in the case of vertical installation, the same outlet can act as

the input hydraulic connection (exactly like the one marked “IN” on face C

and as an alternative to it). The user interface panel is composed of a dis-

play and a keyboard and its function is to set the system, query its status

and communicate any alarms.

F igure 3

1. Valve of the expansion vessel;

2. Technical data plate;

3. Rapid Guide;

4. Motor shaft;

5. Accessory tool;

6. Filling cap (only for vertical

con guration)

The system can be installed in 2 different con gurations: horizontal (Fig.4)

or vertical (Fig.5).

1.1 Description of the Integrated Inverter

The electronic control integrated in the system is of the type with inverter

and it makes use of  ow, pressure and temperature sensors, also integrat-

ed in the system.

By means of these sensors the system switches on and off automatically

according to the utility’s needs and it is able to detect conditions of mal-

function, to prevent and indicate them.

The Inverter control ensures different functions, the most important of

which, for pumping systems, are the maintaining of a constant pressure

value in delivery and energy saving.

• The inverter is able to keep the pressure of a hydraulic circuit con-

stant by varying the rotation speed of the electropump. In oper-

ation without an inverter the electropump is unable to modulate

and, when there is an increase of the request for  ow, the pressure

necessarily decreases, or vice versa; this means the pressures

are too high at low  ow rates or too low when there is an increased

request for  ow.

• By varying the rotation speed according to the instantaneous re-

quest of the utility, the inverter limits the power supplied to the

electropump to the minimum necessary to ensure that the request

is satis ed. Instead, operation without an inverter contemplates

F igure 4

F igure 5

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6 3

operation of the electropump always and only at maximum power.

The system is congured by the manufacturer to satisfy the majority of

installation cases, that is:

• Operation at constant pressure;

• Set-Point (desired value of constant pressure:SP = 3.0 bar

• Reduction of pressure to restart: RP = 0.3 bar

• Anti-cycling function: Disabled

However, these parameters and others can be set according to the sys-

tem. All the settable values are illustrated in the par. 5-6-7: pressure, inter-

vention of protections, rotation speed, etc.

There are many other operating modes and accessory functions. Thanks

to the different possible settings and the availability of congurable input

and output channels, it is possible to adapt the inverter operation to the

requirements of various systems. See 5-6-7.

1.2 Integrated Expansion Vessel

The system is complete with an integrated expansion vessel with a total

capacity of 2 litres. The main functions of the expansion vessel are:

• to make the system elastic so as to protect it against water ham-

mer;

• to ensure a water reserve which, in the case of small leaks, main-

tains the pressure in the system for a longer time and spreads out

needless restarts of the system which otherwise would be contin-

uous;

• when the utility is turned on, ensure the water pressure for the

seconds that the system takes to switch on and reach the correct

rotation speed.

It is not a function of the integrated expansion vessel to ensure a water re-

serve such as to reduce interventions of the system (requests from the util-

ity, not from a leak in the system). It is possible to add an expansion vessel

with the capacity you prefer to the system, connecting it to a point on the

delivery system (not a suction point!). In the case of horizontal installation

it is possible to connect to the unused delivery outlet. When choosing the

tank, consider that the quantity of water released will also depend on the

parameters SP and RP that can be set on the system (par.6-7).

The expansion vessel is preloaded with pressurised air through the valve

accessible from the technical compartment (Fig.3, point 1). The preload

value with which the expansion vessel is supplied by the manufacturer is

in agreement with the parameters SP and RP set as default, and anyway it

satises the following equation:

Pair = SP – RP – 0.7bar Where:

- Pair = air pressure value in bar

- SP = Set Point (par.7.3) in bar

- RP = Reduction of pressure to restart

(par. 7.5.1) in bar

So, by the manufacturer: Pair = 3.0 – 0.3 – 0.7 = 2.0 bar

If different values are set for the parameters SP and/or RP, regulate the

valve of the expansion vessel releasing or letting in air until the above

equation is satised again (e.g.: SP=2.0bar; RP=0.3bar; release air from

the expansion vessel until a pressure of 1.0 bar is reached on the valve).

Failure to respect the above equation may lead to malfunctions

of the system or to premature breakage of the diaphragm inside

the expansion vessel.

Considering the expansion vessel capacity of only 2 litres, any

operation to check the air pressure must be performed by con-

necting the pressure gauge very rapidly: on small volumes the

loss of even a limited quantity of air can cause an appreciable

drop in pressure. The quality of the expansion vessel ensures

the maintenance of the set air pressure value, proceed to check

it only at calibration or if you are sure of a malfunction.

Any operation to check and/or reset the air pressure must be per-

formed with the delivery system not under pressure: disconnect

the pump from the power supply and open the utility nearest to

the pump, keeping it open until it no longer gives any water.

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The special structure of the expansion vessel ensures its quan-

tity and duration over time, especially of the diaphragm which

is typically the component subject to wear for items of this type.

However, in the case of breakage, the entire expansion vessel

must be replaced and exclusively by authorised personnel.

1.3 Integrated electropump

The system has a built-in centrifugal electropump of the multi-impeller type

driven by a water-cooled three-phase electric motor. Cooling of the motor

with water rather than air ensures less noise in the system and the possi-

bility of locating it even in recesses without ventilation.

The diagram in Fig. 6 shows the curves of the hydraulic performance for

e.sybox. By automatically modulating the rotation speed of the electro-

pump, the inverter allows it to shift its work point according to necessities

to any part of the area subtended by its curve, to keep the set pressure

valve constant (SP). The red curve shows the behaviour of the e.sybox

with set point at 3.0 bar.

F igure 6

0

10

20

30

40

50

60

70

0 20 40 60 80 100 120 14

0

H [m]

Q [l/min]

It results that, with SP = 3.0 bar, the system is able to ensure a constant

pressure at the users that require  ow rates respectively between 0 and

85 litres/minute. For higher  ow rates the system works according to the

characteristic curve of the electropump at maximum rotation speed. For  ow

rates lower than the limits described above, as well as ensuring constant

pressure, the system reduces the absorbed power and therefore the energy

consumption.

The above performances are to be considered measured at am-

bient temperature and water at about 20°C, during the  rst 10

minutes of motor operation, with water level at suction at a depth

of no more than 1 metre

As the suction depth increases, the performance of the electro-

pump decreases.

1.4 Technical characteristics

Text Parameter e.sybox

ELECTRIC POWER

SUPPLY

Voltage 1 x 220/240 ~ VAC

Frequency 50/60 Hz

Maximum current 10 A

Maximum power 1550 W

Leakage current to earth <2,5 [ma]

CONSTRUCTION

CHARACTERISTICS

Overall dimensions 565x265x352 mm without

feet

Empty weight (excluding

packaging)

24,8 kg

Protection class IP x4

Motor insulation class

F

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6 5

HYDRAULIC

PERFORMANCE

Maximum head

65 m

Maximum ow rate 120 l/min

Priming <5min at 8m

WORKING

CONDITIONS

Maximum working

pressure

8 bar

Liquid temperature max 40 °C

Environment temperature

max

50 °C

Storage environment

temperature

-10÷60 °C

FUNCTIONALITY

AND

PROTECTIONS

Constant pressure

Wireless communication

Protection against dry running

Antifreeze protection

Anticycling protection

Motor overload protection

Protection against abnormal supply voltages

Protection against excess temperature

2- INSTALLATION

The system is designed for indoor use: do not install the system

outdoors and/or directly exposed to atmospheric agents.

The system is designed to be able to work in environments

where the temperature remains between 0°C and 50°C (on con-

dition that the electric power supply is ensured: see par. 7.6.14

“anti-freeze function”).

The system is suitable for treating drinking water.

The system cannot be used to pump salt water, sewage, inam-

mable, corrosive or explosive liquids (e.g. petroleum, petrol, thin-

ners), greases, oils or food products.

The system can take in water the level of which must not be at a

depth greater than 8m (the height between the water level and

the pump suction mouth).

Do not connect any pipe to the 1¼’’ mouth that houses the

non-return valve, see g. 27.

If the system is used for the domestic water supply, respect the

local regulations of the authorities responsible for the manage-

ment of water resources.

When choosing the installation site, check that:

• The voltage and frequency on the pump’s technical data plate

correspond to the values of the power supply system.

• The electrical connection is made in a dry place, far from any

possible ooding.

• The electrical system is provvided with a differential switch

with I Δn ≤ 30 mA and that the earth system is efcient.

If you are not sure of the absence of foreign bodies in the water to be

pumped, install a lter on the system intake that is suitable for catching

impurities.

The installation of a lter on intake causes a decrease of the

system’s hydraulic performance proportional to the loss of load

caused by the lter itself (generally the greater the ltering power,

the greater the fall in performance).

Choose the type of conguration you intend to use (vertical or horizontal)

considering the connections to the system, the position of the user inter-

face panel, and the spaces available according to the indications below.

Other types of installation conguration are possible using DAB accessory

interfaces: see dedicated paragraph (par.9.2, 9.3).

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2.1 - Vertical Con guration

Remove the 4 support feet from the bottom tray of the packaging and

screw them fully into their brass seats on face C. Put the system in place,

taking into account the dimensions in Fig.7.

• The distance of at least 10mm between Face E of the system

and any wall is obligatory to ensure ventilation through the grids

provided.

• The distance of at least 270mm between Face B of the system

and an obstruction is recommended so as to be able to carry out

maintenance on the non-return valve without disconnecting the

system.

• The distance of at least 200mm between Face A of the system

and an obstruction is recommended so as to be able to remove

the door and gain access to the technical compartment.

If the surface is not  at, unscrew the foot that is not touching and adjust

its height until it contacts the surface so as to ensure the stability of the

system. The system must in fact be placed in a safe and stable position,

ensuring that its axis is vertical: it must not be in an inclined position.

1 0 m m

2 0 0 m m

2 7 0 m m

IN

OUT

580 mm

355 mm

265 mm

F igure 7

2.1.1 Hydraulic connections

Make the connection at input to the system through the mouth on Face F

marked “IN” in Fig.7 (suction connection). Then remove the respective cap

with the aid of the accessory tool or with a screwdriver.

Make the connection at output from the system through the mouth on Face

F marked “OUT” in Fig.8 (delivery connection). Then remove the respec-

tive cap with the aid of the accessory tool or with a screwdriver.

All the hydraulic connections of the system to the plant to which it can be

connected are of the threaded female type 1” GAS, made of brass.

If you intend to connect the product to the plant with  ttings that

have a diameter larger than the normal 1” pipe (for example the

ring nut in the case of  ttings in 3 pieces), make sure that the 1”

Gas male thread of the coupling protrudes at least 25mm from

the above diameter (see Fig.8)

With reference to its position with respect to the water to be pumped, the

installation of the system may be de ned “above head” or “below head”. In

particular the installation is de ned “above head” when the pump is placed

at a level higher than the water to be pumped (e.g. pump on the surface

and water in a well); vice versa it is “below head” when the pump is placed

at a level lower than the water to be pumped (e.g. overhead cistern and

pump below).

If the vertical installation of the system is of the “over head” type,

it is recommended to  t a non-return valve in the suction section

of the system; this is to allow the operation of loading the system

(par. 2.1.2).

< 2 5 m m > 2 5 m m

F igure 8

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6 7

If the installation is of the “over head” type, install the suction pipe

from the water source to the pump in such a way as to avoid the

formation of goosenecks or siphons. Do not place the suction

pipe above the pump level (to avoid the formation of air bubbles

in the suction pipe). The suction pipe must draw at its entrance

at a depth of at least 30cm below the water level and must be

watertight along its whole length, as far as the entrance to the

electropump.

The suction and delivery pipes must be  tted so that they do not

exert any mechanical pressure on the pump.

2.1.2 Loading Operation

Installation above head and below head

Installation “above head” (par. 2.1.1): access the technical compartment

and, with the aid of the accessory tool (Fig.3_point 5) or with a screwdriv-

er, remove the  lling cap (Fig.3_point 6). Fill the system with clean water

through the loading door, taking care to let the air out. If the non-return

valve on the suction pipe (recommended in paragraph 2.1.1) has been

placed close to the system entry door, the quantity of water with which to

 ll the system should be 2.2 litres. It is recommended to  t the non-return

valve at the end of the suction pipe (foot valve) so as to be able to  ll it

quickly too during the loading operation. In this case the quantity of water

necessary for the loading operation will depend on the length of the suction

pipe (2.2 litres + …).

Installation “below head” (par. 2.1.1): if there are no check valves between

the water deposit and the system (or if they are open), it loads automati-

cally as soon as it is allowed to let out the trapped air. So slackening the

 lling cap (Fig.3_point 6) enough to vent the trapped air allows the system

to load completely. You must survey the operation and close the loading

door as soon as the water comes out (however it is recommended to  t a

check valve in the section of the suction pipe and to use it to control the

loading operation with the cap open). Alternatively, in the case where the

suction pipe is intercepted by a closed valve, the loading operation may be

carried out in a similar way to the one described for installation over head.

2.2 - Horizontal Con guration

Remove the 4 support feet from the bottom tray of the packaging and

screw them fully into their brass seats on face E. Put the system in place,

taking into account the dimensions in Fig.9.

• The distance of at least 270mm between Face B of the system

and an obstruction is recommended so as to be able to carry out

maintenance on the non-return valve without disconnecting the

system.

• The distance of at least 200mm between Face A of the system

and an obstruction is recommended so as to be able to remove

the door and gain access to the technical compartment.

• The distance of at least 10mm between Face D of the system

and an obstruction is obligatory to let out the power supply cable.

If the surface is not  at, unscrew the foot that is not touching and adjust

its height until it contacts the surface so as to ensure the stability of the

system. The system must in fact be placed in a safe and stable position,

ensuring that its axis is vertical: it must not be in an inclined position.

1 0 m m

2 0 0 m m

2 7 0 m m

OUT 1

OUT 2

IN

565 mm

370 mm

265 mm

F igure 9

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6 8

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2.2.1 Hydraulic connections

Make the connection at input to the system through the mouth on Face C

marked “IN” in Fig.9 (suction connection). Then remove the respective cap

with the aid of the accessory tool or with a screwdriver.

Make the connection at output from the system through the mouth on Face C

marked “OUT 1” in Fig.9 and/or through the mouth on Face D marked “OUT

2” in Fig.9 (delivery connection). In this con guration either of the 2 mouths can

be used as an alternative to the other (depending on the convenience of the

installation), or simultaneously (dual delivery system). So remove the cap(s)

from the door(s) you intend to use with the aid of the accessory tool or with a

screwdriver.

All the hydraulic connections of the system to the plant to which it can be con-

nected are of the threaded female type 1” GAS, made of brass.

See WARNING for Figure 8.

2.2.2 Orientation of the Interface Panel

The Interface Panel has been designed so that it can be oriented in the

direction where it is most convenient for the user to read: its square shape

allows it to be rotated from 90° to 90° (Fig.10).

• Disengage the 4 screws at the corners of the panel using the hex

wrench provided with the accessory tool.

• Do not remove the screws, just disengage them from the thread

on the product body.

• Be careful not to drop the screws into the system.

• Move the panel away, taking care not to pull on the signal trans-

mission cable.

• Reposition the panel in its seat at the preferred angle taking care

not to pinch the cable.

• Tighten the 4 screws with the wrench.

F igure 10

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6 9

2.2.3 Loading Operation

Installation above head and below head

With reference to its position with respect to the water to be pumped, the instal-

lation of the system may be dened “above head” or “below head”. In particular

the installation is dened “above head” when the pump is placed at a level

higher than the water to be pumped (e.g. pump on the surface and water in

a well); vice versa it is “below head” when the pump is placed at a level lower

than the water to be pumped (e.g. overhead cistern and pump below).

Installation “above head”: with the aid of the accessory tool (Fig.3_point 5) or

with a screwdriver, remove the lling cap which, for the horizontal conguration,

is the one on Face F (Fig.1). Fill the system with clean water through the load-

ing door, taking care to let the air out. The quantity of water with which to ll the

system must be at least 1.5 litres. It is recommended to t a non-return valve at

the end of the suction pipe (foot valve) so as to be able to ll it quickly too dur-

ing the loading operation. In this case the quantity of water necessary for the

loading operation will depend on the length of the suction pipe (1.5 litres + …).

Installation “below head”: if there are no check valves between the water de-

posit and the system (or if they are open), it loads automatically as soon as it is

allowed to let out the trapped air. So slackening the lling cap (Face F - Fig.3)

enough to vent the air allows the system to load completely. To slacken the

Figure 11

x 4

cap, use the accessory tool (Fig.3_point 5) or a screwdriver. You must survey

the operation and close the loading door as soon as the water comes out (how-

ever it is recommended to t a check valve in the section of the suction pipe

and to use it to control the loading operation with the cap loose). Alternatively,

in the case where the suction pipe is intercepted by a closed valve, the loading

operation may be carried out in a similar way to the one described for installa-

tion over head.

3 - COMMISSIONING

Maximum working pressure 8 bar.

The intake depth must not exceed 8m.

3.1 - Electrical Connections

To improve immunity to the possible noise radiated towards other appli-

ances it is recommended to use a separate electrical duct to supply the

product.

The line voltage may change when the electropump is started.

The line voltage may undergo variations depending on other de-

vices connected to it and on the quality of the line.

It is recommended to carry out installation as indicated in the manual, in

compliance with the laws, directives and standards in force in the place of

use and depending on the application. The product contains an inverter in-

side which there are continuous voltages and currents with high-frequency

components (see table 1a).

Type of possible fault currents to earth

Alternating

Unipolar

pulsed

Direct

With high-

frequency

components

X X X X

Table 1a

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Figure 11 - bis Installation example

The thermal magnetic circuit breaker must be correctly sized (see Electri-

cal Characteristics).

The appliance must be connected to a main switch that cuts off all the

power supply poles. When the switch is in off position, the distance sepa-

rating each contact must respect the indications in table 1b.

Minimum distance between the contacts of the power switch

Minimum distance [mm] >3

3.2 Con guration of the Integrated Inverter

The system is con gured by the manufacturer to satisfy the majority of

installation cases, that is:

• operation at constant pressure;

• Set-Point (desired value of constant pressure): SP = 3.0 bar

• Reduction of pressure to restart: RP = 0.3 bar

• Anti-cycling function: Disabled

However, all these parameters and many others can be set by the user.

Table 1b

There are many other operating modes and accessory functions. Thanks

to the different possible settings and the availability of con gurable input

and output channels, it is possible to adapt the inverter operation to the

requirements of various systems. See par. 5-6-7

For the de nition of the parameters SP and RP, the pressure at

which the system starts has the value:

Pstart = SP – RP For example: 3.0 – 0.3 = 2.7 bar

in the default con guration

The system does not work if the utility is at a height higher than the equiv-

alent in metres of water column of the Pstart (consider 1 bar = 10 m water

column): for the default con guration, if the utility is at a height of at least

27m the system does not start.

3.3 - Priming

The priming of a pump is the phase during which the machine attempts to

 ll the body and the suction pipe with water. If the operation is successful

the machine can work regularly.

Once the pump has been  lled (par. 2.1.2, 2.2.3) and the device has been

con gured (par. 3.2), it is possible to connect the electric power supply

after having opened at least one utility on delivery.

The system starts and checks the presence of water in delivery for the  rst

10 seconds.

If a  ow of water is detected in delivery, the pump is primed and starts its

regular work. This is the typical case of installation below head (par. 2.1.2,

2.2.3). The utility opened in delivery from which the pumped water is com-

ing out can be closed.

If a regular  ow in delivery is not detected after 10 seconds, the system

asks for con rmation to enter the priming procedure (typical case of instal-

lation above head par. 2.1.2, 2.2.3). Or:

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7 1

When “+” is pressed the pump enters the priming procedure: it starts work-

ing for a maximum time of 5 minutes during which the safety block for dry

operation is not tripped. The priming time depends on various parameters,

the most inuential of which are the depth of the water level from which it

is drawing, the diameter of the suction pipe, the water-tightness of the suc-

tion pipe. On condition that a suction pipe is used that is no smaller than

1” and that it is well sealed (with no holes or joins from which it can take in

air), the product has been studied to manage to prime in water conditions

up to 8m in depth, in a time of less than 5 minutes. As soon as the product

detects a regular ow in delivery, it leaves the priming procedure and starts

its regular work. The utility opened in delivery from which the pumped wa-

ter is coming out can be closed. If after 5 minutes of the procedure the

product is still not primed, the interface display sends a failure message.

Disconnect the power supply, load the product adding new water, wait 10

minutes and repeat the procedure from the moment you put the plug in

the socket.

Press “-“ to conrm that you do not want to start the priming procedure.

The product remains in alarm status

Operation

Once the electropump is primed, the system starts regular operation ac-

cording to the congured parameters: it starts automatically when the tap

is turned on, supplies water at the set pressure (SP), keeps the pressure

constant even when other taps are turned on, stops automatically after

time T2 once the switching off conditions are reached (T2 can be set by

the user, factory value 10 sec).

4 - PROTECTION SYSTEMS

IThe device is equipped with protection systems to preserve the pump, the

motor, the supply line and the inverter. If one or more protections trip, the

one with the highest priority is immediately notied on the display. Depend-

ing on the type of error the motor may stop, but when normal conditions

are restored the error status may be cancelled immediately or only after a

certain time, following an automatic reset.

In the case of blockage due to water lack (BL), blockage due to motor over-

load (OC), blockage due to direct short circuit between the motor phases

(SC), you can try to exit the error conditions manually by simultaneously

pressing and releasing the + and – keys. If the error condition remains, you

must take steps to eliminate the cause of the fault.

In the event of blocking due to one of the internal errors E18, E19, E20,

E21 it is necessary to wait 15 minutes with the machine powered until the

blocked status is automatically reset.

Alarm in the fault log

Display indication Description

PD Irregular switching off

FA Problems in the cooling system

Blockage conditions

Display indication Description

PH Cutout due to pump overheating

BL Blockage due to water lack

BP1 Blockage due to reading error on the internal pressure sensor

PB Blockage due to supply voltage outside specications

OT Blockage due to overheating of the power stages

OC Blockage due to motor overload

SC Blockage due to short circuit between the motor phases

ESC Blockage due to short circuit to earth

HL Hot liquid

NC Blockage due to motor disconnected

Ei Blockage due to i-th internal error

Vi Blockage due to i-th internal voltage out of tolerance

EY Block for cyclicality abnormal detected on the system

Table 1: Alarms

Table 2: Indications of blockages

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4.1 - Description of blockages

4.1.1 - “BL” Anti Dry-Run (Protection against dry running)

In the case of lack of water the pump is stopped automatically after the

time TB. This is indicated by the red “Alarm” led and by the letters “BL” on

the display.

After having restored the correct ow of water you can try to leave the

protective block manually by pressing the “+” and “-“ keys simultaneously

and then releasing them.

If the alarm status remains, or if the user does not intervene by restoring

the ow of water and resetting the pump, the automatic restart will try to

restart the pump.

If the parameter SP is not correctly set, the protection against

water lack may not work correctly.

4.1.2 - Anti-Cycling (Protection against continuous cycles without

utility request)

If there are leaks in the delivery section of the plant, the system starts and

stops cyclically even if no water is intentionally being drawn: even just a

slight leak (a few ml) can cause a fall in pressure which in turn starts the

electropump.

The electronic control of the system is able to detect the presence of the

leak, based on its recurrence.

The Anti-Cycling function can be excluded or activated in Basic or Smart

mode (par 7.6.12).

In Basic mode, once the condition of recurrence is detected the pump

stops and remains waiting to be manually reset. This condition is commu-

nicated to the user by the lighting of the red “Alarm” led and the appear-

ance of the word “ANTICYCLING” on the display. After the leak has been

removed, you can manually force restart by simultaneously pressing and

releasing the “+” and “-“ keys.

In Smart mode, once the leak condition is detected, the parameter RP is

increased to decrease the number of starts over time.

4.1.3 - Anti-Freeze (Protection against freezing of water in the system)

The change of state of water from liquid to solid involves an increase in

volume. It is therefore essential to ensure that the system does not remain

full of water with temperatures close to freezing point, to avoid breakages

of the system. This is the reason why it is recommended to empty any

electropump that is going to remain unused during the winter. However,

this system has a protection that prevents ice formation inside by activat-

ing the electropump when the temperature falls to values close to freezing

point. In this way the water inside is heated and freezing prevented.

The Anti-Freeze protection works only if the system is regularly

fed: with the plug disconnected or in the absence of current the

protection cannot work.

However, it is advised not to leave the system full during long peri-

ods of inactivity: drain the system accurately through the drainage

cap (Fig.1 Face E) and put it away in a sheltered place.

4.1.4 - “BP1” Blockage due to fault of the internal pressure sensor

If the device detects a fault in the pressure sensor the pump remains

blocked and the error signal “BP1” is given. This status begins as soon as

the problem is detected and ends automatically when correct conditions

have been restored.

4.1.5 - “PB” Blockage due to supply voltage outside specications

This occurs when the allowed line voltage at the supply terminal assumes

values outside the specications. It is reset only automatically when the

voltage at the terminal returns within the allowed values.

4.1.6 - “SC” Blockage due to short circuit between the motor phases

The device is provided with protection against the direct short circuit which

may occur between the motor phases. When this blockage is indicated

you can attempt to restore operation by simultaneously holding down the +

and – keys, but this will not have any effect until 10 seconds have passed

since the moment the short circuit occurred.

ENGLISH

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7 3

4.2 - Manual reset of error conditions

In error status, the user can cancel the error by forcing a new attempt,

pressing and then releasing the + and – keys.

4.3 - Self-reset of error conditions

For some malfunctions and blockage conditions, the system attempts au-

tomatic self-reset.

The auto self-reset procedure concerns in particular:

“BL” Blockage due to water lack

“PB” Blockage due to line voltage outside specications

“OT” Blockage due to overheating of the power stages

“OC” Blockage due to motor overload

“BP” Blockage due to fault of the pressure sensor

For example, if the system is blocked due to water lack, the device auto-

matically starts a test procedure to check whether the machine is really

left denitively and permanently dry. If during the sequence of operations

an attempted reset is successful (for example, the water comes back), the

procedure is interrupted and normal operation is resumed.

Table 21 shows the sequences of the operations performed by the device

for the different types of blockage.

Automatic resets of error conditions

Display indica-

tion

Description Automatic reset sequence

BL

Blockage due to water

lack

- One attempt every 10 minutes for a

total of 6 attempts

- One attempt every hour for a total of

24 attempts

- One attempt every 24 hours for a total

of 30 attempts

PB

Blockage due to line

voltage outside speci-

cations

- It is reset when it returns to a specic

voltage

OT

Blockage due to over-

heating of the power

stages

-It is reset when the temperature of

the power stages returns within the

specications.

OC

Blockage due to motor

overload

- One attempt every 10 minutes for a

total of 6 attempts

- One attempt every hour for a total of

24 attempts

- One attempt every 24 hours for a total

of 30 attempts

5 - INVERTER ELECTRONIC CONTROL AND USER INTERFACE

The inverter makes the system work at constant pressure. This

regulation is appreciated if the hydraulic plant downstream from

the system is suitably sized. Plants made with pipes with too

small a section introduce load losses that the equipment cannot

compensate; the result is that the pressure is constant on the

sensors but not on the utility.

Plants that are excessively deformable can create the onset of

oscillations; if this occurs, the problem can be solved by adjusting

the control parameters “GP” and “GI” (see par 7.6.4 - GP: Pro-

portional gain coefcient and 7.6.5 - GI: Integral gain coefcient).

5.1 - Operation with control unit

e.sybox, alone or in a pumping unit, may be connected by means of wire-

less communication to a remote unit referred to below as a control unit.

Depending on the model, the control unit offers a variety of functions.

The possible control units are:

• e.sylink

Table 3: Self-reset of blockages

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Combining one or more e.syboxes with a control unit allows the use of:

• Digital inputs

• Relay outputs

• Remote pressure sensor

• Ethernet network connection

Below, the combination of functions listed above, made available by the

various types of control unit, will be referred to as “control unit functions

5.1.1 - Functions made available by control units

The functions made available are specied in Table 4, Functions made

available by control units

Functions e.sylink

Opto-isolated digital inputs

•

Output relay with NO contact

•

Remote pressure sensor

•

Network connection

5.1.2 - Electrical connections of utility inputs and outputs

See control unit manual.

5.1.3 - Safety mode operation

When using the input or remote sensor functions, in the event of a commu-

nications downage or control unit error, the e.sysbox and control unit will

switch to safety mode, adopting the conguration considered least dam-

aging. When safety mode comes into operation, a ashing icon showing a

cross inside a triangle appears on the display.

The way in which the e.sysbox responds to a communications downage is

explained in the table below.

Tab. 4: Functions made available by control units

e.sybox

setting

e.sybox response

No control

unit asso-

ciated

Control unit associated

Communication with control

unit

No commu-

nication with

control unit,

or control

unit error

Safety mode

Function

activated

(by means

of input or

menu)

Function not

activated

(by means

of input or

menu)

In=0 Input func-

tion disabled

No action No action No action No action

In

(2)

=1, 2

Low water level

indicated by

oat switch

No action System in

stop status F1

No action System in

stop status

(1)

in

(2)

=3, 4

Pauxn auxiliary

setpoint

No action Activation of

correspond-

ing auxiliary

setpoint

No action Activation of

lowest auxil-

iary setpoint

pressure set

in

(2)

=5, 6

Disable system

No action System in

stop status F3

No action System in

stop status

(1)

in

(2)

=7, 8

Disable system

+ fault and

warning reset

No action System in

stop status

F3 + fault and

warning reset

No action System in

stop status

(1)

in =9

Fault and warn-

ing reset

No action Fault and

warning reset

No action No action

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