Osaka Smart Box Specification sheet

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 1
BOXED DIGITAL THERMOSTAT
FOR COLD ROOMS
Simple Manual –Version 1
www.osakasolutions.com
IMPORTANT _
Read this document carefully before the installation and the
use of this device and respect all warnings; keep this
document alongside the device to solve further consults. Use
this device only as described in this document, and do not
use this device as a safety device.
To obtain further information, please consult the extensive
manual. The device must be removed respecting the
local laws regarding the recollection of electronic
and electric devices.
1 –USER’S INTERFACE _
1.1 Observations _
Anytime you want to access the parameters or do an action,
make sure beforehand that the device is ON, that the
keyboard is not locked and that there isn’t any other
procedure taking place.
1.2 Turn ON/OFF the device manually _
1. Press the key for 1 second.
1.3 The display _
During the normal operation, the display will show the
selected temperature on the P5 parameter, except during a
defrosting, in which case the display will show the selected
temperature on the d6 parameter.
1.4 See other probes’ temperature _
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the key or the key to select:
1. “Pb1” room temperature or air input temperature
(according to the value of the P4 parameter)
2. “Pb2” evaporator temperature
3. “Pb3” auxiliary temperature
4. “Pb4” evaporation temperature
5. “Pb5” low pressure
6. “Pb6” CPT temperature (“Pb4” in SMART BOX,
SMART BOX M, SMART BOX MD, SMART BOX
SD, SMART BOX PLUS, SMART BOX PLUS M,
SMART BOX PLUS MD and SMART BOX PLUS
SD).
7. “Pb7” auxiliary temperature 2
8. “Pb8” auxiliary temperature 3
3. Press the key to see the selected temperature.
4. Press the key again to go back to the list.
To exit the process:
5. Wait without pressing anything for 60 seconds or press the
key.
1.4 Activate / deactivate the “Turbo” mode _
1. Make sure there is no ongoing defrosting, pre-dripping and
/ or evaporator’s fan stoppage.
2. Press the key: the LED will flash, indicating its
activation.
1.5 Activate the defrosting manually _
1. Make sure that the “Turbo” mode is not running.
2. Press the key for 4 seconds.
NOTE: If the evaporator’s temperature is not below the d2
temperature, the defrosting won’t be activated.
1.6 Turn ON/OFF the led manually _
2. Press the key: THE LED will turn OFF/ON showing
the status of the light.
1.7 Activate anti-fogging resistance _
1.Press the key for 1 second: the “AUX1” or “AUX2”
LED will turn on and the resistance will be activated.
Note: a configurable output must be configured as “anti-
fogging resistance”.
1.8 Activate/deactivate the auxiliary output manually _
1. Press the key for 1 second: the “AUX1” or “AUX2”
LED will turn on.
NOTE: a configurable input must be configured as “auxiliary
output”
1.9 Some values related to the electronic expansion
valve (only available in SMART BOX VEX) _
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the key or the key to select:
“SH” (instantaneous superheating)
“POS” (valve’s opening required percentage)
“POr” (valve’s opening instantaneous
percentage).
3. Press the key to see the data.
4. Press the key again to go back to the list.
To exit the process:
5. Wait without pressing anything for 60 seconds or press the
key.
1.10 Lock/Unlock the Keyboard _
1. Press the and keys: The display will show
“Loc”/”UnL” whether it has been locked or unlocked.
1.11 Mute the warning buzzer _
1. Press any key.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 2
2 OPERATION DUE TO HIGH OR LOW RELATIVE
HUMIDITY PERCENTAGE (Only if the F0 parameter
equals 5 5
2.1 Activate the operation due to high or low relative
humidity percentage e
1. Press the and keys for 4 seconds: The display will
show “rhL” (operation due to low relative humidity
percentage) or “rhH” (operation due to high relative humidity
percentage) for 10 seconds.
To go back to the normal display without having to wait:
2. Press any key.
Example: If the room’s ventilation is minimal (only the
compressor is ignited), the humidity is minimal since it
condenses in the evaporator.
However, if the ventilation is maximal (the fans are always
active) the humidity is higher since it distributes around the
room.
The parameters that ought to be considered are the F4 and
F5, consider the power of the fans, if they are very powerful
they could dehydrate the product.
2.2 See what operation mode is activated _
1. Press the and keys: The display will show “rhL”
(operation due to low relative humidity percentage) or “rhH”
(operation due to high relative humidity percentage) for 10
seconds.
To go back to the normal display without having to wait:
2. Press any key.
3 -“HACCP” OPERATION e
3.1 Show the HACCP alarms _
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select “LS”.
3. Press the key to see the information.
4. Press the or keys to select (if it is present):
1. “AL” Minimum temperature alarm
2. “AH” Maximum temperature alarm
3. “id” Door switch alarm
4. “PF” Power Failure alarm (Only available in SMART
BOX SD and SMART BOX PLUS SD).
5. Press the key: the “HACCP” LED will turn off and the
screen will start showing the alarm’s information
consecutively and automatically, for instance:
1“8.0” The critical value is 8.0 °C/8 °F
2“Sta” the display will show the time and date of the
alarm (only available in SMART BOX SD and SMART
BOX PLUS SD).
3“y16” Alarm’s year; in 2016
4“n06” Alarm’s month; in June
5“d26” Alarm’s day; the 26th
6“h16” Alarm’s hour; 16
7“n30” Alarm’s minute; 30
8“dur” The display will show the alarm’s duration
9“h01” Alarm’s hours; 1 h
10 “n15” Alarm’s minutes; 15 min.
To exit the process:
6. Press the key.
3.2 Delete the HACCP alarms _
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select “rLS”.
3. Press the key.
4. Press the or keys to enter “149”.
5. Press the key or wait for 15 seconds: The display will
flash and show “---” for 4 seconds, then the device will exit
the process.
4 –DATA LOGGING IN COMPLIANCE WITH THE EN
128300NORM M
4.1 Activate the data logging "HACCP" operation modee
This operation mode is always activated.
4.2 Activate the “service” data logging operation mode_
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select “SEr”.
3. Press the key.
4. Press the or keys to select “1”.
5. Press the key or wait 15 seconds: The display will flash
and show “SEr” for 4 seconds, then the device will exit the
process.
4.3 Show information of the data logger errors s
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select “SEr”.
3. Press the key.
4. Press the or keys to select (if it is present):
1. “FUL” SD card storage is full.
2. “Sd” SD card not inserted or unrecognized.
3. “Pr7” auxiliary 2 temperature probe error
4. “Pr8” auxiliary 3 temperature probe error
5. “BAt” error in the data logger’s battery.
To exit the process
5. Press the key.
5 –OPERATION HOURS OF THE COMPRESSOR _
5.1 See the operation hours of the compressor _
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select:
“CH1” operation hours of the compressor.
“CH2” operation hours of the compressor 2.
3. Press the key to see the operation hours.
To exit the process:
4. Wait without pressing anything for 60 seconds or press the
key.
5.2 Delete the operation hours of the compressor _
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select “rCH”.
3. Press the key.
4. Press the or keys to enter “149”.
5. Press the key or wait for 15 seconds: The display will
flash and show “---” for 4 seconds, then the device will exit
the process.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 3
6 –SETTINGS____________________________________
6.1 Configure the date, hour and day of the week (only
available in SMART BOX SD and SMART BOX PLUS SD))
To enter in the process:
1. Press the key for 1 second: the display will show the
first variable that it’s available to be read.
2. Press the or keys to select “rtc”.
To adjust the year:
3. Press the key: the display will show “y” followed by the
last two digits of the year, and the LED will start flashing.
4. Press the or keys to select the year (only the last
two digits).
To adjust the month:
5. Press the key:
The display will show “n” followed by the month (01...12).
6. Press the or keys to select the month.
To adjust the day:
7. Press the key: The display will show “d” followed by
the day (01...31).
8. Press the or keys to select the day.
To adjust the hour:
9. Press the key: The display will show “h” followed by
the hour (00...23).
10. Press the or keys to select the hour.
To adjust the minutes:
11. Press the key: The display will show “n” followed by
the minutes (00...59).
12. Press the or keys to select the minutes.
To adjust the day of the week:
13. Press the key.
14. Press the or keys to select:
1“Mon” Monday
2“tuE” Tuesday
3“UEd” Wednesday
4“thu” Thursday
5“Fri” Friday
6“SAt” Saturday
7“Sun” Sunday.
15. Press the key: The LED will turn off, then the
device will exit the process.
To exit the process immediately:
16. Do not touch anything for 60 seconds (all changes will be
saved)
6.2 Configure the regulation Set Point_________ ___
1. Press the key: The LED will start flashing.
2. Press the or keys to enter the desired Set Point.
3. Press the key or wait for 15 seconds: The LED will
turn off, then the device will exit the process.
To exit the process immediately:
5. Wait for 15 seconds (all changes will be saved)
6.3 How to enter in the parameters________________ __
To enter in the process:
1. Make sure that there aren’t any ongoing processes.
2. Press the and keys for 4 seconds: The display will
show “PA”.
3. Press the key.
4. Press the or keys to enter “-19”.
5. Press the key.
6. Again, press the and keys for 4 seconds : The
display will show “SP” (the first parameter of the list).
To move from parameter to parameter:
7. Press the or keys.
To configure a parameter:
8. Press the key in the desired parameter.
9. Press the or keys to select the desired value.
10. Press the key.
To exit the parameters:
11. Press the and keys for 4 seconds or wait 60
seconds (all changes will be saved).
Switch off the power from the device when the process is
over.
6.4 Reset manufacturing parameters (by default)___ _
1. Press the and for 4 seconds : The display will show
“PA”.
2. Press the key.
3. Press the or keys and enter “149”.
4. Press the key.
5. Press the and keys again for 4 seconds: the display
will show “dEF”.
6. Press the key.
7. Press the or keys and enter “1”.
8. Press the key: the display will flash and show “dEF”
for 4 seconds, then the device will exit the process.
9. Switch off the power from the device when the process is
over.
To exit the process immediately:
10. Press the and keys before entering “1” (there will
be no resetting).
7 SIGNALS AND INDICATIONS_____________ ________
7.1 Signals___________________________ _______ ___
LED
MEANING
Compressor LED
Defrosting LED
Evaporating Fan LED
Room’s light LED
AUX1
Auxiliary 1 LED
AUX2
Auxiliary 2 LED
Real Time Clock LED
HACCP
HACCP LED
Energy Saving LED
Alarm LED
Temperature LED
Pressure LED
7.2 Indications____________ ____________________ _
CODE
MEANING
Loc
The keyboard and/or the working Set Point are
locked
- - -
The requested operation mode is not available
dEF
Defrosting in progress
7.3 Indications regarding the SD card________ __
SD LED
MEANING
Green
The SD card can be removed:
- Fixed: there is no writing in progress and the
data logger’s battery is charged
- Flashing: there is no writing in progress but
the data logger’s battery is not charging.
Red
- Fixed: there is writing in progress; the SD
card cannot be removed.
- Flashing: SD card not inserted/unrecognized

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 4
8 –ALARMS__________________________________ _
8.1 Alarms_______________________________ _______
Code
Meaning
AL
Minimum temperature alarm
AH
Maximum temperature alarm
id
Door switch alarm
PF
Power failure alarm
iA
Configurable input alarm
iSd
High pressure switch alarm
LP
Low pressure switch alarm
HSH
High overheating alarm
C1t
Thermal compressor alarm
C2t
Thermal compressor 2 alarm
MiC
Locked man alarm
COH
Condenser overheating alarm
CSd
Locked compressor alarm
dFd
Defrosting finished due to max. time alarm
Pd
Alarm of boost pump controlled through the
digital input, finished due to maximum time
9 –ERRORS______________________________ ______
9.1 Errors____________________________________ __
Code
Meaning
Pr1
Room temperature probe error or air input
temperature probe error (according to the P4
parameter).
Pr2
Evaporator’s probe error
Pr3
Auxiliary probe error
Pr4
Evaporation probe error
Pr5
Low pressure probe error
Pr7
Auxiliary 2 probe error
Pr8
Auxiliary 3 probe error
FUL
SD card without storage room
Sd
SD card not inserted/unrecognized
rtc
Real Time Clock error
BAt
Data logger’s battery error
10 –TECHNICAL DATA_____________________ _____
10.1 Technical data___________________ ___________
Device’s function: Control device.
Device’s construction: Incorporated electronic device.
Case: Self-extinguishing, grey.
Heat and fire resistance category: D
Dimensions: 262,0 x 179,0 x 95,6 mm (10,314 x 7,047 x
3,763 in; W x H x D).
Mounting method: wall mounting, with anchor and fixing
screws.
Protection degree: IP65.
Connection: Fixed connection terminals with 6,35mm
(0,25mm) pitch for conductors of up to 4mm² (0,0062 in²):
power supply and digital outputs.
-Fixed connection terminals, pitch on thread of 5,0 mm
(0,196 in) for conductors of up to 2,5 mm² (0,0038 in²):
analog and digital inputs, and RS485 MODBUS port
-Removable terminal block (only male thread), 3,5 mm
(0,137 in) pitch for conductors of up to 1,5 mm² (0,0028 in²)
or JST connector (only male thread) with 6 pole-connectors
of 2,5 mm (0,098 in) pitch: controller for unipolar stepper
electronic expansion valves.
The maximum length of the connection cables are:
-Supply: 100m (328ft).
- Analog inputs: 100 m (328 ft).
- Transducers Power Supply: 100 m (328 ft).
- Digital inputs: 100 m (328 ft).
- Digital outputs: 100 m (328 ft).
- RS-485 MODBUS port: 1.000 m (3.280 ft);
- Controller for unipolar stepper electronic expansion valves:
3 m (9,842 ft).
Use cables of a section suitable to the flowing current.
In case of using the device fully charged and at a maximum
working temperature, use cables with a maximum working
temperature of ≥90 ºC (194 °F).
Working temperature:
-From 0 to 45 °C (from 32 to 113 °F) for the units with a
circuit breaker, with a differential circuit breaker.
-Otherwise, from 0 to 50 °C (from 32 to 122 °F).
Storage temperature: from -25 to 70°C (from -13 to 158°F).
Working humidity: from 10 to 90% of relative humidity
without condensation.
Contamination degree of the control device: 2.
Environmental compliance:
- RoHS 2011/65/CE
- WEEE 2012/19/EU
- REACH (CE) n° 1907/2006 Norm.
EMC compliance:
- EN 60730-1
- IEC 60730-1.
Supply: 115... 230 VAC (+10 %, -15 %), 50... 60 Hz (±3 Hz),
35 VA max., supplied by a class 2 circuit. The maximum
current allowed for the phase is 16A.
Circuit Breaker: Depending on which model [230 VAC, at
16A, Icn 4.500 A, unipolar + neutral, for conductors of up to
2,5 mm² (0,0387 in²)].
Differential Circuit Breaker: Depending on which model
[230 VAC, at 16A, Icn 4.500 A, Id 300mA, unipolar + neutral,
for conductors of up to 2,5 mm² (0,0387 in²)].
Type of ground connection of the control device: With
ground terminal.
Nominal pulse voltage: 4KV
Surge category: III.
Software’s class and structure: A.
Real Time Clock: Incorporated (with a secondary lithium
battery; only available in the SMART BOX SD and SMART
BOX PLUS SD models).
Battery’s life span without a power supply: 6 months.
Deviation: ≤ 30 s/month at 25 °C (77 °F).
Data logger’s battery: Incorporated (with a secondary
nickel-metal hydride battery; only available in the units with
data logging in compliance with the EN 12830 norm)
Battery’s life span without a power supply: 72 h.
Battery’s charging time: 24 h (the battery is charged with the
device’s power supply).
Analog inputs: up to 5 inputs:
- 2 that can be configured by parameter for PTC, NTC or Pt
1000 probes (room temperature or evaporator’s temperature)
- 1 that can be configured by parameter for PTC, NTC or Pt
1000 probes (it can be configured by parameter for
condenser).
- 1 that can be configured by parameter for PTC, NTC or Pt
1000 probes (evaporation’s temperature; only available in
the SMART BOX VEX).
- 2 that can be configured by parameter for NTC or Pt 1000
probes (auxiliary 2 and auxiliary 3 temperature; only
available in the units with data logging in compliance with the
EN 12830 norm).
- 1 for 4-20 mA transducers (low pressure; only available in
the SMART BOX VEX).
Transducer’s 4-20 mA supply: 12 VDC (±10 %), 30 mA max.
PTC analog inputs (990 Ω @ 25 °C, 77 °F)
Sensor type: KTY 81-121.
Working range: from -50 to 150 ºC (from -58 to 302 ºF).
Accuracy: ±0.5 % of the full-scale.
Resolution: 0.1 ºC (1 ºF).
Protection: None.
NTC analog inputs (10 KΩ @ 25 °C, 77 °F)
Sensor type: ß3435
Working range: from -50 to 120 ºC (from -58 to 248 ºF).
Accuracy: ±0.5 % of the full-scale.
Resolution: 0.1 ºC (1 ºF).
Protection: None.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 5
Pt 1000 analog inputs (1 KΩ @ 0 °C, 32 °F)
Working range: from -99 to 150 ºC (from -99 to 300 ºF).
Accuracy: ±0.5 % of the full-scale.
Resolution: 0.1 ºC (1 ºF).
Protection: None.
4-20 mA analog inputs
Input’s resistance: ≤ 200 Ω.
Accuracy: ±0.5 % of the full-scale.
Resolution: 0.01 mA.
Protection: None; the maximum current allowed for this
input is 25 mA.
Digital inputs: 3 inputs that can be configured by parameter
by usually open or usually closed contact (open port,
configurable and configurable 2)
5 VDC digital inputs, 2 mA (voltage free)
Power supply: None.
Protection: None.
Digital outputs: up to 6 inputs:
2 SPST electromechanical relays of 30 A resistant to 250
VAC (compressor and fan of the evaporator).
- 2 SPST electromechanical relays of 16 A resistant to 250
VAC (defrosting and ambient light).
- 1 SPST electromechanical relay of 8A resistant to
250VAC (configurable by parameter for anti-fogging
resistance, auxiliary, alarm, port’s resistance, resistants for
the operation in a dead zone, condenser’s fan, compressor
2, defrosting 2, evaporator’s fan 2, liquid valve, on/stand-
by or locked man; configuration by default, condenser0s
fan.
- 1 SPST electromechanical relay of 8A resistant to
250VAC (configurable by parameter for anti-fogging
resistance, auxiliary, alarm, port’s resistance, resistants for
the operation in a dead zone, condenser’s fan, compressor
2, defrosting 2, evaporator’s fan 2, liquid valve, on/stand-
by or locked man; configuration by default, condenser0s
fan.
The device guarantees a reinforced isolation in between
each connector of the digital outputs and the rest of the parts
of the device.
Controller for unipolar stepper electronic expansion
valves: 12 VDC, 260 mA max.
Type 1 or type 2 actions: Type 1.
Additional features of the type 1 or type 2 action: C.
Display: 3 digits display with decimal point and operation
icons.
Communication ports: 1 MODBUS RS-485 port (with
MODBUS communication slave protocol).
Signal and Alarm buzzer: incorporated.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 6
11 –PARAMETER LIST _
PARAM.
MIN.
MAX.
U.M.
DEF
REGULATION SET POINT
SP
r1
r2
°C/°F (1)
-18.0
Regulation Set Point
PARAM.
MIN.
MAX.
U.M.
DEF
ANALOG INPUTS
CA1
25
25
°C/°F (1)
0.0
Room temperature calibration (if P4=0,1,2,3), air input temperature calibration (if P4=4)
CA2
25
25
°C/°F (1)
0.0
Evaporator’s temperature calibration.
CA3
25
25
°C/°F (1)
0.0
Auxiliary temperature calibration.
CA4
25
25
°C/°F (1)
0.0
Evaporation’s temperature calibration.
CA5
25
25
Pt:10 (2)
0.0
Low pressure calibration.
P0
0
2
- - - -
1
Probe type (0=PTC; 1=NTC; 2=PT100).
P1
0
1
- - - -
1
Decimal point for temperature (only in ºC).
P2
0
1
- - - -
0
Temperature’s unit of measurement (0 = °C; 1 = °F). (3)
P3
0
2
- - - -
1
Function of the evaporator’s temperature probe (0=not used; 1=evaporator’s fan probe and defrosting; 2
=evaporator’s fan probe).
P4
0
4
- - - -
3
Function of the auxiliary probe 0=not used; 1=condenser’s temperature; 2=critical temperature;3=
temperature of the evaporator 2; 4=air output temperature).
P5
0
4
- - - -
0
Visualized temperature during the normal operation ((0=room temperature or CPT temperature; 1=
regulation set point; 2=evaporator’s temperature; 3=auxiliary temperature; 4=air input temperature).
P7
0
100
%
50
Percentage of the air input temperature in order to calculate the CPT temperature. (4)
P8
0
250
s/10
5
Visualization delay in temperature changes.
P9
-99.9
99.9
Pt:10 (2)
-0.5
Low pressure transducer’s inferior limit.
P10
-99.9
99.9
Pt:10 (2)
7.0
Low pressure transducer’s superior limit.
PARAM.
MIN.
MAX.
U.M.
DEF
REGULATION
r0
0.1 (5)
15
°C/°F (1)
2.0
Regulation differential (hysteresis), or dead zone differential (according to the number of compressors). (6)
r1
-99
R2
°C/°F (1)
-50.0
Minimal limit of the regulation Set Point.
r2
R1
99
°C/°F (1)
50.0
Maximal limit of the regulation Set Point.
r3
0
1
- - - -
0
Lock the modification of the regulation Set Point (0 = NO; 1=YES;).
r4
0
99
°C/°F (1)
0.0
Regulation Set Point increase during the “energy saving” operation mode.
r5
0
99
°C/°F (1)
0.0
Regulation Set Point decrease during the “turbo” operation mode.
r6
0
240
min
30
Duration of the “turbo” operation mode.
r12
0
1
- - - -
1
Dead-band type or regulation differential type (0 = asymmetrical; 1 =symmetrical)
PARAM.
MIN.
MAX.
U.M.
DEF
ELECTRONIC EXPANSION VALVE (SMART BOX VEX MODEL)
h01
3.0
25
°C/°F (1)
6.0
Superheating
h02
10.0
40.0
°C/°F (1)
15.0
Superior temperature limit of the evaporation for a high superheating alarm (code “HSH). (7)
h03
-70.0
40.0
°C/°F (1)
-70.0
Inferior temperature limit of the evaporation in order to activate the low pressure operation mode (the valve
opens entirely; code “LOP”). (7)
h04
1.0
99.9
°C/°F (1)
50.0
Proportional band in PID control.
h05
0
999
s
50
Integral Time in PID control.
h06
0
999
s
10
Derivation time in PID control.
h07
1
250
s
30
Starting delay.
h08
-1
100
%
-1
Valve’s opening percentage in manual mode (-1 = Automatic regulation and superheating alarm available).
h09
0
100
%
0
Opening percentage of the valve during the hot gas defrosting.
h10
0
45
Pt:10 (2)
1.0
Inferior limit of low pressure in order to stop the compressor during the liquid injection to the evaporator.
h11
0
250
min
3
High superheating alarm delay (code “HSH”).
h12
0
1
- - - -
0
Enable the low pressure alarm (code “LP”; 1 = YES)
h13
-0.5
45
Pt:10 (2)
0.5
Inferior limit in order activate the minimal low pressure alarm (code “LP”). (8)
h14
0
250
min
3
Minimal low pressure alarm delay (code “LP”).

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 7
h15
0
7
- - - -
2
Refrigerating gas: 0 = R-22; 1 = R-404A; 2 = R-507A; 3 = R-744; 4 = R-290; 5 = R-717; 6 = R1270; 7 = R-
407F
h16
0
2
- - - -
1
Type of electronic expansion valve: 0 = Generic valve; 1 = Sanhua DPF; 2 = Danfoss ETS 6
h17
0
100
%
30
Opening percentage of the valve during the evaporation temperature probe error (code “pr4”) and/or during
the low pressure probe error (code “pr5”)
h18
0
490
Steps
(pitch) x10
100
Maximum number of steps (pitch) of the generic electronic expansion valve.
h19
0
250
Steps
(pitch)
30
Number of saturation steps (pitch) of the generic electronic expansion valve.
h20
25
999
Steps
(pitch)
100
Frequency of the steps (pitch) of the generic electronic expansion valve.
PARAM.
MIN.
MAX.
U.M.
DEF
COMPRESSOR’S PROTECTIONS
C0
0
240
min
0
Delay in the compressor’s start to the device’s start.
C1
0
240
min
5
Minimum time between two consecutive starts of the compressor.
C2
0
240
min
3
Minimum time of the compressor’s deactivation.
C3
0
240
s
0
Minimum time of the compressor’s activation.
C4
0
240
min
10
Compressor’s activation time during a room temperature’s probe error or an input temperature’s probe error
(code “pr1”).
C5
0
240
min
10
Compressor’s activation time during a room temperature’s probe error or an input temperature’s probe error
(code “pr1”).
C6
0
199
°C/°F (1)
80.0
Superior temperature limit of the condenser in order to activate the condenser superheating alarm (code
“COH”).
C7
0
199
°C/°F (1)
90.0
Superior temperature limit of the condenser in order to activate the locked compressor alarm (code “CSd”).
C8
0
15
min
1
Delay of the locked compressor alarm (code “Csd”).
C10
0
999
hx10
0
Limit of working hours of the compressor in order to activate the maintenance request; 0 = Not used
function.
C11
0
240
s
3
Minimum time in between the starts of two different compressors.
C12
0
10
- - - -
2
Number of operation hours of the compressor in order to balance the starts/stops and the number of
working hours in between two compressors.
C13
0
10
- - - -
1
Number of start of the compressor in order to balance the starts/stops and the number of working hours in
between two compressors.
C14
0
2
- - - -
2
Type of compressor’s; 0 = timed, see also u3; 1 = by digital input, see also u3;
2 = by low pressure (only available in model SMART BOX VEX).
PARAM.
MIN.
MAX.
U.M.
DEF
DEFROSTING
d0
0
99
h
8
Interval in between defrostings (0 = defrosting by intervals disabled); or maximum interval of defrosting
(according to the d8 parameter).
d1
0
2
- - - -
0
Type of defrosting; 0 = electric; 1 = hot gas; 2 = compressor stoppage.
d2
-99
99
°C/°F (1)
3.0
End of defrosting temperature.
d3
0
99
min
30
Defrosting’s maximum duration; according to the P3 parameter; (0 = the defrosting is never activated).
d4
0
1
- - - -
0
Defrosting when the device is started (0 = NO; 1 = YES).
d5
0
99
min
0
Minimum time in between the device’s start and the defrosting’s activation; or delay in the activation of the
defrosting at the device’s start (according to the d4 parameter).
d6
0
2
- - - -
1
Visualized temperature during the defrosting; 0 = room temperature or CPT temperature; 1 = “Regulation
Set Point + t”; maximum room temperature or CPT temperature in the activation of the defrosting
(according to the P4); 2 = “dEf” indication.
d7
0
15
min
2
Dripping duration.
d8
0
4
- - - -
0
Defrosting mode; 0 = by time intervals; 1 = by compressor start intervals; 2 = by evaporator’s temperature
intervals; 3 = dynamic; 4 = by real time.
d9
-99
99
°C/°F (1)
0.0
Superior temperature limit of the evaporator in order to stop counting the interval’s time in between
defrostings.
d11
0
1
- - - -
0
Enable the alarm of end of defrosting due to maximum time (code “dFd”; 0 = NO; 1 = YES)
d15
0
99
min
0
Minimum time from the compressor’s start to the activation of the defrosting in order for it to be activated
(only if d1 = 1)
d16
0
99
min
0
Pre-dripping duration. (9)
d18
0
999
min
40
Defrosting’s interval; (0 = the function isn’t used).
d19
0
40
°C/°F (1)
3.0
Inferior temperature limit of the evaporator in order to activate the defrosting.
d20
0
500
min
180
Defrosting’s start due to the continual operation of the compressor (0 = the function isn’t used). (10)
d21
0
500
min
200
Minimal duration of consecutive starts of the compressor after the device is turned on and after the turbo
operation mode is activated, which causes the defrosting’s activation (0 = the function isn’t used).

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 8
d22
0
10
°C/°F (1)
2.0
Superior temperature limit of the evaporator in order to pause the interval’s time in between defrostings.
d25
0
1
- - - -
0
Enable the temperature of the air output as a defrosting probe during the evaporator’s temperature probe
error (code “Pr2”).
d26
0
99
h
6
Defrosting interval due to the air input temperature probe which works as a defrosting probe during the
evaporator’s temperature probe error (code “Pr2”); (0 = the function isn’t used).
PARAM.
MIN.
MAX.
U.M.
DEF
TEMPERATURE ALARMS
A0
0
1
- - - -
0
Temperature associated to the low temperature alarm (code “AL”); 0 = Room temperature or CPT
temperature; 1 = Evaporator’s temperature.
A1
-99
99
°C/°F (1)
-10.0
Low temperature alarm set point (code “AL”)
A2
0
2
- - - -
0
Type of low temperature alarm; 0 = not used; 1 = relative to the set point; 2 = absolute.
A4
-99
99
°C/°F (1)
10.0
High temperature alarm set point (code “AL”).
A5
0
2
- - - -
0
Type of high temperature alarm; 0 = not used; 1 = relative to the set point; 2 = absolute.
A6
0
240
min
120
Delay of the high temperature alarm when the device is started.
A7
0
240
min
15
Delay of the temperature alarm.
A8
0
240
min
15
Delay of the high temperature alarm when the evaporator’s fan’s stoppage has finalized.
A9
0
240
min
15
Delay of the high temperature alarm when the open door input is deactivated.
A10
0
240
min
1
Duration of a power failure in order to memorize the power failure alarm (code "PF").
A11
0,1 (5)
15
°C/°F (1)
2.0
Temperature alarms differential.
A12
0
2
- - - -
1
Type of power failure alarm signal (code "PF"); 0 = "HACCP" led; 1 = code "PF", the buzzer and the
"HACCP" led; 2 = code "PF", the buzzer (if the power failure’s duration is superior to the A10 time) and the
HACCP" led.
PARAM.
MIN.
MAX.
U.M.
DEF
EVAPORATOR FAN AND CONDENSER FAN
F0
0
5
- - - -
1
Activity of the evaporator’s fan during the normal operation; 0 = deactivated; 1 = turned on (11); 2 =
according to the compressor (12); 3 = according to “F1” (13); 4 = Turned off if the compressor is
deactivated, it depends on F1 if the compressor is activated (14); 5 = It depends on F6.
F1
-99
99
°C/°F (1)
-1.0
Superior temperature limit of the evaporator in order to deactivate the evaporator’s fan.
F2
0
2
- - - -
0
Activity of the evaporator’s fan during the defrosting and the dripping; 0 = Deactivated; 1 = Turned on (it is
recommended to configure the d7 parameter to 0); 2 = It depends on F0.
F3
0
15
min
0
Maximum duration of the stoppage of the evaporator’s fan.
F4
0
240
s
60
Stoppage time of the evaporator’s fan during the operation in low percentage of relative humidity when the
compressor is deactivated.
F5
0
240
s
10
Activation time of the evaporator’s fan during the operation in low percentage of relative humidity when the
compressor is deactivated.
F6
0
1
- - - -
0
Operation in low or high percentage of relative humidity; (only if F0 = 5; 0 = low; 1 = high).
F7
-99
99
°C/°F (1)
5.0
Temperature differential (relative to the working set point, or “working set point + F7”), inferior limit in order
to activate the evaporator’s fan.
F8
0.1 (5)
15
°C/°F (1)
2.0
Differential of the locking of the evaporator’s fan.
F9
0
240
s
0
Delay in deactivating the evaporator’s fan after the compressor is disconnected.
F11
0
99
°C/°F (1)
15.0
Superior temperature limit of the condenser in order to activate the condenser’s fan (“F11 + 2,0 ºC / 4 ºF”).
F12
0
240
s
30
Delay in deactivating the condenser’s fan after the compressor is disconnected.
F13
0
240
sx10
30
Locking time of the evaporator’s fan during the “saving energy” operation mode.
F14
0
240
sx10
30
Activation time of the evaporator’s fan during the “saving energy” operation mode.
PARAM.
MIN.
MAX.
U.M.
DEF
DIGITAL INPUTS
i0
0
5
- - - -
3
Open door digital input’s function: 0 = not used; 1 = disconnect the compressor & the evaporator’s fan; 2 =
disconnect the evaporator’s fan; 3 = turn on the room’s light; 4 = disconnect the compressor, the
evaporator’s fan & turn on the room’s light; 5 = disconnect the evaporator’s fan & turn on the room’s light.
i1
0
1
- - - -
0
Open door input’s type of contact (operation logic); 0 = NO (normally opened); 1 = NC (normally closed)
i2
-1
120
min
30
Delay in the open door input alarm signal (code “Id”); (-1 = the alarm is not signaled).
i3
-1
120
min
15
Duration of the open door input effect on the compressor and the evaporator’s fan.
i4
0
1
- - - -
0
Memorize the open door input alarm (code "Id"); 0 = NO; 1 = YES.
i5
0
9
- - - -
7
Configurable input 1 function; 0 = no use; 1 = Activate the energy saving mode; 2 = digital input alarm, "iA"
will be shown (16); 3 = High pressure switch alarm, "iA" and “iSd” will be shown; 4 = Activate the auxiliary
output; 5 = Turn off the device; 6 = Low pressure switch, "LP" will be shown; 7 = Compressor’s thermal
protection, "C1t" will be shown; 8 = Compressor’s 2 thermal protection, "C2t" will be shown; 9 = Locked
man alarm, “MiC” will be shown.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 9
i6
0
1
- - - -
0
Type of contact (operation logic) of the configurable input 1; 0 = NO (normally opened); 1 = NC (normally
closed).
i7
0
120
min
0
Delay in the configurable input alarm signal (code “iA”); delay of the compressor’s start until the
configurable input is deactivated (according to the i5 parameter).
i8
0
15
- - - -
240
Number of configurable alarm inputs (code “iA”) in order to activate the high pressure switch alarm (code
“iSd”; 0 = not used.
i9
1
999
min
0
Time that must pass without configurable input alarms (code “iA”) so that the alarm counter to be erased.
i10
0
999
min
180
Time that must pass without activations of the open door input (after the room or CPT temperature has
reached the regulation set point) so that the “energy saving” mode to be activated; 0 = function not used.
i13
0
240
- - - -
32
Number of activations of the open door input in order to activate the defrosting; 0 = the function isn’t used.
i14
0
240
- - - -
9
Minimal time the open door input must be active so that the defrosting is initiated; 0 = function not used.
i15
0
9
- - - -
0
Configurable input 1 function; 0 = not used; 1 = Activate “energy saving” mode; 2 = Configurable input
alarm, "iA" will be shown; 3 = High pressure switch, "iA" and “iSd” will be shown; 4 = Activate auxiliary
output; 5 = Turn off the device; 6 = Low pressure switch, "LP" will be shown; 7 = Compressor’s thermal
protection, "C1t" will be shown; 8 = Compressor’s 2 thermal protection, "C2t" will be shown; 9 = Locked
man alarm, “MiC” will be shown.
i16
0
1
- - - -
0
Type of contact (operation logic) of the configurable input 2; 0 = NO (normally opened); 1 = NC (normally
closed).
i17
0
240
s
6
Delay in the activation of the alarm due to low pressure after turning on the device (code “LP”).
PARAM.
MIN.
MAX.
U.M.
DEF
DIGITAL OUTPUTS
u1
0
12
- - - -
0
Management of the K4 digital output (only available in SMART BOX, SMART BOX M, SMART BOX MD
and SMART BOX SD); 0 = ambient light; 1 = anti-fogging resistances; 2 = auxiliary output; 3 = alarm; 4 =
door resistances; 5 = dead-zone mode resistances; 6 = condenser’s fan 7 = compressor 2; 8 = defrosting 2;
9 = evaporator’s 2 fan; 10 = liquid valve; 11 = on/stand-by; 12 = locked man.
u1
0
12
- - - -
6
Management of the K5 digital output (only available in SMART BOX VEX, SMART BOX VEX M and
SMART BOX VEX MD); 0 = ambient light; 1 = anti-fogging resistances; 2 = auxiliary output; 3 = alarm; 4 =
door resistances; 5 = dead-zone mode resistances; 6 = condenser’s fan 7 = compressor 2; 8 = defrosting 2;
9 = evaporator’s 2 fan; 10 = liquid valve; 11 = on/stand-by; 12 = locked man.
u1
0
12
- - - -
6
Management of the K3 digital output (available in all models, except in SMART BOX VEX, SMART BOX
VEX M and SMART BOX VEX MD); 0 = ambient light; 1 = anti-fogging resistances; 2 = auxiliary output; 3
=alarm; 4 = door resistances; 5 = dead-zone mode resistances; 6 = condenser’s fan 7 = compressor 2; 8 =
defrosting 2; 9 = evaporator’s 2 fan; 10 = liquid valve; 11 = on/stand-by; 12 = locked man.
u2
0
1
- - - -
0
Enable the turning on/off the ambient light or the auxiliary output manually when the device is off; 1 = YES.
u3
0
240
s
10
Delay in deactivating the compressor after the liquid valve has been deactivated; maximum time in between
the deactivation of the liquid valve (according to the C14 parameter).
u4
0
1
- - - -
1
Enable the deactivation of exiting the alarm and muting the buzzer; 0 = NO; 1 = YES.
u5
-99
99
°C/°F (1)
-1.0
Set point to activate the door resistances ("U5 –2,0 °C/4 °F).
u6
1
120
min
5
Ignition time of the anti-fogging resistances.
u7
-99
99
°C/°F (1)
-5.0
Differential under the set point in order to activate the dead zone resistances. (17)
u9
0
1
- - - -
1
Enable the buzzer; 0 = NO; 1 = YES.
u11
0
12
- - - -
3
Management of the K3 digital output (only available in SMART BOX PLUS, SMART BOX PLUS M, SMART
BOX PLUS MD and SMART BOX PLUS SD); 0 = reserved; 1 = anti-fogging resistances; 2 = auxiliary
output; 3 = alarm; 4 = door resistances; 5 = dead-zone mode resistances; 6 = condenser’s fan 7 =
compressor 2; 8 = defrosting 2; 9 = evaporator’s 2 fan; 10 = liquid valve; 11 = on/stand-by; 12 = locked
man.
PARAM.
MIN.
MAX.
U.M.
DEF
REAL TIME CLOCK
Hr0
0
1
- - - -
0
Enabling the real time clock and its functions; (only available in SMART BOX SD and SMART BOX PLUS
SD); 0 = NO; 1 = YES.
PARAM.
MIN.
MAX.
U.M.
DEF
ENERGY SAVING
HE2
0
999
min
0
Maximum duration of the “energy saving” mode, it is activated when it receives no signal from the open
door input; 0 = the mode will last until the input is activated.
H01
0
23
h
0
Hour of activation of the “energy saving” operation mode on Mondays.
H02
0
24
h
0
Duration of the “energy saving” operation mode on Mondays.
H03
0
23
h
0
Hour of activation of the “energy saving” operation mode on Tuesdays.
H04
0
24
h
0
Duration of the “energy saving” operation mode on Tuesdays.
H05
0
23
h
0
Hour of activation of the “energy saving” operation mode on Wednesdays.
H06
0
24
h
0
Duration of the “energy saving” operation mode on Wednesdays.
H07
0
23
h
0
Hour of activation of the “energy saving” operation mode on Thursdays.
H08
0
24
h
0
Duration of the “energy saving” operation mode on Thursdays.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 10
H09
0
23
h
0
Hour of activation of the “energy saving” operation mode on Fridays.
H10
0
24
h
0
Duration of the “energy saving” operation mode on Fridays.
H11
0
23
h
0
Hour of activation of the “energy saving” operation mode on Saturdays.
H12
0
24
h
0
Duration of the “energy saving” operation mode on Saturdays.
H13
0
23
h
0
Hour of activation of the “energy saving” operation mode on Sundays.
H14
0
24
h
0
Duration of the “energy saving” operation mode on Sundays.
PARAM.
MIN.
MAX.
U.M.
DEF
REAL TIME DEFROSTING
Hd1
h0
h--
h
0
Activation time of the first daily defrosting (h - - = not used).
Hd2
h0
h--
h
0
Activation time of the second daily defrosting (h - - = not used).
Hd3
h0
h--
h
0
Activation time of the third daily defrosting (h - - = not used).
Hd4
h0
h--
h
0
Activation time of the fourth daily defrosting (h - - = not used).
Hd5
h0
h--
h
0
Activation time of the fifth daily defrosting (h - - = not used).
Hd6
h0
h--
h
0
Activation time of the sixth daily defrosting (h - - = not used).
PARÁM.
MÍN.
MÁX.
U.M.
DEF
DATA LOGGING EXTENSION
Sd0
1
30
min
30
Writing interval in the “HACCP” type modes.
Sd1
1
30
min
1
Writing interval in the “service” type modes.
Sd2
1
240
min
60
Duration of the “service” type writing mode.
Sd3
0
1
- - - -
0
Enable the auxiliary 3 temperature probe; 0 = NO; 1 = YES
Sd4
0
1
- - - -
0
Enable the writing of the value of the room temperature; 0 = NO; 1 = YES
Sd5
0
1
- - - -
1
Type of decimal separator; 0 = comma; 1 = Period
Sd6
0
2
- - - -
1
Type of auxiliary 2 and auxiliary 3 probe; 0 = Reserved; 1 = NTC; 2 = Pt1000
PARAM.
MIN.
MAX.
U.M.
DEF
MODBUS RS-485
LA
1
247
- - - -
247
Device’s serial direction (node)
Lb
0
3
- - - -
2
Transmission speed (Bauds); 0 = 2.400 bauds; 1 = 4.800 bauds; 2 = 9.600 bauds; 3 = 19.200 bauds
LP
0
2
- - -
2
Parity; 0 = None; 1 = Odd; 2 = Even
Notes:
(1) The unity of measurement depends on the P2 parameter.
(2) The unity of measurement depends on the P9 and P10 parameters.
(3) Properly configure the parameters considering the value of the P2 parameter.
(4) The formula to calculate the CPT temperature is as follows:
CPT temperature = {[(P7 parameter) x (air input temperature) + [(100 –P7 parameter) x (air output temperature)] : 100}
(5) The value depends on the P2 parameter (0.1 °C or 1 °C)
(6) When working with only one compressor the parameter is the differential of the regulation Set Point. However, if one of the outputs is configured as compressor 2, r0
becomes the proportional band of a regulation with two stages.
- Temperature below the SP, disconnected compressors.
- Temperature above the SP+r0/2 (half of the band) the controller activates a compressor.
- Temperature above the SP+r0, the controller activates both compressors.
(7) The differential of the h02 and h03 parameters is 2.0 °C/4 °F
(8) The differential of the h13 parameter is 2.0 bar g/PSI g
(9) The pre-dripping is used with the hot gas defrostings and in parallel to the hot gas solenoid valve (which is controlled with the defrosting output); an electric resistance
of “evaporator drying” is also controlled.
How the regulation works:
When a hot gas defrosting is initiated the controller activates the compressor’s output and the defrosting output. This way the compressor, the hot gas solenoid valve and
the drying resistance will be activated.
When the defrosting finishes (when the evaporator has reached the “end of defrosting” temperature) the controller deactivates the compressor’s output but keeps the
defrosting output activated for the d16 time in order to keep the drying resistance activated for some minutes (usually it is 2 or 3 minutes).
After this the controller starts the dripping, where all outputs are deactivated. In general, the pre-dripping is used instead of the dripping when the installation has this
drying resistance.
(10) Example: if the compressor is working for 180 minutes straight without reaching the SP, the controller will perform a defrosting cycle due to the suboptimal
performance of the plant.
(11) Ignited fan during the “energy saving” mode, it doesn’t have an effect on the behavior during the defrosting. The F13 and F14 parameters have an effect when the
compressor is turned off.
(12) The F13 and F14 parameters have an effect when the compressor is ignited.
(13) The F13 and F14 parameters have an effect when the evaporator’s temperature is below the temperature set in the F1 parameter.
(14) The F13 and F14 parameters have an effect when the compressor is turned off and the evaporator’s temperature is below the temperature set in the F1 parameter.
(15) This alarm is only a signal in the controller’s display, the alarm output can be activated if it is configured.
(16) This parameter only has a function if one of the outputs is configured as a resistance for a dead-zone operation. In such a case, u7 establishes at how many
degrees below the working set point will the heat resistance be activated.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 11
12 –DIMENSIONS AND INSTALLATION_________________________________________________________________ _____
12.1 Dimensions_____________________________________________________________________________________ ____
The dimensions are expressed in mm (in).
12.2 Additional information for the installation___________________________________________________________ ____
Make sure that the device’s working conditions (temperature of operation, humidity of operation, etc.) are within the aforementioned
limits; consult the TECHNICAL DATA chapter of the extensive manual.
Do not install this device near heat sources (heaters, hot air conductors, etc.), devices with big magnets (speakers, etc.), in places
without direct light exposure, rain, dust, humidity, mechanical vibrations or pumps.
In compliance with the safety legislation, the protection against possible contacts with electric components must be ensured
through the correct installation of the device; all components that ensure protection must be fixed in such a way that they won’t be
able to be moved unless tools are used.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 12
13 –ELECTRICAL DIAGRAM_______________________________________________________________________ _____

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 13

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 14

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 15
Connection for the models with data logging in compliance with the EN 12830 norm.

OSAKA –SMART BOX –Simple Manual –v1.1 –Page 16
13.2 Additional information for the electric connection_______________________________ ______________________
Do not operate with the device’s terminal block using electric screwdrivers or pneumatics.
If the device has been moved from a cold place to a hot one, the humidity can condense in its interior; wait for approximately an
hour before connecting it to the power supply.
Make sure that the power’s supply voltage, and the device’s electric frequency and the power are proper with the local power
supply; consult the TECHNICAL DATA chapter of the extensive manual.
Connect the device to the MODBUS RS-485 network by using a twisted wire.
Place the supply cables as far as possible from the signaling cables.
14 –WARRANTY AND REPAIR R
The controller has a repairing or replacement warranty due to manufacturing defects of 12 months from the purchasing date.
OSAKA SOLUTIONS will automatically cancel aforementioned warranty and will not be held accountable for possible damages that
result from:
- The use, installation, usage or improper handling that differs from the one previously stated, and specially if it differs from the
safety prescriptions established by the law.
-The use in applications, machines or frames that do not guarantee an adequate protection against liquids, dust, grease and
electric shocks in the performed mounting conditions.
-The inexpert handling and/or the modification of the product.
-The installation/use in application, machines or frames that do not comply with the current regulations set by the law.
In case of having a defective product under warranty time or out of warranty time, it is necessary to contact the post-sales service
to perform the appropriate procedures. Request the “RMA” reparation document (by email or fax) and fill it, it is necessary to send
the RMA and the controller to the SAT OSAKA (Technical Assistance Service) by prepaid freight.