The value of analog Input number NUM.
(e.g. Analog value from sensor's output wired to analog input on SB).

Analog Output - writing a value NUM to analog Output.
(e.g. the value from SB's Aout wired to analog device).

Desc: Count D.In

Digital Input - reading value of digital Input number NUM.
(e.g. from switch on Din to SB).

Digital Output - writing a value NUM to digital Output.
(e.g. from Dout on SB to the light bulb ON/OFF).

Pulse On D.Out - producing a pulse on digital Output.

1. Input 1: Enable
   Input 2: Time ON
   Input 3: Time OFF

Changes Output number NUM to "1" in a range of time between start time (Input 2) and stop time (Input3). It is preferable to use PLSC.

Stack - "First in first out"
This function managing a "line" fo applying Digital Outputs by demand.
NUM - number of the most aplied Output.

1. Input 1: Number of Output's to apply
   Input 2: Output number to be replaced by Output 9
   Input 3: Binary representative of active Input's

Desc: External IO (CO)

Output changes to "1" when:
Input 1 is "1", Input 2 is "0"

Output changes to "0" when:
Input 1 is "0", Input 2 is "1"
Output is the same in other instances.

Close contact = Result = "0"
Open contact = Result = "1"

Logic "1" is connected to the Input, if there is no previous data connection.

Analog Output number "NUM" readout and integration into controller software.

Digital Output number "NUM" readout and integration into controller software.

The internal number represents the Output which is turned to be Input.
The Output remains in "1" state till the software run this command (usefull with short pulse Input).

Calculation of an air Anthalphy.
Input 1: Temperature 
Input 2: Humidity

When flow switch = "1", the heating element will operate in a binary step sequence, to preserve the desired temperature.

        Input 1: value 1 - 100 of PI module
        Input 2: number of heating elements
        Input 3: enable - flow switch
        Input 4: delay On
        Input 5: delay Off

Input 1: desirable value.
Input 2:  number of steps to use.
Output 1: is Analog Output to Analog heating element.
When the Analog heating element reaches its maximum power,
The Digital heating elements starts working by the sequence and demand level.

See also Heat Step Controller + Timer.

Desc: Pump Exchange

External button:

Input 1: input from time schedule SST, when the input is 1
the output gets 1 as well.
Input 2: pushbutton input, each pulse changes the output
(during time schedule as well), depends on input 4.
Input 3: number of parameter that can be used as a pushbutton
for the function or to be affected by it's output.
Input 4: time in minutes to stay activated after a
pushbutton was pushed.

The same as Heating Step Controller With the next additions:
Input 3: Start delay
Input 4: Stop delay
Input 5: Enabling (case "0" - all the Outputs are "0")

An impruved ABSOLVER with 4 ranges of values.
Input 1: Value to convert.
Input 2: Lowest value to measuring range 1.
Input 3: Highest value to measuring range 1 and Lowest value to measuring range 2.
Input 4: Highest value to measuring range 2 and Lowest value to measuring range 3.
Input 5: Highest value to measuring range 3 and Lowest value to measuring range 4.
Input 6: Highest value to measuring range 4.

---------------------------------

Inputs 7 up to 11 are related to Inputs 2 up to 6 for Display values.
Input 12: defines how many active ranges there are.

Reading data from a minor unit connected to the protocol. NUM - is an index in the protocol table.

Writing data to a minor unit connected to the protocol. NUM - is an index in the conversion table.

Input 1: desirable state
Input 2: Feedback
When connected - will generate a pulse that changes existing state to desirable,
When not connected - will generate a pulse with every change of state.
NUM - number of the Digital Output that is effected.

Inputs Comparison - if there are at least two equal Inputs, the Output will be "1", otherwise Output will be "0".
NUM - defines how many Inputs to compare.

Desc: Remote Digital In

Desc: Remote Digital Out

Desc: Remote Digital Out Read

Output changes to "1" if a code was entered in panel number NUM.
(Intended for Entry control system).

Improvement of PULSE OUT function

1. Input 1: Enable
   Input 2: Cycle time in seconds
   Input 3: Percentage on time

Produces pulses on Output number NUM. See also PLSO.

The function is used for measuring imidiate and accumulated flow.

1. Input 1: Value of each pulse
   Input 2: Reset NUM - the number of the pulse input.

1. Output 1: Accumulated counter.
   Output 2: Flow on last minute.

Input 1: The input for sampling.
Input 2: Sampling frequency in seconds.
Input 3: Reset the stored data.
Output: Stored data.

Used with function SRot in order to define the next parameters (if not used as default in controller).
Input 1: The size of the pulse in seconds.
Input 2: Time for output status recheck.
Input 3: Number of trials to reach the desirable status.

Used with function CNTD , when the input equal 1, the count stops.
NUM - Number of input been used.

Combination of PROR and PROW.
NUM - Number of the Modbus row which register wanted to be read or write to.

Checks whether there is forced IO in the controller.

Output 1: Get value of 1 whether An In forced.
Output 2: Get value of 1 whether An Out forced.
Output 3: Get value from 1-16 for the number of An In that forced.
Output 4: Get value from 17-32 for the number of An In that forced.
Output 5: Get value from 1-16 for the number of An Out that forced.
Output 6: Get value from 17-32 for the number of An Out that forced.

Taking the input values and sort them from lowest to highest.
Num - amount of inputs to sort.

Flood sensor- reading the value and from the sensor and according to it turns on the correct output of the function.
Num - number of input connected.
Output 1: 2.5-5.5 volt - flood
Output 2: 6-10 volt - ok
Output 3: All the other voltage - fault
Output 4:The value

Desc: Heating Step Controller Binary

MultiPlexer 14-1

Desc: Min & Max

Allows defining the intervals and number of retries in modbus commands.

Input 1: Number of retries when reading data.
Input 2: The wait before time out (give up waiting) when reading data.
Input 3: Time interval when reading data.
Input 4: Number of retries when writing data.
Input 5: The wait before time out (give up waiting) when writing data.
Input 6: Time interval when writing data.
All the time intervals are in msec.

Allows choosing which parameters are accessible by Unisense panel clock button.

The internal number is the parameter file number.
Inputs 1,2: Allows to define a group of parameters input 1 is a parameter number to start from up to parameter number as appears in input 2.
Inputs 3, 4, 5, 6: allow access to single parameters.
Inputs 7,8: allows to define the presentation format:
If input 7 = 0 or not connected, then parameters in inputs 1-2 will remain in
regular format, If input 7 = 2, then parameters in inputs 1-2 will appear in HH:MM format.
If input 8 = 0 or not connected, then parameters in inputs 3,4,5,6 will remain in
regular format, If input 8 = 2, then parameters in inputs 3,4,5,6 will appear in HH:MM format.
The table can present up to total amount of 64 parameters.

Output = A / B
The Output result is equal to the mathematical divide of the two Input numbers.

Output = -1 * A
The Output equals the numerical value of the Input multiplied by "-1".

Output A - B
The Output result is equal to the mathematical subtraction of the two Input numbers.

Changes Output to number between 0 and 255, that includes values of Inputs according to the next Formula
Out = In[1] * 1 + In[2] * 2 + In[3] *4 + In[4] * 8 + In[5] * 16 + In[6] * 32 + In[7] * 63 + In[8] * 128

This function converts one Input Byte (0 - 255) to 8 Digital Outputs.

Output equals to square root of the Input.

Natural Logarithm - changes Output to Log base E of the Input.

Changes Output to Log base 10 of the Input.

Changes Output to number in Input 1 power number in Input 2.

Output changes to absolute value of the Input.

Output = Sin A[Rad]
Changes Output to sinus of Input.

Output = Cos A[Rad]
Changes Output to Cosinus of Input.

Desc: Arc Cosinus (Rad)

Input 1: The value.
Input 2: N - seconds.
Input 3: Reset

Output 1: Every N seconds gets the average of the value.
Output 2: Every second gets the average for last N seconds.
Output 3: Shows how N time elapsed.

Turns Signed to Unsigned.

Turns Unsigned to Signed.

Turns BCD format value to decimal.

When the two Inputs are different, the Output = "1"
In any other case the Output = "0"

If Input values are real numbers, the function works with the values as if they are integers expressed as binary numbers.

For example:

Output = "1" when the Input value = "0"
Output = "0" when the Input value = "1"

Do not use analog values in this function. The results are unexpected.

Desc: Read digital out time (SB)

1. Input 1: Measuared value
2. Input 2: Existing value
3. Input 3: Dead range for adjustment stop
4. Input 4: P
5. Input 5: I
6. Input 6: Fresh air work range
7. Input 7: General activating (0 to clear)
8. Input 8: Reserved
9. Input 9: Reserved

1. Output 1: Coolling
2. Output 2: Heating
3. Output 3: Fresh Air
4. Output 4: P - Formula value
5. Output 5: I - Formula value

When Input 1 changes from "0" to "1" the Output will change to "1" for the duration defined in Input 2, or untill Input 1 is "0" in Input 1.

When Input 1 changes from "0" to "1" the Output will change to "1" for the duration defined in Input 2. 
Even if Input 2 = "0" the Output will remain "1" till the end of the pulse.

This Function is Counting the time of the unit connected. 
When Input 1 = "1" the command accumulates time in seconds (Output 1) and Hours (Output 2) .
When Input 2 = "1" the clock and Output values are reset.

Time.

1. Output 1: Seconds 0-60
   Output 2: Minutes 0-1440
   Output 3: Days of the week 1-7
   Output 4: Days of the month 1-31
   Output 5: Month 1-12

Inputs.

1. Input 1: InEnable
   Input 2: First start time
   Input 3: First stop time
   Input 4: Second start time
   Input 5: Second stop time

Time is measured by minutes from midnight (Ex. 13:10 = 790).
Output changes to "1" if first Input is "1" and we are within the range of start and stop time.

Output changes to "1" right after f irst runing cycle (Turning ON the controller after sending a program), and in any cycle afterwards the Output is "0".

Output 1: current cycle
Output 2: average

When the first Input changes to "1" the Output will change to "1" after time delay defined on Input 2.

Input 1: Enable,

The even Inputs are start time for every day of the week.
The odd Inputs (starting with 3) are stop time.
Output changes to "1" if first Input is "1" and we are within the range of start and stop time for the spesific day.
The time values are in minutes starting in midnight.

Counts the time since last power on (Output 1 in seconds), the number of times the controller was restarted (Output 2), the number of times a program was sent to the controller (Output 3).

The same as time delay except for additional output 2, which shows the counting of time already past.

When input 1 turn from 1 to 0, the output will change after delay value in seconds connected to input 2.

If Inputs 1,2 are equal Output changes to "1".
In any other case Output is "0".

If Input 1 is higher than Input 2, the Output changes to "1".
If Input 1 is lower than Input 2 minus Input 3, the Output changes to "0".

Output changes to "1" when value in Input 1 is between values of two other Inputs. In any othe case Output is "0". 

The result of this program is that the parameter at the Output of the program is a function of the process time.

Exemple:

At each rising of input 1 from 0 to 1(for each pulse up - if the function remains 0 or 1 function disabled). The output will receive a random number from 0 - N which connected to input 2 .

The same as HYS, except for input 4 time in seconds in which the change in the inputs should remain before changing the output.

Desc: Pumps

Values of the inputs 1,2 are passed to Output according to the state of input 3.
If Input 3 = "0" then Input 1 is passed to the Output.
If Input 3 = "1" then Input 2 is passed to the Output.

Inputs.

1. Input 1: Deviation from the desirable controlled value (Set Point)
   Input 2: P - Proportional Band
   Input 3: I - Reset time (seconds)
   Input 4: D - Preset time (seconds)
   Input 5: I - Integration limits - when the Input is not connected, the Output will be limited to +-75.

2. Output 1:  Correction signal

Inputs.

1. Input 1: Deviation from the desirable controlled value (Set Point)
   Input 2: P - Proportional Band
   Input 3: I - Reset time (seconds)
   Input 4: I - Integration limits - when the Input is not connected, the Output will be limited to +-75.

2. Output - Correction signal

Time schedule with external button out of schedule. 

Input 1: First time schedule.
Input 2: Second time schedule.
Input 3: External button.
Input 4: Time in minutes for activation out of schedule (using external button).

Output 1: Gets value of 1 if input 1 or 2 is ON or if input 3 is ON out of schedule.

Numerical data is fed into the software.
NUM = Parameter Address - number between "1" and "127".
DDD = Parameter value - real number.

The Input data is saved within the parameter defined as a NUM.

Constant real value.

Sending parameter to another control center or to another file in the same control center.

NUM - number of control centre that will recieve the parameter.

1. Input 1: The value to send
   Input 2: Number of destination file
   Input 3: Number of destination parameter

Recieving parameter from another file. Input 1 - is the number of the file we are recieving parameter from.

Flout engine.

Input 1: The demand value 0-100 %
Input 2:Period time in sec.
Input 3: Reset
Input 4: Time in minuets for auto reset.

Output 1: Closing command.
Output 2: Opening command.
Output 3: Location (calculated).

Allows sending data to a slave controller at no come communication status.
The internal number is a slave cpu address.
Input 1: The value to be send
Input 2: Target file number
Input 3: Target parameter number

Alarm Flag number NUM.

Counts pulses that entered via Input 1, Input 2 = "1" - will reset the counter.

End current Module if there is "1" in Input 1.

The function is for compatibility only.

The function is for compatibility only.

The Input is passed to the Output unchanged.

Input 1: The date to apply the time shifting.
Input 2: The month to apply the time shifting. 
Input 3: The year to apply the time shifting (if nothing is connected will happen every year). 
Input 4: The time (in min.) to apply the time shifting.
Input 5: The time shifting (in min.).

Desc: Up and Down RTime

Desc: Up and Down Counter

Used for sending SMS messages from controller (using GSM modem).
Inputs 1- 12: the numbers of alarm to be sent.
Input 13: zip code.
Input 14: phone number to send to.
Input 15: enable function.

The output will get the value of an input which number is connected to input 11 .

Delivers to the outputs the delta between readings of the
input per one round of the program.

Output 1: gets the positive and the negative delta value.
Output 2: gets only the positive delta value.

Pause the program for amount of seconds connected to the input.

The internal number is the Panel address (in case of using more than 1 panel).First 6 inputs of the function define which parameter will be influenced by using pushbuttons of the Unisense panel:

Input 1: System status - System status inflected by push-buttons ON\OFF and presents the system status.
Input 2: S.P. (summer) - Inflected by UP\Down arrows.
Input 3: Speed status (1-2-3) - Presentable and changeable by speed push-button
(depends on parameter defined in input 1).
Input 4: Summer = 0, winter = 1 - Summer\Winter selector.
Input 5: S.P. (winter) - If par 116 = 1, and par 107 = 1, presentable and changeable by UP\Down arrows.
Input 6: Temperature value from Panels sensor.
Inputs7-13 allows defining panel's limits and settings:
Input 7: Lowest S.P. limit - Limits the change of S.P.
Input 8: Highest S.P. limit - Limits the change of S.P.
Input 9: Number of speed level (1-3) - Limits parameter defined in input 3.
Input 10: Sensor calibration - The value of calibration added to the value of the sensor.
Input 11: S.P. type - 0 = regular, 1 = par defined in input 5 replacing par defined input 2 at winter mode.
Input 12: S.P. change levels - Defines the size of change being made by using the UP\Down arrows.
Input 13-15: Saved for future options.

Transferring a value from Analog Input (according to its number in input 1) to parameter (according to its number in input 2). For example when using potentiometer.

Input 1: The number of the analog input used for the remote set point.
Input 2:The number of the parameter used to receive the value from the analog input.
Input 3:File number of the parameter.

- If the value in analog in is 9999 the parameter will be free to use and the function is deactivated.

Inputs 1-6: the values.
Input 7: if equal 0 sorts from high to low, if equal 1 sorts from low to high.
Input 8: The function sorts per each rising of input 8 from 0 to 1, if the function remains 0 or 1 no sorting is done.

For Israeli use only.

Desc: Tou

Inputs 1-6: the values.
Input 7: if equal 0 sorts from high to low, if equal 1 sorts from low to high.
Input 8: The function sorts per each rising of input 8 from 0 to 1, if the function remains 0 or 1 no sorting is done.

Module 1.

Module 2.

Module 3.

Module 4.

Module 5.

Module 6.

Module 7.

Values of the two first Inputs are passed to Output according to the state of third the Input.
If Input 3 = "0" then Input 1 is passed to the Output.
If Input 3 = "1" then Input 2 is passed to the Output.

Values of the two first Inputs are passed to Output according to the state of third the Input.
If Input 3 = "0" then Input 1 is passed to the Output.
If Input 3 = "1" then Input 2 is passed to the Output.

Values of the two first Inputs are passed to Output according to the state of third the Input.
If Input 3 = "0" then Input 1 is passed to the Output.
If Input 3 = "1" then Input 2 is passed to the Output.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the highest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output changes to the lowest Input value.

Output = A * B
The Output result is equal to the mathematical multiply of the two Input numbers.

Output = A * B * C
The Output result is equal to the mathematical multiply of the three Input numbers.

Output = A * B * C * D
The Output result is equal to the mathematical multiply of the four Input numbers.

Output = A * B *C * D * E
The Output result is equal to the mathematical multiply of the five Input numbers.

Desc: No Operation

Output = A + B
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B + C
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B +C + D + E
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B + C + D + E + F
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B + C + D + E + F + G
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B + C + D + E + F + G +H
The Output result is equal to the mathematical Summery of the Input numbers.

Output = A + B + C + D + E + F + G + H + I
The Output result is equal to the mathematical Summery of the Input numbers.

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

Output = "0" when all the Input values = "0"
Output = "1" when any of Input values = "1"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

When all Inputs = "1" Output = "1"
In any other case Output = "0"

Desc: Remote IO D.In

Desc: Remote IO D.Out

Desc: Read Remote IO Dout