Functions & macros
You can use the following functions and macros for adding calculations.
With date functions, you can manipulate dates in your dataset.
Function(syntax) | Description |
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DATE_ADD(value, interval expr) | Adds a specified interval to a date. The return type for this calculation must be set to Date. Example: DATE_ADD([Sales Date], interval '2' year) = 2019-01-24, where “Sales Date” is 2017-01-24 DATE_ADD('2019-01-24', interval '2' month) = 2019-03-24 |
DAY(dateexpr) | Returns the day of the month in the range 1 to 31 of dateexpr. The calculation return type for this function must be set to Dimension. Example: DAY([Sales Date]) = 24, where “Sales Date” is 2021-01-24. |
DAYNAME(dateexpr) | Returns the name of the weekday of dateexpr. The calculation return type for this function must be set to Dimension. Example: DAYNAME('2021-01-26') = Tuesday |
EXTRACT(extract_expression) | Returns a component of a timestamp, time, date, or interval. The extract expression is built as follows: {component} FROM {timestamp | time | date | interval}, where “component” can be year, month, day, hour, minute, second. The calculation return type for this function must be set to Dimension. Example: EXTRACT(day FROM DATE '2021-01-08') = 8 EXTRACT(year FROM DATE '2021-01-08') = 2021 EXTRACT(hour FROM TIME '17:12:28') = 17 EXTRACT(second FROM TIMESTAMP '2019-02-16 20:38:40') = 40 EXTRACT(day FROM [Sales Date]) = 8, where Sales Date is 2021-01-08 |
HOUR(dateexpr) | Returns the hour in the range of 0 to 23 of dateexpr. The calculation return type for this function must be set to Dimension. Example: HOUR([Sales Date]) = 15, where “Sales Date” is Feb 27 2021 15:31:35. |
MINUTE(dateexpr) | Returns the minute in the range of 0 to 59 of dateexpr. The calculation return type for this function must be set to Dimension. Example: MINUTE([Sales Date]) = 31, where “Sales Date” is Feb 27 2021 15:31:35. |
MONTH(dateexpr) | Returns the month for the date in the range 1 to 12 for dateexpr. The calculation return type for this function must be set to Dimension. Example: MONTH([Sales Date]) = 1, where “Sales Date” is 2021-01-24. |
MONTHNAME(dateexpr) | Returns the name of the month of dateexpr. The calculation return type for this function must be set to Dimension. Example: MONTHNAME(‘2021-01-08’) = January |
NOW() | Returns the current local system date and time in YYYY-MM-DD HH:mm:ss format. The calculation type for this function must be set to Date or DateTime. Example: NOW() = 2021-01-26 18:46:27 |
SECOND(dateexpr) | Returns the second in the range of 0 to 59 of dateexpr. The calculation return type for this function must be set to Dimension. Example: SECOND([Sales Date]) = 35, where “Sales Date” is Feb 27 2021 15:31:35. |
TIMESTAMPADD(time_unit, interval, datetime_expression) | Adds an interval of time, in the given time units, to a datetime expression, where time_unit is any of the following: Nanosecond, Microsecond, Second, Minute, Hour, Day, Month, Year, Week, Quarter. The return type for this calculation must be set to Date. Example: TIMESTAMPADD(YEAR,3,DATE '1982-05-06') = 1985-05-06 TIMESTAMPADD(YEAR,2, [Sales Date]) = 2018-05-06, where Sales Date is 2016-05-06 TIMESTAMPADD(MONTH,3, DATE '1982-05-06') = 1982-08-06 TIMESTAMPADD(MINUTE, 5, TIME '05:05:05') = 2021-01-26 07:10:05 (if the current time is 2021-01-26 02:05:00) |
TO_CHAR(date, formatexpr) | Converts a date into a string with a given format. The calculation return type for this function must be set to Dimension. TO_CHAR([Sales Date], ‘YYYY:MM:DD’) = 2021:01:24 |
TO_DATE(datestr, formatexpr) | Given a date format specified in Java syntax, returns a date or NULL if conversion fails. The return type for this calculation must be set to Date. Example: TO_DATE('2021-FEB-23', 'yyyy-MMM-dd') = 2021-02-23 |
YEAR(dateexpr) | Returns the year from a given date (dateexpr). The calculation return type for this function must be set to Dimension. Example: YEAR([Sales Date]) = 2021, where “Sales Date” is 2021-01-24. |
With mathematical functions, you can perform calculations on the numerical values in your dataset.
Syntax | Description |
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ABS(expr) | Returns the absolute value of a number (expr). Example: ABS(-4) = 4 ABS([Profit]-[Planned Profit]) = The absolute values for all the rows for the profit variance. |
ACOS(expr) | Returns the arc cosine of an expression (expr), in radians. Returns NULL if the expression is not in the range -1 to 1. Example: ACOS(-1) = 3.14 |
ASIN(expr) | Returns the arc sine of an expression (expr), in radians. Returns NULL if the expression is not in the range -1 to 1. Example: ASIN(-1) = -1.57 |
ATAN(expr) | Returns the arc tangent of an expression (expr), in radians. Example: ATAN(180) = 1.57 |
CEILING(expr) | Rounds an expression (expr) to the nearest greater integer. Examples: CEILING(3.2) = 4 |
COS(expr) | Returns the cosine of an expression (expr). Example: COS(1) = 0.54 |
COT(expr) | Returns the cotangent of an expression (expr). Example: COT(14) = 0.14 |
DEGREES(expr) | Converts an expression (expr) given in radians to degrees. Example: DEGREES(3.15) = 180.48 |
EXP(expr) | Computes the exponential of an expression (expr). Example: EXP(2) = 7.39 |
FLOOR(expr) | Rounds an expression (expr) to the nearest lower integer. Example: FLOOR(3.7) = 3 |
LOG(expr) | Computes the natural logarithm of an expression (expr). In Excel, the natural algorithm denotes a log with base 10. Example: LOG(358) = 2.55 (Excel data source) LOG(358) = 5.88 (Oracle data source) |
MOD(expr1,expr2) | Returns the remainder of (expr1) divided by (expr2). Example: MOD(10,3) = 1 |
POWER(expr1, expr2) | Raises an expression to the specified power: expr1expr2 Example: POWER(5, 2) = 25 POWER(5, 3) = 125 |
RADIANS(expr) | Converts an expression (expr) given in degrees into radians. Example: RADIANS(180) = 3.14 |
ROUND(expr1, expr2) | Rounds an expression (expr1) to a specified decimal (expr2). Example: ROUND(3.145689, 2) = 3.15 |
ROUND(expr) | Rounds an expression (expr) to the nearest integer. Example: ROUND(3.145689) = 3 |
SIGN(expr) | Returns the sign of an expression (expr): -1, 0, or 1. Example: SIGN(-23) = -1 SIGN(23) = 1 SIGN(0) = 0 |
SIN(expr) | Returns the sine of an expression (expr) given in radians. Example: SIN(12) = -0.54 SIN(3.14/2) = 1.00 |
SQRT(expr) | Computes the square root of an expression (expr). Example: SQRT(25) = 5 |
TAN(expr) | Returns the tangent of an expression (expr) given in radians. Example: TAN(25) = -0.13 TAN(3.14/4) = 1.00 |
With string functions, you can manipulate string data (for example, text).
Syntax | Description |
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ASCII(expr) | Returns the ASCII code of the first (leftmost) character in a string (expr). Example: ASCII(‘ma’) = 109 |
CHAR(expr) | Returns a character that has the ASCII code of an expression (expr). Example: CHAR(109) = m |
CHAR_LENGTH (expr) | Returns the length of a string (expr), as the number of characters. Example: CHAR_LENGTH(‘Floor’) = 5 |
COALESCE(expr1, expr2, ...) | Returns the first non-null expression in the list. If all occurrences are null, then the function returns null. Example: COALESCE(NULL, 'world') = world COALESCE('', 'world') = [empty string] |
CONCAT(expr1, expr2) | Joins two or more strings into one string. Example: CONCAT(‘Floor’, ‘ Care’) = Floor Care |
DOUBLE_METAPHONE(expr) | Returns a phonetic encoding for the input string (expr) by using the Double Metaphone algorithm. In English, for example, the algorithm removes silent letters and vowels inside a word to normalize inconsistent spellings for better matching. This function is useful for fuzzy matching between string values. Example: DOUBLE_METAPHONE(‘Floor Care’) = FLRK |
LCASE(expr) | Converts a string (expr) into lowercase. Example: LCASE('HELLO') = hello |
LEFT(expr, len) | Returns a specified number of the leftmost characters from the string. Example: LEFT('Hello', 2) = He |
LENGTH(expr) | Returns the length of a string (expr), as the number of characters. Example: LENGTH('Hello') = 5 |
LOWER(expr) | Converts a string (expr) into lowercase. Example: LOWER('HELLO') = hello |
LTRIM(expr) | Removes whitespace characters at the beginning of a string (expr). Example: LTRIM(‘ hello') = hello |
METAPHONE(expr) | Returns a phonetic encoding for the input string (expr) by using the Metaphone algorithm. In English, for example, the algorithm removes silent letters and vowels inside a word to normalize inconsistent spellings for better matching. This function is useful for fuzzy matching between string values. Example: METAPHONE(‘Floor Care’) = FLRK |
POSITION(substr in str) | Returns the starting position (an integer value) of the first occurrence of the substring (substr) within the search string (str). Example: POSITION('World' in 'Hello World!') = 7 |
REFINED_SOUNDEX(expr) | Returns a phonetic encoding for the input string (expr) by using the Refined Soundex algorithm. The encoding is a refined Soundex code based on the English word pronunciation. The algorithm is used to normalize inconsistencies between spellings for better matching (fuzzy matching between string values). Example: REFINED_SOUNDEX(‘Floor Care’) = F27093090 |
REGEXP_MATCHES(str, regexp) | Returns 'true' if a string (str) matches a regexp pattern or ‘false’ if the given string does not match the regexp pattern. Example: REGEXP_MATCHES('abc', 'abc|def') = true REGEXP_MATCHES('Floor', '.loor') = true REGEXP_MATCHES('8', '[0-9]') = true |
REGEX_REPLACE(str, oldstr, newstr) | In a string (str), replaces all occurrences of an old string (oldstr) with a new string (newstr). Example: REPLACE(‘Floor Care’, 'Floor', ‘Flower’) = Flower Care |
REPLACE(str, oldstr, newstr) | In a string (str), replaces all occurrences of an old string (oldstr) with a new string (newstr). Example: REPLACE(‘Floor Care’, 'Floor', ‘Flower’) = Flower Care |
REVERSE(str) | Spells the string (str) backwards. Example: REVERSE(‘Floor Care’) = areC roolF |
RIGHT(expr, len) | Returns a specified number (len) of the rightmost characters from a string (expr). Example: RIGHT('Hello', 2) = lo |
RTRIM(expr) | Removes trailing spaces from the string (expr). Example: RTRIM(‘ hello ') = ‘ hello’ |
SOUNDEX(expr) | Returns a phonetic encoding for the input string (expr) by using the Soundex algorithm. The encoding is a four-character code based on the English word pronunciation. The algorithm is used to normalize inconsistencies between spellings for better matching (fuzzy matching between string values). Example: SOUNDEX(‘Floor Care’) = F462 |
SPLIT_PART(str, delimiter, part) | Splits a string (str) based on the specified delimiter and returns the part at the specified position. The part number to return starts with 1. Example: SPLIT_PART('John Smith', ' ' , 2) = 'Smith' |
STRPOS(str, substr) | Returns the starting position (integer value) of a substring (substr) within the search string (str). Example: STRPOS('FloorCare', 'Care') = 6 |
SUBSTR(str, start, len) | From a string (str), extracts a substring of a certain length (len) starting at a certain position (start). Example: SUBSTR('Floor Care', 7, 4) = Care |
SUBSTR(str, start) | From a string (str), extracts a substring starting at a certain position (start). Example: SUBSTR('Floor Care', 5) = r Care SUBSTR('Floor Care', 1) = Floor Care |
TRIM(type trimchars from expr) | Removes specific characters (trimchars) of a given type (type) from a string (expr). Example: TRIM(leading 'F' from 'Floor Care') = loor Care TRIM(trailing 'e' from 'Floor Care') = Floor Car TRIM(both '_' from 'Floor Care_') = Floor Care TRIM(leading '1' from '112') = 2 |
TRIM(expr) | Removes leading and trailing characters from a string (expr). Example: TRIM(‘Floor Care’) = Floor Care |
UCASE(expr) | Converts a string (expr) into uppercase. Example: UCASE(‘floor care’) = FLOOR CARE |
UPPER(expr) | Converts a string (expr) into uppercase. Example: UPPER(‘floor care’) = FLOOR CARE |
For the Data Science functions, see Data science built-in algorithms.
You can use the following macros in your calculations to get user-related information. For example, you can use user macros to set up row-level security based on the user logged into the platform. For details, see User macros in filters and calculations.
Macro | Description |
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${user.username} | Returns the username for the current user. Example: ${user.username} = j.smith |
${user.firstname} | Returns the first name for the current user. Example: ${user.firstname} = John |
${user.lastname} | Returns the last name for the current user. Example: ${user.firstname} = Smith |
${user.email} | Returns the email for the current user. Example: ${user.email} = j.smith@company.com |
${user.groups} | Returns the groups for the current user. Example: ${user.groups} = Group 1, Group 2 |
${user.tenant} | Returns the tenant for the current user. Example: ${user.tenant} = Tenant 1 |
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