Domain: terrancalendar.com
Stories and comments across the archive that link to terrancalendar.com.
Stories · 21
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Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Terran Computational Calendar Introduces Minimonths, Year Bases, and Datemods
First time accepted submitter TC+0 (3672227) writes "Inspired by comments regarding its first incarnation, the Terran Computational Calendar's recent redefinition now includes dynamic support for 'leap duration', 'year bases', and 'datemods'. Here's the new abstract from terrancalendar.com (wikia mirror) captured at 44.5.20,6.26.48 TC+7H:
Synchronized with the northern winter solstice, the terran computational calendar began roughly* 10 days before the UNIX Epoch. Each year is composed of 13 identical 28-day months, followed by a 'minimonth' that houses leap days (one most years and two every 4th but not 128th year) and leap seconds (issued by the IERS during that year). Each date is an unambiguous instant in time that exploits zero-based numbering and a handful of delimiters to represent the number of years and constant length months, days, hours, minutes, and seconds that have elapsed since 0TC (the calendar's starting point). An optional 'year base' may be applied to ignore erratic leap duration. Arithmetic date adjusting 'datemods' can be applied to define things like weeks, quarters, and regional times." -
Introducing a Calendar System For the Information Age
First time accepted submitter chimeraha (3594169) writes "Synchronized with the northern winter solstice and the UNIX Epoch, the terran computational calendar contains 13 identical months of 28 days each in addition to a short Month Zero containing only new year's day and a single leap year day every four years (with the exception of every 128 years). The beginning of this zero-based numbering calendar, denoted as 0.0.0.0.0.0 TC, is on the solstice, exactly 10 days before the UNIX Epoch (effectively, December 22nd, 1969 00:00:00 UTC in the Gregorian Calendar). It's "terran" inception and unit durations reflect the human biological clock and align with astronomical cycles and epochs. Its "computational" notation, start date, and algorithm are tailored towards the mathematicians & scientists tasked with calendrical programming and precise time calculation.
There's a lot more information at terrancalendar.com including a date conversion form and a handfull of code-snipits & apps for implementing the terran computational calendar." -
Introducing a Calendar System For the Information Age
First time accepted submitter chimeraha (3594169) writes "Synchronized with the northern winter solstice and the UNIX Epoch, the terran computational calendar contains 13 identical months of 28 days each in addition to a short Month Zero containing only new year's day and a single leap year day every four years (with the exception of every 128 years). The beginning of this zero-based numbering calendar, denoted as 0.0.0.0.0.0 TC, is on the solstice, exactly 10 days before the UNIX Epoch (effectively, December 22nd, 1969 00:00:00 UTC in the Gregorian Calendar). It's "terran" inception and unit durations reflect the human biological clock and align with astronomical cycles and epochs. Its "computational" notation, start date, and algorithm are tailored towards the mathematicians & scientists tasked with calendrical programming and precise time calculation.
There's a lot more information at terrancalendar.com including a date conversion form and a handfull of code-snipits & apps for implementing the terran computational calendar." -
Introducing a Calendar System For the Information Age
First time accepted submitter chimeraha (3594169) writes "Synchronized with the northern winter solstice and the UNIX Epoch, the terran computational calendar contains 13 identical months of 28 days each in addition to a short Month Zero containing only new year's day and a single leap year day every four years (with the exception of every 128 years). The beginning of this zero-based numbering calendar, denoted as 0.0.0.0.0.0 TC, is on the solstice, exactly 10 days before the UNIX Epoch (effectively, December 22nd, 1969 00:00:00 UTC in the Gregorian Calendar). It's "terran" inception and unit durations reflect the human biological clock and align with astronomical cycles and epochs. Its "computational" notation, start date, and algorithm are tailored towards the mathematicians & scientists tasked with calendrical programming and precise time calculation.
There's a lot more information at terrancalendar.com including a date conversion form and a handfull of code-snipits & apps for implementing the terran computational calendar." -
Introducing a Calendar System For the Information Age
First time accepted submitter chimeraha (3594169) writes "Synchronized with the northern winter solstice and the UNIX Epoch, the terran computational calendar contains 13 identical months of 28 days each in addition to a short Month Zero containing only new year's day and a single leap year day every four years (with the exception of every 128 years). The beginning of this zero-based numbering calendar, denoted as 0.0.0.0.0.0 TC, is on the solstice, exactly 10 days before the UNIX Epoch (effectively, December 22nd, 1969 00:00:00 UTC in the Gregorian Calendar). It's "terran" inception and unit durations reflect the human biological clock and align with astronomical cycles and epochs. Its "computational" notation, start date, and algorithm are tailored towards the mathematicians & scientists tasked with calendrical programming and precise time calculation.
There's a lot more information at terrancalendar.com including a date conversion form and a handfull of code-snipits & apps for implementing the terran computational calendar." -
Introducing a Calendar System For the Information Age
First time accepted submitter chimeraha (3594169) writes "Synchronized with the northern winter solstice and the UNIX Epoch, the terran computational calendar contains 13 identical months of 28 days each in addition to a short Month Zero containing only new year's day and a single leap year day every four years (with the exception of every 128 years). The beginning of this zero-based numbering calendar, denoted as 0.0.0.0.0.0 TC, is on the solstice, exactly 10 days before the UNIX Epoch (effectively, December 22nd, 1969 00:00:00 UTC in the Gregorian Calendar). It's "terran" inception and unit durations reflect the human biological clock and align with astronomical cycles and epochs. Its "computational" notation, start date, and algorithm are tailored towards the mathematicians & scientists tasked with calendrical programming and precise time calculation.
There's a lot more information at terrancalendar.com including a date conversion form and a handfull of code-snipits & apps for implementing the terran computational calendar."