The Ottoman Fiscal Calendar
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CALENDAR of ARTICLES by EFFECTIVE DATES As of March 27, 2019
CALENDAR OF ARTICLES by EFFECTIVE DATES As of March 27, 2019 Introduction This document organizes MLN Matters® Article by effective date with descriptive information. The calendar represents 12 months (rolling months) of articles that have been posted. It can be used to review upcoming Medicare changes. Since many of the articles are posted and Change Requests (CRs) released months before the effective dates, the calendar can serve as a reminder of pending Medicare changes. Tips on Using the Calendar Review the calendar for upcoming Medicare changes to anticipate where errors may be introduced due to billing changes. Review the calendar for upcoming Medicare changes to assist in anticipating where complex changes may increase the number of calls to Call Centers. This could be due to effective dates of complicated regulation changes that are scheduled. Review the calendar to ensure staff and provider partners (if appropriate) are prepared for the upcoming change (for example, ICD-10). The calendar is updated weekly to reflect the posted MLN articles and CRs. March 2018 CALENDAR OF MEDICARE PROCESSING and BILLING CHANGES Effective Date Article Article Title Providers Affected Description Number 3/16/2018 MM10878 National Coverage Physicians, providers, Informs, effective 3/16/2018, Determination and suppliers billing CMS covers diagnostic (NCD90.2): Next MACs for services laboratory tests using next Generation provided to Medicare generation sequencing when Sequencing (NGS) beneficiaries performed in a CLIA-certified laboratory when -
Name: Teacher
Name: Teacher: Key Words There are many key words in History!! In the word search below are some of the ore common words. Try to find them, then see which words you can define (you can us a dictionary or the internet to help you). H A P P E N C W V C S M Q B I Y I J Y R O T S I H W Y M S Y K O V Q D T D N D E N E T I M E L I N E B A A B F U O L W C E G F V T R X Y N R R E M Y O R C E T Z T W E K I N P L A C E Y H H Q T U Y A H L U V Y U Y X E Y J S G N K E G U I T C L K T U O J N I F H O R V P M H I B T Y O E N C H R O N O L O G Y P W B Q E U E V D O E O H O S F W D I P C S P W P B M A W HISTORIAN ________________________________________________________ PAST______________________________________________________________ TIMELINE__________________________________________________________ EVENT_____________________________________________________________ YEAR______________________________________________________________ DATE______________________________________________________________ MONTH____________________________________________________________ AGO_______________________________________________________________ CHRONOLOGY_______________________________________________________ HISTORY___________________________________________________________ PLACE______________________________________________________________ HAPPEN____________________________________________________________ How is time divided up? Put the following words in order, from the shortest to the longest. Century Hour Second Decade Year Week Month Millennium Day Minute Draw a line to match the words below to their definition: Decade 100 years Century 1000 years Week 10 Years Millennium 365 days Year 7 Days Why do you think that knowing this is important for history? __________________________________________________________ __________________________________________________________ What are BC, BCE, AD and CE? Historians often talk about years as being BC or BCE and AD or CE. -
A Few Common Misconceptions in Historical Astronomy by Barry D
A Few Common Misconceptions in Historical Astronomy By Barry D. Malpas – Special to the Williams-Grand Canyon News – 2014 September Did Galileo Invent the Telescope? Credit for the invention of the telescope is given to the Dutch lens maker Johann Lippershey (ca. 1570- 1619) in the year 1608, who tried to market them as military devices to the Dutch Government. Galileo, hearing about the invention through his correspondences with other scientists in Europe, built his first telescope in one evening, during the fall of 1609. Galileo too recognized the military significance of the telescope, but he also compre- hended its scientific importance, applying it to the Moon and planets, hence expanding humankind's understanding of the Universe. This use advanced astronomy as a modern science and provided its most important research instrument. Has Polaris Always Been the North Star? As the Earth spins on its axis like a giant top, it also slowly wobbles like one, completing one cycle in a period of about 26,000 years. This circular wobble is known as Precession, and is the movement of the direction in the sky to where the Earth’s axis points. At present, it points very close to the star Polaris. However, 5,000 years ago when Stonehenge in England and the Great Pyramid at Giza, Egypt, were being constructed, the Earth’s north polar axis pointed to Thuban, a star in the constellation Draco. About 12,000 years from now the axis will circle its way around towards the bright star Vega, in the constellation Lyra. (Note both Thuban and Vega on the sky chart.) Was the Earth Considered Flat When Columbus Discovered the New World? This misconception was generally true for the unschooled masses, but not so for anyone who had received an education. -
Thomson Reuters Spreadsheet Link User Guide
THOMSON REUTERS SPREADSHEET LINK USER GUIDE MN-212 Date of issue: 13 July 2011 Legal Information © Thomson Reuters 2011. All Rights Reserved. Thomson Reuters disclaims any and all liability arising from the use of this document and does not guarantee that any information contained herein is accurate or complete. This document contains information proprietary to Thomson Reuters and may not be reproduced, transmitted, or distributed in whole or part without the express written permission of Thomson Reuters. Contents Contents About this Document ...................................................................................................................................... 1 Intended Readership ................................................................................................................................. 1 In this Document........................................................................................................................................ 1 Feedback ................................................................................................................................................... 1 Chapter 1 Thomson Reuters Spreadsheet Link .......................................................................................... 2 Chapter 2 Template Library ........................................................................................................................ 3 View Templates (Template Library) .............................................................................................................................................. -
The Mathematics of the Chinese, Indian, Islamic and Gregorian Calendars
Heavenly Mathematics: The Mathematics of the Chinese, Indian, Islamic and Gregorian Calendars Helmer Aslaksen Department of Mathematics National University of Singapore [email protected] www.math.nus.edu.sg/aslaksen/ www.chinesecalendar.net 1 Public Holidays There are 11 public holidays in Singapore. Three of them are secular. 1. New Year’s Day 2. Labour Day 3. National Day The remaining eight cultural, racial or reli- gious holidays consist of two Chinese, two Muslim, two Indian and two Christian. 2 Cultural, Racial or Religious Holidays 1. Chinese New Year and day after 2. Good Friday 3. Vesak Day 4. Deepavali 5. Christmas Day 6. Hari Raya Puasa 7. Hari Raya Haji Listed in order, except for the Muslim hol- idays, which can occur anytime during the year. Christmas Day falls on a fixed date, but all the others move. 3 A Quick Course in Astronomy The Earth revolves counterclockwise around the Sun in an elliptical orbit. The Earth ro- tates counterclockwise around an axis that is tilted 23.5 degrees. March equinox June December solstice solstice September equinox E E N S N S W W June equi Dec June equi Dec sol sol sol sol Beijing Singapore In the northern hemisphere, the day will be longest at the June solstice and shortest at the December solstice. At the two equinoxes day and night will be equally long. The equi- noxes and solstices are called the seasonal markers. 4 The Year The tropical year (or solar year) is the time from one March equinox to the next. The mean value is 365.2422 days. -
Ocean Data Standards
Manuals and Guides 54 Ocean Data Standards Volume 2 Recommendation to Adopt ISO 8601:2004 as the Standard for the Representation of Date and Time in Oceanographic Data Exchange UNESCO Manuals and Guides 54 Ocean Data Standards Volume 2 Recommendation to Adopt ISO 8601:2004 as the Standard for the Representation of Date and Time in Oceanographic Data Exchange UNESCO 2011 IOC Manuals and Guides, 54, Volume 2 Version 1 January 2011 For bibliographic purposes this document should be cited as follows: Paris. Intergovernmental Oceanographic Commission of UNESCO. 2011.Ocean Data Standards, Vol.2: Recommendation to adopt ISO 8601:2004 as the standard for the representation of dates and times in oceanographic data exchange.(IOC Manuals and Guides, 54, Vol. 2.) 17 pp. (English.)(IOC/2011/MG/54-2) © UNESCO 2011 Printed in France IOC Manuals and Guides No. 54 (2) Page (i) TABLE OF CONTENTS page 1. BACKGROUND ......................................................................................................................... 1 2. DATE AND TIME FOR DATA EXCHANGE ......................................................................... 1 3. INTERNATIONAL STANDARD ISO 8601:2004 .............................................................. 1 4. DATE AND TIME REPRESENTATION................................................................................ 2 4.1 Date ................................................................................................................................................. 2 4.2 Time ............................................................................................................................................... -
Islamic Calendar from Wikipedia, the Free Encyclopedia
Islamic calendar From Wikipedia, the free encyclopedia -at اﻟﺘﻘﻮﻳﻢ اﻟﻬﺠﺮي :The Islamic, Muslim, or Hijri calendar (Arabic taqwīm al-hijrī) is a lunar calendar consisting of 12 months in a year of 354 or 355 days. It is used (often alongside the Gregorian calendar) to date events in many Muslim countries. It is also used by Muslims to determine the proper days of Islamic holidays and rituals, such as the annual period of fasting and the proper time for the pilgrimage to Mecca. The Islamic calendar employs the Hijri era whose epoch was Islamic Calendar stamp issued at King retrospectively established as the Islamic New Year of AD 622. During Khaled airport (10 Rajab 1428 / 24 July that year, Muhammad and his followers migrated from Mecca to 2007) Yathrib (now Medina) and established the first Muslim community (ummah), an event commemorated as the Hijra. In the West, dates in this era are usually denoted AH (Latin: Anno Hegirae, "in the year of the Hijra") in parallel with the Christian (AD) and Jewish eras (AM). In Muslim countries, it is also sometimes denoted as H[1] from its Arabic form ( [In English, years prior to the Hijra are reckoned as BH ("Before the Hijra").[2 .(ﻫـ abbreviated , َﺳﻨﺔ ﻫِ ْﺠﺮﻳّﺔ The current Islamic year is 1438 AH. In the Gregorian calendar, 1438 AH runs from approximately 3 October 2016 to 21 September 2017.[3] Contents 1 Months 1.1 Length of months 2 Days of the week 3 History 3.1 Pre-Islamic calendar 3.2 Prohibiting Nasī’ 4 Year numbering 5 Astronomical considerations 6 Theological considerations 7 Astronomical -
Superstition and Risk-Taking: Evidence from “Zodiac Year” Beliefs in China
Superstition and risk-taking: Evidence from “zodiac year” beliefs in China This version: February 28, 2020 Abstract We show that superstitions –beliefs without scientific grounding – have material conse- quences for Chinese individuals’ risk-taking behavior, using evidence from corporate and in- dividual decisions, exploiting widely held beliefs in bad luck during one’s “zodiac year.” We first provide evidence on individual risk-avoidance. We show that insurance purchases are 4.6 percent higher in a customer’s zodiac year, and using survey data we show that zodiac year respondents are 5 percent more likely to favor no-risk investments. Turning to corpo- rate decision-making, we find that R&D and corporate acquisitions decline substantially in a chairman’s zodiac year by 6 and 21 percent respectively. JEL classification: D14, D22, D91, G22, G41 Keywords: Risk aversion, Innovation, Insurance, Household Finance, Superstition, China, Zodiac Year 1 1 Introduction Many cultures have beliefs or practices – superstitions – that are held to affect outcomes in situations involving uncertainty. Despite having no scientific basis and no obvious function (beyond reducing the stresses of uncertainty), superstitions persist and are widespread in modern societies. It is clear that superstitions have at least superficial impact: for example, buildings often have no thirteenth floor, and airplanes have no thirteenth row, presumably because of Western superstitions surrounding the number 13. Whether these beliefs matter for outcomes with real stakes – and hence with implications for models of decision-making in substantively important economic settings – has only more recently been subject to rigorous empirical evaluation. In our paper we study risk-taking of individuals as a function of birth year, and risk-taking by firms as a function of the birth year of their chairmen. -
2020 Report of the 2019 Committee to Review the Academic Calendar
Report of the 2019 Committee to Review the Academic Calendar Executive Summary .................................................................................................................... 2 Introduction................................................................................................................................ 5 The Committee ................................................................................................................................... 5 The work of the Committee ................................................................................................................ 5 History of the academic calendar at UChicago .................................................................................... 7 The 2019 landscape ............................................................................................................................ 8 Table 1: Comparison of doctoral student populations, AY97 and AY18........................................................... 9 Table 2. Comparison of faculty at the ranks of Assistant, Associate, and Professor, AY97 and AY18 ................ 9 Stakeholders and Findings........................................................................................................ 10 Excursus 1. Student mental health ................................................................................................... 13 Excursus 2: Leaves-of-absence ......................................................................................................... -
Data-Model Comparisons of Tropical Hydroclimate Changes Over the Common Era
manuscript submitted to Paleoceanography and Paleoclimatology 1 Data-Model Comparisons of Tropical Hydroclimate Changes Over the Common Era 2 A. R. Atwood1*, D. S. Battisti2, E. Wu2, D. M. W. Frierson2, J. P. Sachs3 3 1Florida State University, Dept. of Earth Ocean and Atmospheric Science, Tallahassee, FL, USA 4 2University of Washington, Dept. of Atmospheric Sciences, Seattle, WA 98195, USA 5 3University of Washington, School of Oceanography, Seattle, WA 98195, USA 6 7 Corresponding author: Alyssa Atwood ([email protected]) 8 9 Key Points: 10 • A synthesis of 67 tropical hydroclimate records from 55 sites indicate several regionally- 11 coherent patterns of change during the Common Era 12 • Robust patterns include a regional drying event from 800-1000 CE and a range of tropical 13 hydroclimate changes ~1400-1700 CE 14 • Poor agreement between the centennial-scale changes in the reconstructions and transient 15 model simulations of the last millennium 16 manuscript submitted to Paleoceanography and Paleoclimatology 17 Abstract 18 We examine the evidence for large-scale tropical hydroclimate changes over the Common Era 19 based on a compilation of 67 tropical hydroclimate records from 55 sites and assess the 20 consistency between the reconstructed hydroclimate changes and those simulated by transient 21 model simulations of the last millennium. Our synthesis of the proxy records reveal several 22 regionally-coherent patterns on centennial timescales. From 800-1000 CE, records from the 23 eastern Pacific and northern Mesoamerica indicate a pronounced drying event relative to 24 background conditions of the Common Era. In addition, 1400-1700 CE is marked by pronounced 25 hydroclimate changes across the tropics, including an inferred strengthening of the South 26 American summer monsoon, weakened Asian summer monsoons, and fresher conditions in the 27 Maritime Continent. -
Geochronology Database for Central Colorado
Geochronology Database for Central Colorado Data Series 489 U.S. Department of the Interior U.S. Geological Survey Geochronology Database for Central Colorado By T.L. Klein, K.V. Evans, and E.H. DeWitt Data Series 489 U.S. Department of the Interior U.S. Geological Survey U.S. Department of the Interior KEN SALAZAR, Secretary U.S. Geological Survey Marcia K. McNutt, Director U.S. Geological Survey, Reston, Virginia: 2010 For more information on the USGS—the Federal source for science about the Earth, its natural and living resources, natural hazards, and the environment, visit http://www.usgs.gov or call 1-888-ASK-USGS For an overview of USGS information products, including maps, imagery, and publications, visit http://www.usgs.gov/pubprod To order this and other USGS information products, visit http://store.usgs.gov Any use of trade, product, or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. Although this report is in the public domain, permission must be secured from the individual copyright owners to reproduce any copyrighted materials contained within this report. Suggested citation: T.L. Klein, K.V. Evans, and E.H. DeWitt, 2009, Geochronology database for central Colorado: U.S. Geological Survey Data Series 489, 13 p. iii Contents Abstract ...........................................................................................................................................................1 Introduction.....................................................................................................................................................1 -
How Long Is a Year.Pdf
How Long Is A Year? Dr. Bryan Mendez Space Sciences Laboratory UC Berkeley Keeping Time The basic unit of time is a Day. Different starting points: • Sunrise, • Noon, • Sunset, • Midnight tied to the Sun’s motion. Universal Time uses midnight as the starting point of a day. Length: sunrise to sunrise, sunset to sunset? Day Noon to noon – The seasonal motion of the Sun changes its rise and set times, so sunrise to sunrise would be a variable measure. Noon to noon is far more constant. Noon: time of the Sun’s transit of the meridian Stellarium View and measure a day Day Aday is caused by Earth’s motion: spinning on an axis and orbiting around the Sun. Earth’s spin is very regular (daily variations on the order of a few milliseconds, due to internal rearrangement of Earth’s mass and external gravitational forces primarily from the Moon and Sun). Synodic Day Noon to noon = synodic or solar day (point 1 to 3). This is not the time for one complete spin of Earth (1 to 2). Because Earth also orbits at the same time as it is spinning, it takes a little extra time for the Sun to come back to noon after one complete spin. Because the orbit is elliptical, when Earth is closest to the Sun it is moving faster, and it takes longer to bring the Sun back around to noon. When Earth is farther it moves slower and it takes less time to rotate the Sun back to noon. Mean Solar Day is an average of the amount time it takes to go from noon to noon throughout an orbit = 24 Hours Real solar day varies by up to 30 seconds depending on the time of year.