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Educator's Guide: Orion
Legends of the Night Sky Orion Educator’s Guide Grades K - 8 Written By: Dr. Phil Wymer, Ph.D. & Art Klinger Legends of the Night Sky: Orion Educator’s Guide Table of Contents Introduction………………………………………………………………....3 Constellations; General Overview……………………………………..4 Orion…………………………………………………………………………..22 Scorpius……………………………………………………………………….36 Canis Major…………………………………………………………………..45 Canis Minor…………………………………………………………………..52 Lesson Plans………………………………………………………………….56 Coloring Book…………………………………………………………………….….57 Hand Angles……………………………………………………………………….…64 Constellation Research..…………………………………………………….……71 When and Where to View Orion…………………………………….……..…77 Angles For Locating Orion..…………………………………………...……….78 Overhead Projector Punch Out of Orion……………………………………82 Where on Earth is: Thrace, Lemnos, and Crete?.............................83 Appendix………………………………………………………………………86 Copyright©2003, Audio Visual Imagineering, Inc. 2 Legends of the Night Sky: Orion Educator’s Guide Introduction It is our belief that “Legends of the Night sky: Orion” is the best multi-grade (K – 8), multi-disciplinary education package on the market today. It consists of a humorous 24-minute show and educator’s package. The Orion Educator’s Guide is designed for Planetarians, Teachers, and parents. The information is researched, organized, and laid out so that the educator need not spend hours coming up with lesson plans or labs. This has already been accomplished by certified educators. The guide is written to alleviate the fear of space and the night sky (that many elementary and middle school teachers have) when it comes to that section of the science lesson plan. It is an excellent tool that allows the parents to be a part of the learning experience. The guide is devised in such a way that there are plenty of visuals to assist the educator and student in finding the Winter constellations. -
Design Radiator Catalogue
January 2019 Offers Beauty And Functionality Design Stay Classy Radiator Be Extraordinary Catalogue MORE THAN A RADIATOR AESTHETICALLY STRONG DIFFERENT IN STYLE 2 warmhaus.co.uk Contents Chrome Radiators p. 5 White & Anthracite Radiators p. 29 Multi Column Radiators p. 55 Myth Atmosphere Moonlight - Arcadia - Andromeda - Artemis - Atlantis - Aquila - Celine - Camelot - Carina - Luna - Nysa - Draco - Mika - Dinas - Circinus - Selena - Lyonesse - Columba - Shiva - Meropis - Crux - Chandra - Brittia - Hercules - Hawaiki - Mensa Traditional Radiators p. 65 - Oasis - Orion Heritage - Phoenix Stainless Steel Radiators p. 19 - Pyxis - Aztec Impulse - Vela - Inca - Tucana - Roma - Storm - Aquarius - Maya - Hurricane - Aries - Lydia - Thunder - Lyra - Kush - Swirl - Dorado - Tuwana - Flash - Gemini - Aksum - Whirlwind - Leo - Hittite - Tornado - Hydra - Pisces - Pictor - Scorpius - Taurus - Virgo - Cepheus warmhaus.co.uk 3 CHROME RADIATORS 4 warmhaus.co.uk Myth Warmhaus Myth Series offers you the opportunity to live with legends of the past. warmhaus.co.uk 5 CHROME RADIATORS 6 warmhaus.co.uk MYTH ARCADIA Product Code C5 Profile: Square Bar: Square PRODUCT HEIGHT WIDTH C/C W/C PRODUCT BTU/DT60 WATT CODE (mm) (mm) (mm) (mm) Arcadia C5 600 300 260 55~70 675 198 Arcadia C5 600 400 360 55~70 829 243 Arcadia C5 600 500 460 55~70 982 288 Arcadia C5 600 600 560 55~70 1136 333 Arcadia C5 800 300 260 55~70 939 275 Arcadia C5 800 400 360 55~70 1162 341 Arcadia C5 800 500 460 55~70 1383 406 Arcadia C5 800 600 560 55~70 1607 471 Arcadia C5 1000 300 260 55~70 -
The Argo Navis Constellation
THE ARGO NAVIS CONSTELLATION At the last meeting we talked about the constellation around the South Pole, and how in the olden days there used to be a large ship there that has since been subdivided into the current constellations. I could not then recall the names of the constellations, but remembered that we talked about this subject at one of the early meetings, and now found it in September 2011. In line with my often stated definition of Astronomy, and how it seems to include virtually all the other Philosophy subjects: History, Science, Physics, Biology, Language, Cosmology and Mythology, lets go to mythology and re- tell the story behind the Argo Constellation. Argo Navis (or simply Argo) used to be a very large constellation in the southern sky. It represented the ship The Argo Navis ship with the Argonauts on board used by the Argonauts in Greek mythology who, in the years before the Trojan War, accompanied Jason to Colchis (modern day Georgia) in his quest to find the Golden Fleece. The ship was named after its builder, Argus. Argo is the only one of the 48 constellations listed by the 2nd century astronomer Ptolemy that is no longer officially recognised as a constellation. In 1752, the French astronomer Nicolas Louis de Lacaille subdivided it into Carina (the keel, or the hull, of the ship), Puppis (the poop deck), and Vela (the sails). The constellation Pyxis (the mariner's compass) occupies an area which in antiquity was considered part of Argo's mast (called Malus). The story goes that, when Jason was 20 years old, an oracle ordered him to head to the Iolcan court (modern city of Volos) where king Pelias was presiding over a sacrifice to Poseidon with several neighbouring kings in attendance. -
These Sky Maps Were Made Using the Freeware UNIX Program "Starchart", from Alan Paeth and Craig Counterman, with Some Postprocessing by Stuart Levy
These sky maps were made using the freeware UNIX program "starchart", from Alan Paeth and Craig Counterman, with some postprocessing by Stuart Levy. You’re free to use them however you wish. There are five equatorial maps: three covering the equatorial strip from declination −60 to +60 degrees, corresponding roughly to the evening sky in northern winter (eq1), spring (eq2), and summer/autumn (eq3), plus maps covering the north and south polar areas to declination about +/− 25 degrees. Grid lines are drawn at every 15 degrees of declination, and every hour (= 15 degrees at the equator) of right ascension. The equatorial−strip maps use a simple rectangular projection; this shows constellations near the equator with their true shape, but those at declination +/− 30 degrees are stretched horizontally by about 15%, and those at the extreme 60−degree edge are plotted twice as wide as you’ll see them on the sky. The sinusoidal curve spanning the equatorial strip is, of course, the Ecliptic −− the path of the Sun (and approximately that of the planets) through the sky. The polar maps are plotted with stereographic projection. This preserves shapes of small constellations, but enlarges them as they get farther from the pole; at declination 45 degrees they’re about 17% oversized, and at the extreme 25−degree edge about 40% too large. These charts plot stars down to magnitude 5, along with a few of the brighter deep−sky objects −− mostly star clusters and nebulae. Many stars are labelled with their Bayer Greek−letter names. Also here are similarly−plotted maps, based on galactic coordinates. -
A Compendium of Distances to Molecular Clouds in the Star Formation Handbook?,?? Catherine Zucker1, Joshua S
A&A 633, A51 (2020) Astronomy https://doi.org/10.1051/0004-6361/201936145 & c ESO 2020 Astrophysics A compendium of distances to molecular clouds in the Star Formation Handbook?,?? Catherine Zucker1, Joshua S. Speagle1, Edward F. Schlafly2, Gregory M. Green3, Douglas P. Finkbeiner1, Alyssa Goodman1,5, and João Alves4,5 1 Center for Astrophysics | Harvard & Smithsonian, 60 Garden St., Cambridge, MA 02138, USA e-mail: [email protected], [email protected] 2 Lawrence Berkeley National Laboratory, One Cyclotron Road, Berkeley, CA 94720, USA 3 Kavli Institute for Particle Astrophysics and Cosmology, Physics and Astrophysics Building, 452 Lomita Mall, Stanford, CA 94305, USA 4 University of Vienna, Department of Astrophysics, Türkenschanzstraße 17, 1180 Vienna, Austria 5 Radcliffe Institute for Advanced Study, Harvard University, 10 Garden St, Cambridge, MA 02138, USA Received 21 June 2019 / Accepted 12 August 2019 ABSTRACT Accurate distances to local molecular clouds are critical for understanding the star and planet formation process, yet distance mea- surements are often obtained inhomogeneously on a cloud-by-cloud basis. We have recently developed a method that combines stellar photometric data with Gaia DR2 parallax measurements in a Bayesian framework to infer the distances of nearby dust clouds to a typical accuracy of ∼5%. After refining the technique to target lower latitudes and incorporating deep optical data from DECam in the southern Galactic plane, we have derived a catalog of distances to molecular clouds in Reipurth (2008, Star Formation Handbook, Vols. I and II) which contains a large fraction of the molecular material in the solar neighborhood. Comparison with distances derived from maser parallax measurements towards the same clouds shows our method produces consistent distances with .10% scatter for clouds across our entire distance spectrum (150 pc−2.5 kpc). -
Space Based Astronomy Educator Guide
* Space Based Atronomy.b/w 2/28/01 8:53 AM Page C1 Educational Product National Aeronautics Educators Grades 5–8 and Space Administration EG-2001-01-122-HQ Space-Based ANAstronomy EDUCATOR GUIDE WITH ACTIVITIES FOR SCIENCE, MATHEMATICS, AND TECHNOLOGY EDUCATION * Space Based Atronomy.b/w 2/28/01 8:54 AM Page C2 Space-Based Astronomy—An Educator Guide with Activities for Science, Mathematics, and Technology Education is available in electronic format through NASA Spacelink—one of the Agency’s electronic resources specifically developed for use by the educa- tional community. The system may be accessed at the following address: http://spacelink.nasa.gov * Space Based Atronomy.b/w 2/28/01 8:54 AM Page i Space-Based ANAstronomy EDUCATOR GUIDE WITH ACTIVITIES FOR SCIENCE, MATHEMATICS, AND TECHNOLOGY EDUCATION NATIONAL AERONAUTICS AND SPACE ADMINISTRATION | OFFICE OF HUMAN RESOURCES AND EDUCATION | EDUCATION DIVISION | OFFICE OF SPACE SCIENCE This publication is in the Public Domain and is not protected by copyright. Permission is not required for duplication. EG-2001-01-122-HQ * Space Based Atronomy.b/w 2/28/01 8:54 AM Page ii About the Cover Images 1. 2. 3. 4. 5. 6. 1. EIT 304Å image captures a sweeping prominence—huge clouds of relatively cool dense plasma suspended in the Sun’s hot, thin corona. At times, they can erupt, escaping the Sun’s atmosphere. Emission in this spectral line shows the upper chro- mosphere at a temperature of about 60,000 degrees K. Source/Credits: Solar & Heliospheric Observatory (SOHO). SOHO is a project of international cooperation between ESA and NASA. -
Supernova Star Maps
Supernova Star Maps Which Stars in the Night Sky Will Go Su pernova? About the Activity Allow visitors to experience finding stars in the night sky that will eventually go supernova. Topics Covered Observation of stars that will one day go supernova Materials Needed • Copies of this month's Star Map for your visitors- print the Supernova Information Sheet on the back. • (Optional) Telescopes A S A Participants N t i d Activities are appropriate for families Cre with children over the age of 9, the general public, and school groups ages 9 and up. Any number of visitors may participate. Location and Timing This activity is perfect for a star party outdoors and can take a few minutes, up to 20 minutes, depending on the Included in This Packet Page length of the discussion about the Detailed Activity Description 2 questions on the Supernova Helpful Hints 5 Information Sheet. Discussion can start Supernova Information Sheet 6 while it is still light. Star Maps handouts 7 Background Information There is an Excel spreadsheet on the Supernova Star Maps Resource Page that lists all these stars with all their particulars. Search for Supernova Star Maps here: http://nightsky.jpl.nasa.gov/download-search.cfm © 2008 Astronomical Society of the Pacific www.astrosociety.org Copies for educational purposes are permitted. Additional astronomy activities can be found here: http://nightsky.jpl.nasa.gov Star Maps: Stars likely to go Supernova! Leader’s Role Participants’ Role (Anticipated) Materials: Star Map with Supernova Information sheet on back Objective: Allow visitors to experience finding stars in the night sky that will eventually go supernova. -
Seadrill Limited
Q1 2020 FLEET STATUS REPORT Seadrill Limited GENERATION / WATER DRILLING RIG NAME BUILT LOCATION CLIENT START EXPIRE DAYRATE US$ COMMENTS TYPE DEPTH (FEET) DEPTH (FEET) Semi-submersibles West Alpha 4th-HE 1986 2,000 23,000 Norway - - - - West Venture 5th-HE 2000 2,600 30,000 Norway - - - - A notice of intent to terminate for convenience has been received from the customer. Norway Neptune Apr-20 Jul-20 267,000 Neptune has indicated that operations are expected to conclude in July-20. Seadrill is entitled to an early termination fee under the contract. West Phoenix 6th-HE 2008 10,000 30,000 Norway Vår Energi Jul-21 Oct-23 359,000 Dayrate partly received in foreign currency. Fluctuations in exchange rates may result in an adjustment to the dayrate. Options Vår Energi Oct-23 Feb-24 359,000 Mobilization fee incremental to dayrate. Dayrate partly received in foreign currency. Fluctuations in exchange rates may result in Norway Equinor May-20 Nov-20 342,500 an adjustment to the dayrate. West Hercules 6th-HE 2008 10,000 35,000 UK Equinor Nov-20 Dec-20 315,000 Norway Equinor Dec-20 Mar-21 275,000 Dayrate partly received in foreign currency. Fluctuations in exchange rates may result in Options Equinor Mar-21 Jun-22 Market indexed rate an adjustment to the dayrate. West Eminence 6th-HE 2009 10,000 30,000 Spain - - - - West Pegasus 6th-HE 2011 10,000 35,000 Norway - - - - West Taurus 6th-BE 2008 10,000 35,000 Norway - - - - Sevan Driller 6th-BE 2009 10,000 40,000 Indonesia - - - - West Orion 6th-BE 2010 10,000 35,000 Malaysia - - - - West Eclipse 6th-BE 2011 10,000 40,000 Namibia - - - - Sevan Brasil 6th-BE 2012 10,000 40,000 Aruba - - - - Sevan Louisiana 6th-BE 2013 10,000 40,000 GoM Walter O&G Mar-20 Jun-20 145,500 Performance bonus incremental to dayrate. -
81 Southern Objects for a 10” Telescope. 0-4Hr 4-8Hr 8-12Hr
81 southern objects for a 10” telescope. 0-4hr NGC55|00h 15m 22s|-39 11’ 35”|33’x 5.6’|Sculptor|Galaxy| NGC104|00h 24m 17s|-72 03’ 30”|31’|Tucana|Globular NGC134|00h 30m 35s|-33 13’ 00”|8.5’x2’|Sculptor|Galaxy| ESO350-40|00h 37m 55s|-33 41’ 20”|1.5’x1.2’|Sculptor|Galaxy|The Cartwheel NGC300|00h 55m 06s|-37 39’ 24”|22’x15.5’|Sculptor|Galaxy| NGC330|00h 56m 27s|-72 26’ 37”|Tucana|1.9’|SMC open cluster| NGC346|00h 59m 14s|-72 09’ 19”|Tucana|5.2’|SMC Neb| ESO351-30|01h 00m 22s|-33 40’ 50”|60’x56’|Sculptor|Galaxy|Sculptor Dwarf NGC362|01h 03m 23s|-70 49’ 42”|13’|Tucana|Globular| NGC2573| 01h 37m 21s|-89 25’ 49”|Octans| 2.0x 0.8|galaxy|polarissima australis| NGC1049|02h 39m 58s|-34 13’ 52”|24”|Fornax|Globular| ESO356-04|02h 40m 09s|-34 25’ 43”|60’x100’|Fornax|Galaxy|Fornax Dwarf NGC1313|03h 18m 18s|-66 29’ 02”|9.1’x6.3’|Reticulum|Galaxy| NGC1316|03h 22m 51s|-37 11’ 22”|12’x8.5’|Fornax|Galaxy| NGC1365|03h 33m 46s|-36 07’ 13”|11.2’x6.2’|Fornax|Galaxy NGC1433|03h 42m 08s|-47 12’ 18”|6.5’x5.9’|Horologium|Galaxy| 4-8hr NGC1566|04h 20m 05s|-54 55’ 42”|Dorado|Galaxy| Reticulum Dwarf|04h 31m 05s|-58 58’ 00”|Reticulum|LMC globular| NGC1808|05h 07m 52s|-37 30’ 20”|6.4’x3.9’|Columba|Galaxy| Kapteyns Star|05h 11m 35s|-45 00’ 16”|Stellar|Pictor|Nearby star| NGC1851|05h 14m 15s|-40 02’ 30”|11’|Columba|Globular| NGC1962group|05h 26m 17s|-68 50’ 28”|?| Dorado|LMC neb/cluster NGC1968group|05h 27m 22s|-67 27’ 36”|12’ for group|Dorado| LMC Neb/cluster| NGC2070|05h 38m 37s|-69 05’ 52”|11’|Dorado|LMC Neb|Tarantula| NGC2442|07h 36m 24s|-69 32’ 38”|5.5’x4.9’|Volans|Galaxy|The meat hook| NGC2439|07h 40m 59s|-31 38’36”|10’|Puppis|Open Cluster| NGC2451|07h 45m 35s|-37 57’ 27”|45’|Puppis|Open Cluster| IC2220|07h 56m 57s|-59 06’ 00”|6’x4’|Carina|Nebula|Toby Jug| NGC2516|07h 58m 29s|-60 51’ 46”|29’|Carina|Open Cluster 8-12hr NGC2547|08h 10m 50s|-49 15’ 39”|20’|Vela|Open Cluster| NGC2736|09h 00m 27s|-45 57’ 49”|30’x7’|Vela|SNR|The Pencil| NGC2808|09h 12m 08s|-64 52’ 48”|12’|Carina|Globular| NGC2818|09h 16m 11s|-36 35’ 59”|9’|Pyxis|Open Cluster with planetary. -
Xiithgeneral Asseltibly Hamburg, Germany
XIIthGeneral AsselTIbly Hamburg, Germany 1964 XIIe Assemblée Générale Hambourg, Allemagne 1964 RESOLUTIONS ADOPTED BY THE GENERAL ASSEMBLy SUMMARY OF DECISIONS C9NTAIl''iED IN THE REPORT OF THE GENERAL ASSEMBLY 1. Statutes and By-laws. The revised texts of the Statutes and By-laws, as indicated on page 37, will be printed in Volume XIIC of the Transactions. 2. Commissions. The following decisions were taken (see page 43). (a) To create a new Commission no. 45: Spectral Classifications and Multi-band Colour Indices. (h) To create a new Commission no. 46: The Teaching of Astronomy. (c) To re-name Commission no. 17: The Moon (d) To re-name Commission no. 19: The Rotation of the Earth (e) To re-name Commission no. 30: Radial Velocities 3. Resolutions proposed by Commissions. Sorne Commissions submitted resolutions, either of a financial or general character. The financial resolutions have been included in the Budget when it was considered possible to make the appropriate provision; in accepting the Budget as proposed by the Finance Committee (see page 39), the General Assembly accepted these financial resolutions; they are not reproduced here. Furthermore, the Resolutions Committee recommended 'that certain resolutions were of sufficiently general importance to be considered .by the General Assembly; these are included in the following resolutions. Finally, the other resolutions adopted by the Commissions were given a general endorsement by Resolution no. 8, given below. These resolutions have not been reproduced separately here, but will be found in the reports of the meetings of Commissions in Part 3. RESOLUTIONS ADOPTEES PAR L'ASSEMBLEE GENERALE SOMMAIRE DES DÉCISIONS CONTENUES DANS LE RAPPORT DE L'ASSEMBLÉE GÉNÉRALE 1. -
THE SKY TONIGHT Constellation Is Said to Represent Ganymede, the Handsome Prince of Capricornus Troy
- October Oketopa HIGHLIGHTS Aquarius and Aquila In Greek mythology, the Aquarius THE SKY TONIGHT constellation is said to represent Ganymede, the handsome prince of Capricornus Troy. His good looks attracted the attention of Zeus, who sent the eagle The Greeks associated Capricornus Aquila to kidnap him and carry him with Aegipan, who was one of the to Olympus to serve as a cupbearer Panes - a group of half-goat men to the gods. Because of this story, who often had goat legs and horns. Ganymede was sometimes seen as the god of homosexual relations. He Aegipan assumed the form of a fish- also gives his name to one of the tailed goat and fled into the ocean moons of Jupiter, which are named to flee the great monster Typhon. after the lovers of Zeus. Later, he aided Zeus in defeating Typhon and was rewarded by being To locate Aquarius, first find Altair, placed in the stars. the brightest star in the Aquila constellation. Altair is one of the To find Capricornus (highlighted in closest stars to Earth that can be seen orange on the star chart), first locate with the naked eye, at a distance the Aquarius constellation, then of 17 light years. From Altair, scan look to the south-west along the east-south-east to find Aquarius ecliptic line (the dotted line on the (highlighted in yellow on the star chart). star chart). What’s On in October? October shows at Perpetual Guardian Planetarium, book at Museum Shop or online. See website for show times and - details: otagomuseum.nz October Oketopa SKY GUIDE Capturing the Cosmos Planetarium show. -
THE SKY TONIGHT Romans About Two Thousand Years Ago
- Southern Birds JULY HuRAE SKY GUIDE Most constellations visible in the northern sky in Dunedin were named by the Greeks and THE SKY TONIGHT Romans about two thousand years ago. These constellations are predominantly tied to myths and legends that explained how the stars were Moon Landing Anniversary put in the sky. The constellations in the southern The 20th of July this year marks fifty years sky, however, are not visible in the northern since humans first walked on the moon. hemisphere and so were not seen by Europeans The Apollo 11 mission was manned by three until the 15th and 16th centuries. These astronauts: Neil Armstrong, Buzz Aldrin, and constellations were given more practical names Michael Collins. They flew for four days after related to the journeys of the explorers, rather launch before reaching the moon’s orbit. than being based on any mythological stories. Neil Armstrong and Buzz Aldrin piloted the lunar module to the surface of the moon and In the late 1500s, the Dutch embarked on many collected 47.5kg of lunar material before trade voyages around Africa and the East Indies. returning to the command module and Navigation on these trips proved to be quite heading home. What’s truly amazing is that this difficult, as there were no accurate maps of the was accomplished with a computer the size of southern skies. Petrus Plancius was a mapmaker a car, with less processing power than today’s who commissioned a pilot, Pieter Keyser, to pocket calculators. record the position of the stars in the southern skies.