Breakthrough Initiatives

Total Page:16

File Type:pdf, Size:1020Kb

Breakthrough Initiatives THE MAZE OF SPACE TO COME BREAKTHROUGH INITIATIVES JAMIE DREW, BREAKTHROUGH PRIZE FOUNDATION - [email protected] - Kerastari 20170529 FOUNDERS: Sergey Brin - Priscilla Chan – Jack Ma – Julia Milner – Yuri Milner - Anne Wojcicki - Cathy Zhang – Mark Zuckerberg. NOMINATIONS. LABYRINTH? SPACE EXPLORATION? 19571004 7 19610412 196907208 1610… 9 PHILANTHROPY & SPACE EXPLORATION. 2008 GDP Ratio Project Year Cost Equivalent Value University of North Carolina Observatory 1831 $6,4301 $89,000,000 Williams College Observatory 1836 $6,1002 $60,000,000 West Point Academy Observatory 1842 $5,0003 $45,000,000 U.S. Naval Observatory 1842 $25,0004 $225,000,000 Cincinnati Observatory 1843 $16,0005 $149,000,000 Harvard College Observatory 1843 $25,0006 $233,000,000 -Edward Phillips Endowment 1848 $100,0007 $601,000,000 Georgetown Observatory 1844 $18,0008 $154,000,000 Detroit Observatory 1852 $17,0009 $81,000,000 Shattuck Observatory 1852 $11,00010 $52,000,000 Hamilton College Observatory 1852 $15,00011 $71,000,000 Dudley Observatory 1852 $119,00012 $566,000,000 Dearborn Observatory 1865 $25,00013 $37,000,000 Transit of Venus Expedition 1872 $177,00014 $310,000,000 Lick Observatory 1876 $700,00015 $1,220,000,000 Warner Observatory 1880 $100,00016 $139,000,000 Transit of Venus Expedition 1882 $85,00017 $101,000,000 McCormick Observatory 1881 $135,00018 $168,000,000 Yerkes Observatory 1892 $500,00019 $441,000,000 Mt. Wilson Observatory 1910 $945,00020 $408,000,000 Mt. Palomar Observatory 1928 $6,550,00021 $972,000,000 McDonald Observatory 1939 $840,00022 $132,000,000 Space Exploration Projects in the 19th and early 20th Century (Source: MacDonald, A., The Remote Space Age: An Economic History of Space Exploration from Galileo to Gagarin forthcoming doctoral dissertation at the University of Oxford; conversions using GDP time series from Johnston, L.D., and Williamson, S.H., "The Annual Real and Nominal GDP for the United States, 1790 - Present" MeasuringWorth, 2008) Examining the equivalent GDP ratio value of early American observatories makes it clear that space exploration has been funded at economically significant levels for over 150 years. The table above provides the 2008 GDP ratio equivalent values for a number of American observatories and space exploration projects in the 19th and early 20th centuries. Projects at relative scales equivalent to $100 million to $1 billion were relatively common. It is worth emphasizing that the modern equivalent values calculated here should be taken only to indicate the order of magnitude of expenditure, given that other appropriate equivalent resource share values can be calculated; for example, rather than scaling the expenditure as a share of the total resources of the U.S. economy, the expenditure can be scaled as a share of the resources of the individuals who undertook the projects. James Lick was the richest man in California and the Lick Observatory expenditure represented 17.5% of his entire estate. The equivalent share of the wealth of the richest man in California today, Larry Ellison, is $3.9 billion dollars, approximately four times higher than the GDP equivalent share. LIFE IN THE UNIVERSE? Credit: Marc Imhoff of NASA GSFC and Christopher Elvidge of NOAA NGDC. Craig Mayhew and Robert Simmon, NASA GSFC. Credit: Apollo 8, William Andres, Dec 24, 1968 Credit: ESA / OSIRIS Rosetta NASA/JPL-Caltech/Space Science Institute NASA/JPL-Caltech/R. Hurt (SSC/Caltech) ? NASA/ESA Credit: NASA Credit: NASA 23 TECHNOLOGICAL LIFE? 25 26 27 © The Ohio State University Radio Observatory / NAAPO PRIMARY FOCUS Scientifically rigorous programme 1 Million nearby stars 100 Galaxies 1 Galactic Plane Open Data New Information Processing New Instrumentation ADVISORY COMMITTEE 25 João Alves Paul Horowitz Martin Rees (Chair) Mathew Bailes Andrew Howard Brian Schmidt Jim Cordes Nikolai Kardashev Sara Seager Paul Davies Joseph Lazio Seth Shostak Frank Drake Di Li Jill Tarter Ron Ekers Chris Lintott Lucianne Walkowicz Andrew Fraknoi Avi Loeb Jason Wright Mike Garrett Shin-ya Narusawa Shelley Wright John Gertz © NRAO 35 © CSIRO © Laurie Hatch CONFIDENTIAL – NOT FOR DISTRIBUTION CONFIDENTIAL – NOT FOR DISTRIBUTION CONFIDENTIAL – NOT FOR DISTRIBUTION CONFIDENTIALCONFIDENTIAL – NOT FOR – NOT DISTRIBUTION FOR DISTRIBUTION CONFIDENTIALCONFIDENTIAL – – NOT NOT FOR FOR DISTRIBUTION DISTRIBUTION CONFIDENTIAL – NOTCONFIDENTIAL FOR DISTRIBUTION – NOT FOR DISTRIBUTION CONFIDENTIALCONFIDENTIAL – NOT – NOT FOR FOR DISTRIBUTION PUBLISHED WORK CONFIDENTIAL – NOT FOR DISTRIBUTION PUBLISHED WORK REMOTE ANALYSIS GREENBANK TELESCOPE (GBT) REMOTEUC BERKELEY ANALYSIS GREENBANK TELESCOPE (GBT) UC BERKELEY ONLINE JANUARY 2016 ONLINE JANUARY 2016 observatory compute nodes raw data CONFIDENTIALCONFIDENTIAL – NOT – NOT FOR FOR DISTRIBUTION DISTRIBUTION PUBLISHEDPUBLISHED WORK WORK CONFIDENTIAL – NOT FOR DISTRIBUTION 40-320 Gbps onsite reduction/analysis PUBLISHED WORK REMOTE ANALYSIS REMOTE ANALYSISREMOTE ANALYSISreduced data 500 150PB - TB/day YEAR 10 PB / YR REMOTE ANALYSISUC BERKELEY 20 PB / YR 10 PB / YR 10 PB / YR GREENBANKGREENBANK TELESCOPE TELESCOPE (GBT) (GBT) 10 PB / YR UC BERKELEYUC BERKELEY20 PB / YR 10 PB / YR 10 PB / YR GREENBANK TELESCOPE (GBT) 500 PB - YEAR UC BERKELEY ONLINE JANUARY 2016 ONSITE ANALYSIS DATA TRANSFER CLOUD ANALYSIS OPEN DATA PUBLIC ANALYSIS & API ONLINEONLINE JANUARY JANUARY 2016 2016 ONSITE ANALYSIS DATA TRANSFER CLOUD ANALYSIS OPEN DATA PUBLIC ANALYSIS & API ONLINE JANUARY 2016 observatory storage nodes SETI @ HOME Green Bank SETI @ HOME PARKES TELESCOPE (PT) GOOGLE CLOUD COMPUTING PUBLISHEDPUBLISHED WORK WORKGOOGLE CLOUD STORAGE PARKES TELESCOPE (PT) GOOGLE CLOUD COMPUTING GOOGLE CLOUD STORAGE ONLINE OCTOBER 2016 ONLINE OCTOBER 2016 101 PBPB/year / YR REMOTE ANALYSIS20 PB / YR 10 PB / YR PUBLISHED WORK10 PB / YR 500500 PB -PB YEAR - YEAR 10 PB / YR 10 PB / YR REMOTE ANALYSIS20 PB / YR 10 PB / YR 10 PB / YR 500500 PBPB -- YEARYEAR 10 PB / YR UC20 BERKELEY PB / YR 10 PB / YR 10 PB / YR CONFIDENTIAL – NOT FOR DISTRIBUTION GREENBANK TELESCOPE (GBT) ONSITE ANALYSIS DATAdata TRANSFER transfer UC BERKELEY CLOUD ANALYSIS OPEN DATA CONFIDENTIAL – NOT FOR DISTRIBUTION GREENBANK TELESCOPE (GBT) ONSITE ANALYSIS DATA TRANSFERDATA TRANSFER CLOUD ANALYSIS open accessOPEN DATA PUBLIC ANALYSIS & API ONSITE ANALYSIS DATA TRANSFER CLOUDREMOTE ANALYSIS ANALYSIS OPEN DATA PUBLIC ANALYSIS & API ONLINE JANUARY 2016 UC BerkeleyUC BERKELEY data center scientific data archive PUBLIC ANALYSISSETISETI @ & HOME API@ HOME ONLINE JANUARY 2016GREENBANK TELESCOPE500 PB / YR (GBT)observatory compute nodes10 PB / YR PUBLISHED WORK 10 PB / YR storage/analysis PUBLISHED WORK SETI @ HOME ONLINE JANUARY500 PB / YR 2016 GOOGLE CLOUD COMPUTING PUBLISHEDGOOGLE WORK CLOUD STORAGE PARKESPARKES TELESCOPE TELESCOPE (PT) (PT) ONSITE ANALYSIS DATA TRANSFER GOOGLE CLOUD COMPUTING GOOGLE CLOUD STORAGE PARKES TELESCOPE (PT) 40-160 Gbps REMOTE ANALYSIS GOOGLE CLOUD COMPUTING GOOGLE CLOUD STORAGE ONLINE OCTOBER 2016 ONSITE ANALYSIS DATA TRANSFERREMOTE ANALYSIS ONLINEONLINE OCTOBER OCTOBER 2016 2016 UC BERKELEY REMOTE ANALYSIS GREENBANK TELESCOPEGREENBANK (GBT)ONLINE TELESCOPE OCTOBER (GBT)2016 UC BERKELEYREMOTE ANALYSIS 150 TB/day 10 PB / YR UC BERKELEY CONFIDENTIAL10 PB / YR – NOT FOR DISTRIBUTION ONLINE JANUARY GREENBANK2016 APF TELESCOPE TELESCOPE (GBT) (APF) 500 PB - YEAR 10 PB / YR UC BERKELEY2020 PB PB / /YR YR 1010 PB PB / /YR YR 10CONFIDENTIAL PB / YR – NOT FOR DISTRIBUTION GREENBANKONLINEAPF JANUARY TELESCOPETELESCOPE 2016 (APF)(GBT) 500 PB - YEAR 500 PB - YEAR 10 PB / YR 20 PB / YR 10 PB / YR 10 PB / YR ONSITE ANALYSIS DATA TRANSFER CLOUD ANALYSIS OPEN DATA ONLINEONLINE JANUARY APRIL 2016 2016 ONSITE ANALYSIS DATA TRANSFER CLOUD ANALYSIS OPEN DATAOPEN DATA PUBLIC ANALYSIS & API ONLINEONLINE JANUARY APRIL 2016 2016 10 PB / YR ONSITE ANALYSIS DATA TRANSFER CLOUD ANALYSIS PUBLICPUBLIC ANALYSIS ANALYSIS & & API API 500500 PB /PB YR / YR observatory storage10 PB nodes/ YR 10 PB / YR SETI @ HOME Parkes500500 PBPB // YRYR 10 PB / YR SETISETI @ @ HOMEHOME ONSITE ANALYSIS DATA TRANSFER PUBLISHEDPUBLISHED WORK WORK PARKES TELESCOPE (PT)ONSITE ANALYSIS DATA TRANSFERDATA TRANSFER GOOGLE CLOUDGOOGLE COMPUTING CLOUD COMPUTINGPUBLISHED WORKGOOGLEGOOGLE CLOUD CLOUD STORAGE STORAGE PARKESPARKES TELESCOPE TELESCOPE (PT) (PT) ONSITE ANALYSIS DATA TRANSFER GOOGLE CLOUD COMPUTING GOOGLEDATA CLOUD VOLUME STORAGE / FLOW DIAGRAM: 10 PB / YR DATA VOLUME / FLOW DIAGRAM: ONLINE500 OCTOBER PB - YEAR 2016 ONLINE500 PB -OCTOBER YEAR1 TB / YR 2016 10 PB / YR 1 TB / YR 20 PB / YR 10 PB / YR 10 PB / THREEYR TELESCOPES IN FULL OPERATIONAL ONLINE OCTOBER 2016 1 PB/year REMOTEREMOTE ANALYSIS ANALYSIS THREE10 PB / YR TELESCOPES IN FULL OPERATIONAL APF TELESCOPE (APF) 500 PB1 - TB YEAR / YR DATA TRANSFER 10 PB1 TB / YR/ YR REMOTE ANALYSIS20 PB / YR 10 PB / YR public data, API, APF TELESCOPE (APF)ONSITE ANALYSIS 500 PB ONSITE- YEAR ANALYSISONSITE ANALYSIS 10 PB /DATA YR TRANSFERDATA TRANSFER UC BERKELEY 20 CLOUDPB / YR ANALYSIS 10 PB / YR OPEN DATA CAPACITY10 PB / YR OVER 12 MONTHS. DATA EXPRESED AS GREENBANKGREENBANKAPF TELESCOPE TELESCOPE TELESCOPE (APF) (GBT) (GBT) UCUC BERKELEY BERKELEY Google Cloud and SETI@home CAPACITYPUBLIC ANALYSIS OVER 12 & MONTHS.API DATA EXPRESED AS GREENBANKONLINE TELESCOPE APRIL 2016 (GBT) ONSITEONSITE ANALYSIS ANALYSIS DATADATA TRANSFER TRANSFER CLOUD ANALYSIS OPEN DATA VOLUMEPUBLIC OF DATA ANALYSIS OVER & API A YEAR. ONLINEONLINEONLINE APRIL JANUARY 2016 APRIL 2016 2016 ONSITE ANALYSIS DATA TRANSFER storage/analysisCLOUD ANALYSIS OPEN DATAVOLUMESETI
Recommended publications
  • Topics for Students' Presentations Problems in Long Distance (Human) Space Travel New Propulsion Tech
    06/03/2019 Life in the Universe 2019 - Student talks - Google Docs Topics for students’ presentations ● Problems in long distance (human) space travel ○ New propulsion technologies Paul Richter ○ Social aspects? ○ life in zero‑gravity ○ communication ● Prospects for long‑term human missions within the Solar systems: ○ Elon Musk's plan to send humans to Mars F. Stabel ○ What would be the point of a lunar base? ● Testing extra‑terrestrial habitats on Earth ○ NEEMO, Mars500, Desert RATS experiments ● Future (and proposed) space missions and/or observational facilities to look for life‑/bio‑ signatures: Artem Mosienko ○ On Europa ○ on Exo‑planets ● Solar‑system bodies as potentially life‑bearing systems: B. Prinoth ○ Europa ○ Titan ○ Enceladus ○ Mars ● Experiments to search for Life on Mars: ○ Past and present (Viking missions to now) ○ Martian meteorites (ALH‑64?) 20 years on, include possibly media response at the time to idea of evidence for extraterrestrial life ○ Future in situ experiments on Mars ● SETI projects : ○ Breakthrough Initiatives ○ SETI@Home ○ What are the fundamental assumptions behind SETI experiments, and what do they imply (i.e., similar to Drake Eq.) Sven Kiefer ● Observational signatures of advanced civilizations Leon Raabe ● Remote detection of Life on Earth (How far away can we detect Human signals, e.g. TV) Yves Sibony ● Summary of what is known about the exosolar asteroid ( 'Oumuamua ) Andrea Weibel https://docs.google.com/document/d/1qZdVVX3bP5kyfftaQazeXs3l7sP3TQDq9mL9uGLHrjE/edit# 1/4 06/03/2019 Life in the Universe 2019 - Student talks - Google Docs ● How good is the evidence for an asymmetry of left‑ and right‑ handed organic molecules in nature and where could such an asymmetry come from? O.
    [Show full text]
  • Nasa and the Search for Technosignatures
    NASA AND THE SEARCH FOR TECHNOSIGNATURES A Report from the NASA Technosignatures Workshop NOVEMBER 28, 2018 NASA TECHNOSIGNATURES WORKSHOP REPORT CONTENTS 1 INTRODUCTION .................................................................................................................................................................... 1 What are Technosignatures? .................................................................................................................................... 2 What Are Good Technosignatures to Look For? ....................................................................................................... 2 Maturity of the Field ................................................................................................................................................... 5 Breadth of the Field ................................................................................................................................................... 5 Limitations of This Document .................................................................................................................................... 6 Authors of This Document ......................................................................................................................................... 6 2 EXISTING UPPER LIMITS ON TECHNOSIGNATURES ....................................................................................................... 9 Limits and the Limitations of Limits ...........................................................................................................................
    [Show full text]
  • DIRECT FUSION DRIVE for Interstellar Exploration S.A
    Journal of the British Interplanetary Society VOLUME 72 NO.2 FEBRUARY 2019 General interstellar issue DIRECT FUSION DRIVE for Interstellar Exploration S.A. Cohen et al. INTERMEDIATE BEAMERS FOR STARSHOT: Probes to the Sun’s Inner Gravity Focus James Benford & Gregory Matloff REALITY, THE BREAKTHROUGH INITIATIVES and Prospects for Colonization of Space Edd Wheeler A GRAVITATIONAL WAVE TRANSMITTER A.A. Jackson and Gregory Benford CORRESPONDENCE www.bis-space.com ISSN 0007-084X PUBLICATION DATE: 29 APRIL 2019 Submitting papers International Advisory Board to JBIS JBIS welcomes the submission of technical Rachel Armstrong, Newcastle University, UK papers for publication dealing with technical Peter Bainum, Howard University, USA reviews, research, technology and engineering in astronautics and related fields. Stephen Baxter, Science & Science Fiction Writer, UK James Benford, Microwave Sciences, California, USA Text should be: James Biggs, The University of Strathclyde, UK ■ As concise as the content allows – typically 5,000 to 6,000 words. Shorter papers (Technical Notes) Anu Bowman, Foundation for Enterprise Development, California, USA will also be considered; longer papers will only Gerald Cleaver, Baylor University, USA be considered in exceptional circumstances – for Charles Cockell, University of Edinburgh, UK example, in the case of a major subject review. Ian A. Crawford, Birkbeck College London, UK ■ Source references should be inserted in the text in square brackets – [1] – and then listed at the Adam Crowl, Icarus Interstellar, Australia end of the paper. Eric W. Davis, Institute for Advanced Studies at Austin, USA ■ Illustration references should be cited in Kathryn Denning, York University, Toronto, Canada numerical order in the text; those not cited in the Martyn Fogg, Probability Research Group, UK text risk omission.
    [Show full text]
  • LPIB Issue 164 (April 2021)
    THE CHICXULUB IMPACT CRATER: Producing a Cradle of Life in the Midst of a Global Calamity Featured Story | From the Desk of Lori Glaze | Meeting Highlights | News from Space | Spotlight on Education In Memoriam | Milestones | New and Noteworthy | Calendar LUNAR AND PLANETARY INFORMATION BULLETIN April 2021 Issue 164 FEATURED STORY THE CHICXULUB IMPACT CRATER: Producing a Cradle of Life in the Midst of a Global Calamity DAVID A. KRING, LUNAR AND PLANETARY INSTITUTE Expedition 364 mission patch Introduction when the International Ocean Discov- an area that had been a stable sediment ery Program (IODP) and International catchment for over 100 million years? Strategically located scientific drilling Continental Scientific Drilling Program Clues began to emerge when the core can be used to tap the Earth for evi- (ICDP) initiated a new campaign with was analyzed. Logging revealed chem- dence of evolutionary upheavals that the call sign Expedition 364. Drilling ical and petrological variations on the transformed the planet. A good example from a marine platform a few meters granitic theme, plus felsite and dolerite is the Yucatán-6 borehole in Mexico above the sea surface, the new borehole intrusions, in a granitoid rock sequence that recovered rock samples from 1.2 reached a depth of 1335 meters be- that represented continental crust that and 1.3 kilometers beneath Earth’s neath the sea floor (mbsf). The borehole had been assembled through a series of surface. I used those samples 30 years penetrated seafloor sediments that bury tectonic events over more than a billion ago to show that a buried, geophysical- the crater, finally reaching impactites at years.
    [Show full text]
  • 1. National Affairs 2. Economy and Finance 3. Science and Technology 4. Environment and Ecology 5. International Affairs, Bilate
    TABLE OF CONTENTS 1. National Affairs 2. Economy and Finance 3. Science and Technology 4. Environment and Ecology 5. International Affairs, Bilateral Issues and Geopolitics 6. Miscellaneous Quick Revision For Prelims 2018 - Current Affairs From Jun to Nov 2017 Page 1 NATIONAL AFFAIRS ➢ Reliance Jio Infocomm Launches Asia-Africa-Europe (AAE-1) Submarine Cable System • A submarine cable system consists of telecom and internet cables on the seabed between land- based stations. These carry telecommunication and data signals across stretches of oceans. • AAE-1, the longest 100 Gbps (gigabits per second) technology-based submarine system, will stretch over 25,000 km from Marseille, France, to Hong Kong, with 21 cable landings across Asia and Europe. ➢ Government Launches Index To Rank 116 Cities On Quality Of Life • The first ‘City Liveability Index’, will cover cities with population above one million, including the capital cities, a total of 116 cities to be covered. • The cities will be assessed on a comprehensive set of 79 parameters, including availability of roads, education, healthcare, mobility, employment opportunities, emergency response, grievance redressal, pollution, availability of open and green spaces, cultural and entertainment opportunities. • The ranking will be released in 2018. ➢ West Bengal Govt's Kanyashree Scheme Bags UN Award The United Nations has awarded the West Bengal government the first place for Public Service for its “Kanyashree” scheme. The “Kanyashree Prakalpa” is a targeted conditional cash transfer scheme aimed at retaining girls in schools and other educational institutions. It also aims towards skill development and prevent child marriage. Over 4 million adolescent girls have already enrolled in the scheme and about $ 500 million handed over to the beneficiaries through their bank account.
    [Show full text]
  • Searches for Life and Intelligence Beyond Earth
    Technologies of Perception: Searches for Life and Intelligence Beyond Earth by Claire Isabel Webb Bachelor of Arts, cum laude Vassar College, 2010 Submitted to the Program in Science, Technology and Society in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy in History, Anthropology, and Science, Technology and Society at the Massachusetts Institute of Technology September 2020 © 2020 Claire Isabel Webb. All Rights Reserved. The author hereby grants to MIT permission to reproduce and distribute publicly paper and electronic copies of this thesis document in whole or in part in any medium now known or hereafter created. Signature of Author: _____________________________________________________________ History, Anthropology, and Science, Technology and Society August 24, 2020 Certified by: ___________________________________________________________________ David Kaiser Germeshausen Professor of the History of Science (STS) Professor of Physics Thesis Supervisor Certified by: ___________________________________________________________________ Stefan Helmreich Elting E. Morison Professor of Anthropology Thesis Committee Member Certified by: ___________________________________________________________________ Sally Haslanger Ford Professor of Philosophy and Women’s and Gender Studies Thesis Committee Member Accepted by: ___________________________________________________________________ Graham Jones Associate Professor of Anthropology Director of Graduate Studies, History, Anthropology, and STS Accepted by: ___________________________________________________________________
    [Show full text]
  • Planet Searching from Ground and Space
    Planet Searching from Ground and Space Olivier Guyon Japanese Astrobiology Center, National Institutes for Natural Sciences (NINS) Subaru Telescope, National Astronomical Observatory of Japan (NINS) University of Arizona Breakthrough Watch committee chair June 8, 2017 Perspectives on O/IR Astronomy in the Mid-2020s Outline 1. Current status of exoplanet research 2. Finding the nearest habitable planets 3. Characterizing exoplanets 4. Breakthrough Watch and Starshot initiatives 5. Subaru Telescope instrumentation, Japan/US collaboration toward TMT 6. Recommendations 1. Current Status of Exoplanet Research 1. Current Status of Exoplanet Research 3,500 confirmed planets (as of June 2017) Most identified by Jupiter two techniques: Radial Velocity with Earth ground-based telescopes Transit (most with NASA Kepler mission) Strong observational bias towards short period and high mass (lower right corner) 1. Current Status of Exoplanet Research Key statistical findings Hot Jupiters, P < 10 day, M > 0.1 Jupiter Planetary systems are common occurrence rate ~1% 23 systems with > 5 planets Most frequent around F, G stars (no analog in our solar system) credits: NASA/CXC/M. Weiss 7-planet Trappist-1 system, credit: NASA-JPL Earth-size rocky planets are ~10% of Sun-like stars and ~50% abundant of M-type stars have potentially habitable planets credits: NASA Ames/SETI Institute/JPL-Caltech Dressing & Charbonneau 2013 1. Current Status of Exoplanet Research Spectacular discoveries around M stars Trappist-1 system 7 planets ~3 in hab zone likely rocky 40 ly away Proxima Cen b planet Possibly habitable Closest star to our solar system Faint red M-type star 1. Current Status of Exoplanet Research Spectroscopic characterization limited to Giant young planets or close-in planets For most planets, only Mass, radius and orbit are constrained HR 8799 d planet (direct imaging) Currie, Burrows et al.
    [Show full text]
  • Is Anybody out There? Julia Bandura, Michael Chong, Ross Edwards
    Is Anybody Out There? Julia Bandura, Michael Chong, Ross Edwards ISCI 3A12 - LUE March 23rd, 2017 -graphic of scientists believe that with our rapid technological advancement, there may be ways to “We stand on a great communicate with them. This article will explore attempts to transmit threshold in the human messages to potential intelligent life forms, history of space attempts to search for incoming alien signals, and analyze explanations for the silence that we have exploration” (Sara Seager, 2014) insofar encountered. However, before considering any form of communication, whether receiving or radiation levels (since high UV radiation can be transmitting, we must first consider where to look. damaging to replication molecules like DNA), and Where is Life in the Universe? liquid water. Water is especially important: all known life on Earth requires liquid water to Logically, a scientist that hopes to communicate survive. As such, within a solar system, the with extraterrestrial beings must assume that: 1) traditional ‘habitable zone’ is defined as the extraterrestrial intelligent life exists in the universe, imaginary disc around the host star where water 2) it exists in high enough abundance that radio will remain in liquid form. A significant number of communication is possible, 3) a transmitted radio exoplanets have been discovered within this zone signal from Earth will be picked up by a receiver, around their host star, but only a fraction of them and 4) the message will be translated successfully. are considered ‘Earth-like’, meaning that their Each assumption comes with challenges that make surface conditions and sizes are similar to Earth’s the process of creating a radio message appropriate (Rekola, 2009).
    [Show full text]
  • Topics for Students' Presentations Problems in Long Distance (Human) Space Travel New Propulsion Technologies So
    Topics for students’ presentations ● Problems in long distance (human) space travel ○ New propulsion technologies ○ Social aspects? ○ life in zero-gravity ○ communication ● Prospects for long-term human missions within the Solar systems: ○ Elon Musk's plan to send humans to Mars ○ What would be the point of a lunar base? ● Testing extra-terrestrial habitats on Earth ○ NEEMO, Mars500, Desert RATS experiments ● Future (and proposed) space missions and/or observational facilities to look for life-/bio- signatures: ○ On Europa ○ on Exo-planets ● Solar-system bodies as potentially life-bearing systems: ○ Europa ○ Titan ○ Enceladus ○ Mars ● Experiments to search for Life on Mars: ○ Past and present (Viking missions to now) ○ Martian meteorites (ALH-64?) 20 years on, include possibly media response at the time to idea of evidence for extraterrestrial life ○ Future in situ experiments on Mars ● SETI projects : ○ Breakthrough Initiatives ○ SETI@Home ○ What are the fundamental assumptions behind SETI experiments, and what do they imply (i.e., similar to Drake Eq.) ● Observational signatures of advanced civilizations ● Remote detection of Life on Earth (How far away can we detect Human signals, e.g. TV) ● Summary of what is known about the exosolar asteroid ('Oumuamua) ​ ​ ● How good is the evidence for an asymmetry of left- and right- handed organic molecules in nature and where could such an asymmetry come from? ● General physical/planetary processes in the context of life: ○ Terrestrial impacts as a driver of evolutionary change in terrestrial Life vs. other causes of mass extinctions. ○ How dynamically stable are planetary systems - our own and in general? what are the implications (c.f. Drake Eq.
    [Show full text]
  • Ebook Download Proxima Centauri Ebook Free Download
    PROXIMA CENTAURI PDF, EPUB, EBOOK Farel Dalrymple | 160 pages | 29 Jan 2019 | Image Comics | 9781534310292 | English | Fullerton, United States Proxima Centauri PDF Book Proxima Centauri by admin July 6, August 30, Terrestrial sources will also have to be ruled out, along with orbiting satellites, as Seth Shostak, senior scientist with the SETI institute, explained in a recent post :. It is possible there are other planets, slightly further from the star, that have yet to be discovered by astronomers, but they are likely too far away for liquid water to form. To illustrate what this means from our perspective: the Voyager 1 spacecraft is currently travelling away from Earth at a speed of The Planetary Science Journal Tag: Science. It was discovered by the Scottish astronomer Robert Innes in Except… in August astronomers announced they had confirmed the presence of a planet orbiting the diminutive star , and moreover it's very roughly the same mass as Earth , orbiting Proxima in its habitable zone. It's very hard to measure, because the shift is very small, and Proxima is very faint. Extended Data Table 1 Complete set of model parameters Full size table. To view the star, one needs a telescope with an aperture of at least 3. Kopparapu, R. According to Star Trek: Star Charts pp. When the star approaches the Earth in that little circle the wavelength of its light gets a little bit shorter we call that blushift , and when it heads away in the other half of its circle the wavelength gets longer redshift ; this is similar to the Doppler shift in sound.
    [Show full text]
  • General Interstellar Issue
    Journal of the British Interplanetary Society VOLUME 73 NO.7 JULY 2020 General Interstellar Issue PROTOCOLS FOR ENCOUNTER WITH EXTRATERRESTRIALS: lessons from the Covid-19 Pandemic John W. Traphagan & Ken Wisian WATER AND AIR CONSUMPTION ABOARD INTERSTELLAR ARKS Frédéric Marin & Camille Beluffi HABITABILITY OF M DWARFS: a problem for the traditional SETI Milan M. Cirkovic & Branislav Vukotic ON A SPECTRAL PATTERN OF THE VON NEUMANN PROBES Z. Osmanov REWORKING THE SETI PARADOX: METI’s Place on the Continuum of Astrobiological Signaling Thomas Cortellesi DYNAMIC VACUUM MODEL and Casimir Cavity Experiments Harold White, Paul Bailey, James Lawrence, Jeff George & Jerry Vera www.bis-space.com ISSN 0007-084X PUBLICATION DATE: 31 JULY 2020 Submitting papers International Advisory Board to JBIS JBIS welcomes the submission of technical Rachel Armstrong, Newcastle University, UK papers for publication dealing with technical Peter Bainum, Howard University, USA reviews, research, technology and engineering in astronautics and related fields. Stephen Baxter, Science & Science Fiction Writer, UK James Benford, Microwave Sciences, California, USA Text should be: James Biggs, The University of Strathclyde, UK ■ As concise as the content allows – typically 5,000 to 6,000 words. Shorter papers (Technical Notes) Anu Bowman, Foundation for Enterprise Development, California, USA will also be considered; longer papers will only Gerald Cleaver, Baylor University, USA be considered in exceptional circumstances – for Charles Cockell, University of Edinburgh, UK example, in the case of a major subject review. Ian A. Crawford, Birkbeck College London, UK ■ Source references should be inserted in the text in square brackets – [1] – and then listed at the Adam Crowl, Icarus Interstellar, Australia end of the paper.
    [Show full text]
  • The Breakthrough Initiatives: the Search for Life in the Universe
    The Breakthrough Initiatives: The Search for Life in the Universe Simon P. Worden Breakthrough Prize Foundation October 5, 2016 4:00 p.m. - Wilson Hall, One West On July 20, 2015 at the Royal Society, London, UK Yuri Milner and Professor Stephen Hawking announced the Breakthrough Listen Initiative. It is designed to look for signals from an intelligent civilization in our galaxy or beyond. This SETI search is orders of magnitude more encompassing and complete than any previous search. In addition, On April 12, 2016, in New York, NY, USA Milner and Hawking announced a new Initiative, Breakthrough StarShot designed to send a gram-class interstellar probe to Alpha Centauri within a generation. Each Initiative is initially funded at $100 million (US) from private sources. In January of this year Breakthrough Listen began observations on the Green Bank Observatory 100 meter radio telescope, the world’s largest steered radio antenna. We have twice the bandwidth of any previous SETI search. We’ve observed 200 of the stars nearest to the earth and 40 of the nearest galaxies. In the near future we will observe all stars within 25 light years of earth and those stars within 250 light years that are similar to the sun – over 1700 stars. With the addition of the Australian Parkes Radio Telescope located in the southern hemisphere later in 2016, we will be able to access the entire sky. We also began optical observations on the Lick Observatory Automated Planet Finder Telescope. With it we look for optical, as well as radio signals. This is particularly important in light of Project StarShot as we will be looking for laser signals similar to what we will be using to direct the StarChip interstellar probe.
    [Show full text]