The Hubble Legacy Fields (HLF-GOODS-S) v1.5 Data Products: Combining 2442 Orbits of GOODS-S/CDF-S Region ACS and WFC3/IR Images.

Similar documents
Observational Studies of Galaxy Formation: Reaching back to ~500 Myr after the Big Bang. Rychard Bouwens (UC Santa Cruz / Leiden)

Galaxy Formation and Evolution at z>6: New Results From HST WFC3/IR

Galaxy Build-up in the First 2 Gyrs

Hubble observations of very high redshift galaxies: looking back 13 billion years

Yale Center for Astronomy and Astrophysics, New Haven, USA YCAA Prize Fellowship

Super-Eight: The brightest z~8 Galaxies Cycle: 24, Proposal Category: GO (JWST Initative) (Availability Mode: SUPPORTED)

arxiv: v1 [astro-ph] 15 Dec 2007

The Making of the Hubble Ultra Deep Field

APLUS: A Data Reduction Pipeline for HST/ACS and WFC3 Images

The Earliest Galaxies: Exploring Cosmic Sunrise with Hubble, Spitzer, and JWST

Exploring the Depths of the Universe

Dr. Brandon Lawton Hubble Science Briefing. Hubble s 25 th Anniversary - Hubble s Views of the Deep Universe

The First Billion Year of History - Galaxies in the Early Universe. Stephen Wilkins, Silvio Lorenzoni, Joseph Caruana, Holly Elbert, Matt Jarvis

Yicheng Guo (UCO/Lick, UCSC)

Galaxies at Cosmic Dawn: Exploring the First Billion Years with Hubble and Spitzer Implications for JWST

Hubble Deep Fields Initiative. STUC Meeting November 8, 2012 K. Sembach

3D-HST: A Spectroscopic Galaxy Evolution Treasury

LEGA-C. The Physics of Galaxies 7 Gyr Ago. Arjen van der Wel Max Planck Institute for Astronomy, Heidelberg

Hubble Science Briefing April 7, 2011

Here Be Dragons: Characterization of ACS/WFC Scattered Light Anomalies

Overview of JWST GTO Programmes

Analysis of Hubble Legacy Archive Astrometric Header Information

Henry Ferguson 1 August 2013

Assembly of Galaxies Across Cosmic Time: Formaton of te Hubble Sequence at High Redshift

NICMOS Status and Plans

arxiv: v1 [astro-ph] 27 Feb 2008

Hubble Space Telescope Frontier Fields MidTerm Review

Improving the Absolute Astrometry of HST Data with GSC-II

HST/NICMOS Observations of the Near Infrared Background

CLASH MCT Program Progress Report. Progress Report on the CLASH Multi-Cycle Treasury Program By Marc Postman

arxiv:astro-ph/ v1 13 Apr 2006

Star Forming Galaxies as Revealed by Gravitational Lensing and JWST

Unveiling the nature of bright z ~ 7 galaxies with HST and JWST

The Cosmic History of Star Formation. James Dunlop Institute for Astronomy, University of Edinburgh

THE COSMOS SURVEY: HUBBLE SPACE TELESCOPE ADVANCED CAMERA FOR SURVEYS OBSERVATIONS AND DATA PROCESSING 1

Spectroscopic Identification of Galaxies in the HUDF using MUSE

The Star Formation Observatory (SFO)

9. Evolution with redshift - z > 1.5. Selection in the rest-frame UV

TMT and Space-Based Survey Missions

The James Webb Space Telescope

High-Redshift Galaxies: A brief summary

Star Formation Sequence

Galaxies Across Cosmic Time

IRAC Deep Survey Of COSMOS

Deep fields around bright stars ( Galaxies around Stars )

STAR FORMATION HISTORY OF THE HUBBLE ULTRA DEEP FIELD: COMPARISON WITH THE HUBBLE DEEP FIELDYNORTH

WFC3 Calibration Using Galactic Clusters

arxiv: v2 [astro-ph.co] 6 Jan 2014

That other way to measure H0:

Astronomical Research at the Center for Adaptive Optics. Sandra M. Faber, CfAO SACNAS Conference October 4, 2003

Synergy between the Thirty Meter Telescope and the James Webb Space Telescope: When > 2.

A Look Back: Galaxies at Cosmic Dawn Revealed in the First Year of the Hubble Frontier Fields Initiative

THE STELLAR MASS STRUCTURE OF MASSIVE GALAXIES FROM Z = 0 TO Z = 2.5; SURFACE DENSITY PROFILES AND HALF-MASS RADII

How HST/WFC3 and JWST can measure Galaxy Assembly and AGN growth

Cross-Talk in the ACS WFC Detectors. I: Description of the Effect

STScI Status (other than SM4) April 10, 2008

Telescope and Instrument Performance Summary (TIPS) 16 Jan 2003 AGENDA. 1. Type 1a SuperNovae Adam Riess 2. JWST s NIR Detectors Bernie Rauscher

THE ABUNDANCE OF STAR-FORMING GALAXIES IN THE REDSHIFT RANGE 8.5 TO 12: NEW RESULTS FROM THE 2012 HUBBLE ULTRA DEEP FIELD CAMPAIGN

Type II Supernovae as Standardized Candles

HubVis: Software for Gravitational Lens Estimation and Visualization from Hubble Data

The Evolution of the Galaxy Rest-Frame Ultraviolet Luminosity Function Over the First Two Billion Years

Dust properties of galaxies at redshift z 5-6

Study of the evolution of the ACS/WFC sensitivity loss

The ALMA z=4 Survey (AR4S)

Goals of the meeting. Catch up with JWST news and developments: ERS and GO call for proposals are coming!!

Kyoung-Soo Lee. Curriculum Vitae Northwestern Avenue West Lafayette, Indiana

THE HUBBLE SPACE TELESCOPE WIDE FIELD CAMERA 3 EARLY RELEASE SCIENCE DATA: PANCHROMATIC FAINT OBJECT COUNTS FOR 0.

The Hubble Space Telescope GOODS NICMOS Survey: overview and the evolution of massive galaxies at 1.5 < z < 3

UV Continuum Slope and Dust Obscuration from z~6 to z~2: The Star Formation Rate Density at High Redshift

A Search for High Redshift Galaxies behind Gravitationally Lensing Clusters

TELESCOPES POWERFUL. Beyond the Book. FOCUS Book

arxiv: v2 [astro-ph.ga] 6 Jun 2015

Hubble Science Briefing

SN-MCT Science Goals

Astro 358/Spring 2008 (49520) Galaxies and the Universe

FPA#64 and new substrate removed FPAs for WFC3-IR: a trade-off study

arxiv:astro-ph/ v1 27 Jul 2006

HST Temporal Optical Behavior: Models and Measurements with ACS

A REMARKABLY LUMINOUS GALAXY AT Z = 11.1 MEASURED WITH HUBBLE SPACE TELESCOPE GRISM SPECTROSCOPY

Outline: Part II. The end of the dark ages. Structure formation. Merging cold dark matter halos. First stars z t Univ Myr.

Introduction to SDSS -instruments, survey strategy, etc

Harvard-Smithsonian Center for Astrophysics Garden St.

Wide Field Camera 3: The SOC Science Program Proposal

James Webb Space Telescope Studies of Dark Energy

WFPC2 Status and Overview

NIRSpec Multi-Object Spectroscopy of Distant Galaxies

Performance of the NICMOS ETC Against Archived Data

From the VLT to ALMA and to the E-ELT

Cycle 20 Results and Cycle 21 Preparations. 8 November /8/2012 C20 Results and C21 Preparations

University of Groningen. The opacity of spiral galaxy disks. Holwerda, Benne

Results from the Chandra Deep Field North

Accuracy of the HST Standard Astrometric Catalogs w.r.t. Gaia

Relative Astrometry Within ACS Visits

arxiv: v4 [astro-ph.ga] 26 Jan 2016

Science with the New Hubble Instruments. Ken Sembach STScI Hubble Project Scientist

Supernovae explosions and the Accelerating Universe. Bodo Ziegler

arxiv: v2 [astro-ph.ga] 3 May 2015

The PRIsm MUlti-object Survey (PRIMUS)

RLW paper titles:

CURRICULUM VITÆ Rychard J. Bouwens

Transcription:

1 The Hubble Legacy Fields (HLF-GOODS-S) v1.5 Data Products: Combining 2442 Orbits of GOODS-S/CDF-S Region ACS and WFC3/IR Images. Garth Illingworth 1, Daniel Magee 1, Rychard Bouwens 2, Pascal Oesch 3, Ivo Labbe 2, Pieter van Dokkum 3, Katherine Whitaker 4, Bradford Holden 1, Marijn Franx 2, and Valentino Gonzalez 5 Abstract We have submitted to MAST the 1.5 version data release of the Hubble Legacy Fields (HLF) project covering a 25 x 25 arcmin area over the GOODS-S (ECDF-S) region from the HST archival program AR-13252. The release combines exposures from Hubble's two main cameras, the Advanced Camera for Surveys (ACS/WFC) and the Wide Field Camera 3 (WFC3/IR), taken over more than a decade between mid-2002 to the end of 2016. The HLF includes essentially all optical (ACS/WFC F435W, F606W, F775W, F814W and F850LP filters) and infrared (WFC3/ IR F098M, F105W, F125W, F140W and F160W filters) data taken by Hubble over the original CDF-S region including the GOODS-S, ERS, CANDELS and many other programs (31 in total). The data has been released at https://archive.stsci.edu/prepds/hlf/ as images with a common astrometric reference frame, with corresponding inverse variance weight maps. We provide one image per filter of WFC3/IR images at 60 mas per pixel resolution and two ACS/WFC images per filter, at both 30 and 60 mas per pixel. Since this comprehensive dataset combines data from 31 programs on the GOODS-S/CDF-S, the AR proposal identified the MAST products by the global name "Hubble Legacy Field, with this region being identified by HLF-GOODS-S. This dataset complements that of the Frontier Fields program. The total incorporated in the HLF-GOODS-S is 5.8 Msec in 7211 exposures from 2442 orbits. This is ~70% of a HST full cycle! Introduction The GOODS-S/CDF-S region has accumulated a uniquely large amount of data from the Advanced Camera for Surveys (ACS/WFC) and the Wide Field Camera 3 (WFC3/ IR) over more than a decade of observations from 2002 to 2016. While the major datasets like GOODS-S (Giavalisco et al., 2004), ERS and CANDELS (Koekemoer et al., 2011) have been made available individually as high level science data products in 1 2 3 4 5 UCO/Lick Observatory, University of California, Santa Cruz, Leiden Observatory, Leiden University Department of Astronomy, Yale University Department of Astronomy, University of Massachusetts Amherst Department of Astronomy, Universidad de Chile

2 MAST, the data from numerous other programs has not been readily available, nor has that data been combined with the major datasets. A total of 30 HST programs have data from the ACS and WFC3/IR that on this region. A first major combination of disparate datasets in this region was made on the HUDF when all data on that area through early 2013, both ACS and WFC3/IR, following the completion of the HUDF12 program, were combined into the HUDF/XDF and submitted to MAST as a high level science data products (Illingworth et al., 2013). The lack of a combined dataset on the whole CDF-S region has been unfortunate given the HST resources that have been expended on this area, and its central role in so many studies of distant galaxies. Given this, an Archival program AR-13252 was submitted and approved to carry out the full combination of all the datasets on GOODS-S/CDF-S. Since this dataset combines all images in the HST archive on the GOODS-S/CDF-S to date, the archival proposal identified the data product under the global name "Hubble Legacy Field," with the designation HLF-GOODS-S for this field. The HLF includes all the data from the Figure 1. The HLF-GOODS-S dataset footprints for the five ACS/WFC and five WFC/IR filters are shown in red. The footprint of the HUDF/XDF dataset is show in yellow.

3 GOODS-South, CANDELS-S, ERS, ECDF-S, HUDF, HUDF parallels, and numerous other programs (tabulated below in Table 2). Given the large area, a global astrometric solution had to be bootstrapped from the smaller datasets. All the image mosaics have been produced using the same tangent point as the original GOODS-S dataset. The HLF includes the ACS/WFC optical filters (F435W, F606W, F775W, F814W and F850LP) and WFC3/IR infrared filters (F098M, F105W, F125W, F140W and F160W). See also http://firstgalaxies.org/hlf for future updates and further information. Figure 2. The five deep areas in the HLF-GOODS-S. The deep area cutouts HLFHUDFP1, HLF-HUDFP2, HLF-HUDFP3 and HLF-HUDFP4 footprints are shown in red. The footprint of the HUDF/XDF dataset is show in yellow.

4 The HLF program complements the Frontier Fields program (Lotz et al. 2016) by making available a complete aligned optical and IR dataset taken on Hubble's mostimaged field region. HLF Dataset for the GOODS-South region (HLF-GOODS-S) The datasets used in the HLF-GOODS-S delivery to MAST are shown in Figures 1-3. The 1.5 version of the HLF dataset provides ACS/WFC and WFC3/IR images covering a 25 x 25 arcmin area (Figure 1); as well as smaller cutouts of four deep areas in the GOODS-South region (Figure 2). All the data covering the original HUDF field within the GOODS-South area was previously released as high level science product - the HUDF/ XDF field (Illingworth et al. 2013). The HLF-GOODS-S dataset currently includes five ACS/WFC filters (F435W, F606W, F775W, F814W, F850LP) and five WFC3/IR filters (F098M, F105W, F125W, F140W & F160W). An exposure time map is shown in Figure 3 illustrating the depth in each of the ten filters. Citation Please reference Illingworth, Magee, Bouwens, Oesch et al, 2017, in preparation.

5 Data Products and Links The HLF v1.5 data products are accessible from the Milkulski Archive for Space Telescope (MAST) High Level Science Products pages at: https://archive.stsci.edu/prepds/hlf/ The released dataset includes fully reduced, science ready images (*_sci.fits) together with the associated weight maps (*_wht.fits) at 30mas/pixel (for ACS only) and 60mas/ pixel (for ACS+WFC3 images). The data are organized into sets of images by passband (ACS/WFC: F435W, F606W, F775W, F814W & F850LP, and WFC3/IR: F098M, F105W, F125W, F140W & F160W) and image scale. Each 60 mas/pixel HLF-GOODS-S image is 25k x 25k pixels and each 30 mas/pixel image is 50k x 50k pixels. For each filter we provide the drizzled science image and a weight image. All data use the same tangent point as the original GOODS-S dataset (R.A. = 53.122751, Dec. = 27.805089 J2000). Previous v0.5 and v1.0 data releases were made available in July 2015 and April 2016, respectively. The v1.5 supersedes these older dataset due to improvements in the data processing and additional data. All images used a drizzle pixfrac parameter value of 0.8 (final_pixfrac=0.8). The weight map image is equal to the inverse variance (i.e., 1/rms^2) per pixel. A detailed discussion of weight map conventions and noise correlation in drizzling, can be found in Casertano et al., 2000, especially in their Section 3.5 and Appendix A. All exposures used to produce the HLF were first visually inspected to identify any data quality issues (loss of guiding, excessive background, pointing accuracy) and any image which could not be corrected was rejected for processing. During this visual inspection we also identify images affected by satellite trails and optical ghosts from filter reflections generated by bright stars (ACS). We updated the data quality array to ensure these artifacts were masked during final processing. ACS/WFC data taken after HST Servicing Mission 4 (SM4) were correct for charge transfer efficiency (CTE) degradation. A summary of the exposure times and number of exposures for each filter is shown in Table 1. The total incorporated in the HLF-GOODS-S is 5.8 Msec in 7211 exposures from 2442 orbits. This is ~70% of a HST full cycle!

6 Table 1. Exposure Summary Guys: Filter Exposure Time (s) Number of Exposures F435W 448,488 443 F606W 537,944 712 F775W 770,190 849 F814W 840,211 1,288 F850LP 1,495,092 1,902 F098M 53,499 68 F105W 484,734 429 F125W 440,755 598 F140W 115,590 218 F160W 596,277 704 Totals 5,861,244 7,211 Observations Observations included in the v1.5 version of the HLF-GOODS-S region were taken from July 2002 to October 2016 from 31 different HST programs (Table 2).

7 Table 2. Programs used for the HFL-GOODS-S region Program ID Program Title Program PI 9352 The Deceleration Test from Treasury Type Ia Supernovae at Redshifts 1.2 to 1.6 Adam Riess 9425 The Great Observatories Origins Deep Survey: Imaging with ACS Mauro Giavalisco 9480 Cosmic Shear With ACS Pure Parallels Jason D. Rhodes 9488 Cosmic Shear - with ACS Pure Parallel Observations Kavan Ratnatunga 9500 The Evolution of Galaxy Structure from 10, 000 Galaxies with 0.1<z<1.2 Hans-Walter Rix 9575 ACS Default {Archival} Pure Parallel Program William B. Sparks 9793 The Grism-ACS Program for Extragalactic Science {GRAPES} Sangeeta Malhotra 9803 Deep NICMOS Images of the UDF Rodger I. Thompson 9978 The Ultra Deep Field with ACS Steven Beckwith 9984 Cosmic Shear With ACS Pure Parallels Jason D. Rhodes 10086 The Ultra Deep Field with ACS Steven Beckwith 10189 PANS-Probing Acceleration Now with Supernovae Adam Riess 10258 Tracing the Emergence of the Hubble Sequence Among the Most Luminous and Massive Galaxies Claudia Kretchmer

8 Program ID Program Title Program PI 10340 PANS Adam Riess 10530 Probing Evolution And Reionization Spectroscopically {PEARS} Sangeeta Malhotra 10632 Searching for galaxies at z>6.5 in the Hubble Ultra Deep Field Massimo Stiavelli 11144 Building on the Significant NICMOS Investment in GOODS: A Bright, Wide-Area Search for z>=7 Galaxies Rychard Bouwens 11359 Panchromatic WFC3 survey of galaxies at intermediate z: Early Release Science program for Wide Field Camera 3. Robert W. O'Connell 11563 Galaxies at z~7-10 in the Reionization Epoch: Luminosity Functions to <0.2L* from Deep IR Imaging of the HUDF and HUDF05 Fields Garth D. Illingworth 12007 Supernova Followup Garth D. Illingworth 12060 Cosmic Assembly Near-IR Deep Extragalactic Legacy Survey GOODS-South Field, Non-SNe-Searched Visits Sandra M. Faber 12061 Cosmic Assembly Near-IR Deep Extragalactic Legacy Survey GOODS-South Field, Early Visits of SNe Search Sandra M. Faber 12062 Galaxy Assembly and the Evolution of Structure over the First Third of Cosmic Time - III Sandra M. Faber 12099 Supernova Follow-up for MCT Adam Riess 12177 3D-HST: A Spectroscopic Galaxy Evolution Treasury Pieter Van Dokkum 12461 Supernova Follow-up for MCT Adam Riess 12498 Did Galaxies Reionize the Universe? Richard S. Ellis 12866 A Morphological Study of ALMA Identified Sub-mm Galaxies with HST/WFC3 Mark Swinbank

9 Program ID Program Title Program PI 12990 Size Growth at the Top: WFC3 Imaging of Ultra-Massive Galaxies at 1.5 < z < 3 Adam Muzzin 13779 The Faint Infrared Grism Survey (FIGS) Sangeeta Malhotra 13872 The GOODS UV Legacy Fields: A Full Census of Faint Star- Forming Galaxies at z~0.5-2 Pascal Oesch Acknowledgements The Hubble Legacy Fields program, supported through AR-13252, is based on observations made with the NASA/ESA Hubble Space Telescope, obtained at the Space Telescope Science Institute, which is operated by the Association of Universities for Research in Astronomy, Inc., under NASA contract NAS 5-26555. Financial support for this program is gratefully acknowledged. The Hubble datasets used in this program are from numerous programs that are all listed in Table 2 above, and were taken for our analysis from the MAST archive. We thank all of those who programs were combined into the HLF-GOODS-S for providing a set of extraordinary data that will have legacy value for the community into the JWST era and beyond. References Casertano, S., de Mello, D., Dickinson, M., et al., 2000, AJ, 120, 2747. Giavalisco et al., 2004, ApJ, 600, L93. Illingworth, G. D., Magee, D., Oesch, P. A., Bouwens, R., et al. 2013, ApJS, 209. Koekemoer et al., 2011, ApJS, 197, 36. Lotz et al., 2016, arxiv:1605.06567.