J. Cook

发表

The Pluto system: Initial results from its exploration by New Horizons

C. M. Lisse, T. Lauer, D. Reuter, 2015, Science.

Evidence for longitudinal variability of ethane ice on the surface of Pluto

W. Grundy, C. Olkin, L. Young, 2014, 1406.1748.

The Pluto system: Initial results from its exploration by New Horizons

C. M. Lisse, T. Lauer, D. Reuter, 2015, Science.

Recent cryovolcanism in Virgil Fossae on Pluto

S. Sandford, O. Umurhan, J. Moore, 2019, Icarus.

Methane distribution on Pluto as mapped by the New Horizons Ralph/MVIC instrument

D. Reuter, R. Beyer, B. Schmitt, 2018, Icarus.

The Global Color of Pluto from New Horizons

D. Reuter, R. Beyer, B. Schmitt, 2017, The Astronomical Journal.

Physical Characterization of TNOs with JWST

D. Ragozzine, Michael Mueller, N. Pinilla-Alonso, 2015, 1511.01112.

NASA / JWST Solar System Working Group Focus Group on TNO Science! Physical Characterization of TNOs with JWST!

Michael Mueller, N. Pinilla-Alonso, W. Fraser, 2015 .

Ices on Charon: Distribution of H 2 O and NH 3 from New Horizons LEISA observations

K. Ennico, H. Weaver, W. Grundy, 2018 .

Micrometeorite impact annealing of ice in the outer Solar System

S. Desch, J. Cook, S. Porter, 2010 .

Sporadic increases in lunar atmospheric helium detected by LAMP

S. Stern, J. Cook, 2014 .

Evidence for longitudinal variability of ethane ice on the surface of Pluto

W. Grundy, C. Olkin, L. Young, 2014, 1406.1748.

Inflight radiometric calibration of New Horizons' Multispectral Visible Imaging Camera (MVIC)

D. Reuter, B. Buratti, A. Graps, 2016, 1603.08940.

Physical Characterization of TNOs with JWST

D. Ragozzine, Michael Mueller, N. Pinilla-Alonso, 2015, 1511.01112.

Analysis of Charon’s spectrum at 2.21-μm from New Horizons/LEISA and Earth-based observ

B. Schmitt, H. Weaver, C. Lisse, 2022, Icarus.

Lunar exospheric helium observations of LRO/LAMP coordinated with ARTEMIS

P. Feldman, C. Grava, J. Halekas, 2016 .

Physical state and distribution of materials at the surface of Pluto from New Horizons LEISA imaging spectrometer

D. Reuter, B. Schmitt, A. Lunsford, 2017 .

Pluto's haze as a surface material

T. Lauer, D. Reuter, B. Buratti, 2018, Icarus.

The Color of Pluto from New Horizons

D. Reuter, R. Beyer, B. Schmitt, 2017 .

Solar glint suppression in compact planetary ultraviolet spectrographs

Kurt D. Retherford, Michael W. Davis, Thomas K. Greathouse, 2015, SPIE Optical Engineering + Applications.

Lunar exospheric argon modeling

J. Chaufray, C. Grava, D. Hurley, 2015 .

Contributions of Solar Wind and Micrometeoroids to Molecular Hydrogen in the Lunar Exosphere

P. Feldman, A. Stickle, C. Grava, 2017 .

New upper limits on numerous atmospheric species in the native lunar atmosphere

P. Feldman, K. Retherford, S. Stern, 2013 .

Understanding Temporal and Spatial Variability of the Lunar Helium Atmosphere Using Simultaneous Observations from LRO, LADEE, and ARTEMIS

P. Feldman, P. Mahaffy, R. Elphic, 2016 .

Lunar atmospheric H2 detections by the LAMP UV spectrograph on the Lunar Reconnaissance Orbiter

P. Feldman, J. Chaufray, K. Retherford, 2013 .

Color, composition, and thermal environment of Kuiper Belt object (486958) Arrokoth

D. Reuter, M. Showalter, D. Britt, 2020, Science.

LRO-LAMP Observations of the Lunar Exospheric Helium Coordinated with LADEE and ARTEMIS: Analysis of Off-Nadir Pitches

P. Feldman, C. Grava, J. Halekas, 2016 .

Origin of the Pluto–Charon system: Constraints from the New Horizons flyby

J. Moore, H. Weaver, W. Grundy, 2017 .

Initial results from the New Horizons exploration of 2014 MU69, a small Kuiper Belt object

M. C. Kochte, B. Carcich, D. E. Jennings, 2019, Science.

Thermal evolution of Kuiper belt objects, with implications for cryovolcanism

Jason C. Cook, Simon B. Porter, S. Desch, 2009 .

Pluto's Sputnik Planitia: Composition of geological units from infrared spectroscopy

D. Reuter, J. Moore, B. Schmitt, 2021 .

Surface compositions across Pluto and Charon

D. E. Jennings, M. W. Buie, S. Protopapa, 2016, Science.

First extreme and far ultraviolet spectrum of a Comet Nucleus: Results from 67P/Churyumov-Gerasimenko

Eric Schindhelm, Paul D. Feldman, Lori M. Feaga, 2015 .

Near-Infrared Spectroscopy of Charon: Possible Evidence for Cryovolcanism on Kuiper Belt Objects

Ted L. Roush, Chadwick Aaron Trujillo, Jason C. Cook, 2006 .

The distribution of H2O, CH3OH, and hydrocarbon-ices on Pluto: Analysis of New Horizons spectral images

D. Reuter, B. Schmitt, A. Lunsford, 2019, Icarus.

Composition of Pluto’s small satellites: Analysis of New Horizons spectral images

D. Reuter, B. Schmitt, A. Lunsford, 2017, Icarus.

Upper Limits on Gaseous CO at Pluto and Triton from High-Resolution Near-IR Spectroscopy

Eliot F. Young, Roger V. Yelle, Jason C. Cook, 2001 .

Disk-resolved Photometric Properties of Pluto and the Coloring Materials across its Surface

D. Reuter, R. Beyer, T. Gautier, 2020, The Astronomical Journal.

Pluto’s global surface composition through pixel-by-pixel Hapke modeling of New Horizons Ralph/LEISA data

D. Reuter, B. Schmitt, A. Lunsford, 2016, 1604.08468.

Detection of ammonia on Pluto’s surface in a region of geologically recent tectonism

O. Umurhan, J. Moore, B. Schmitt, 2019, Science Advances.

Spectral variability of Charon’s 2.21-μm feature

B. Carry, F. DeMeo, R. Binzel, 2015 .

The formation of Charon’s red poles from seasonally cold-trapped volatiles

T. Lauer, D. Reuter, B. Buratti, 2016, Nature.

The small satellites of Pluto as observed by New Horizons

D. E. Jennings, G. R. Gladstone, J. M. Moore, 2016, Science.

Surface composition of Pluto's Kiladze area and relationship to cryovolcanism

A. Emran, D. Cruikshank, J. Cook, 2023, Icarus.

Pluto's Putative Cryovolcanic Constructs

T. Lauer, O. Umurhan, J. Moore, 2016 .

The small satellites of Pluto as observed by New Horizons

C. M. Lisse, T. Lauer, D. Reuter, 2016, Science.