The stickiness of micrometer-sized water-ice particles
arXiv:1410.7199 · doi:10.1088/0004-637X/798/1/34
Abstract
Water ice is one of the most abundant materials in dense molecular clouds and in the outer reaches of protoplanetary disks. In contrast to other materials (e.g., silicates) water ice is assumed to be stickier due to its higher specific surface energy, leading to faster or more efficient growth in mutual collisions. However, experiments investigating the stickiness of water ice have been scarce, particularly in the astrophysically relevant micrometer-size region and at low temperatures. In this work, we present an experimental setup to grow aggregates composed of m-sized water-ice particles, which we used to measure the sticking and erosion thresholds of the ice particles at different temperatures between and . We show with our experiments that for low temperatures (below ), m-sized water-ice particles stick below a threshold velocity of , which is approximately ten times higher than the sticking threshold of m-sized silica particles. Furthermore, erosion of the grown ice aggregates is observed for velocities above . A comparison of the experimentally derived sticking threshold with model predictions is performed to determine important material properties of water ice, i.e., the specific surface energy and the viscous relaxation time. Our experimental results indicate that the presence of water ice in the outer reaches of protoplanetary disks can enhance the growth of planetesimals by direct sticking of particles.
Accepted by The Astrophysical Journal
References in corpus (3)
Cited by in corpus (101)
- Planetesimal formation starts at the snow line
- Chemical enrichment of giant planets and discs due to pebble drift
- Hydrocarbon emission rings in protoplanetary disks induced by dust evolution
- Evidence for the formation of comet 67P/Churyumov-Gerasimenko through gravitational collapse of a bound clump of pebbles
- Contacts of Water Ice in Protoplanetary Disks - Laboratory Experiments
- Different dust and gas radial extents in protoplanetary disks: consistent models of grain growth and CO emission
- Dust Density Distribution and Imaging Analysis of Different Ice Lines in Protoplanetary Disks
- Planetesimal rings as the cause of the Solar System's planetary architecture
- How drifting and evaporating pebbles shape giant planets II: Volatiles and refractories in atmospheres
- Rocky super-Earths or waterworlds: the interplay of planet migration, pebble accretion and disc evolution
- The evolution of dust in discs influenced by external photoevaporation
- Tracing water vapor and ice during dust growth
- Planetesimal Population Synthesis: Pebble Flux Regulated Planetesimal Formation
- Anisotropic Infall and Substructure formation in Embedded Disks
- Pebble-driven Planet Formation around Very Low-mass Stars and Brown Dwarfs
- Pebble-driven planet formation for TRAPPIST-1 and other compact systems
- Ice Grain Collisions in Comparison: CO, HO and their Mixtures
- How dust fragmentation may be beneficial to planetary growth by pebble accretion
- Why do M dwarfs have more transiting planets?
- A Tale of Planet Formation: From Dust to Planets
- Nonsticky Ice at the Origin of the Uniformly Polarized Submillimeter Emission from the HL Tau Disk
- Fingerprints of giant planets in the composition of solar twins
- Growing and Trapping Pebbles with Fragile Collisions of Particles in Protoplanetary Disks
- Origins Space Telescope Mission Concept Study Report
- A dusty origin for the correlation between protoplanetary disc accretion rates and dust masses
- The Galilean Satellites Formed Slowly from Pebbles
- Prompt planetesimal formation beyond the snow line
- Tensile Strength of Porous Dust Aggregates
- Understanding planet formation using microgravity experiments
- On dust evolution in planet-forming discs in binary systems. I -- Theoretical and numerical modelling: radial drift is faster in binary discs
- Large gaps and high accretion rates in photoevaporative transition disks with a dead zone
- A large population study of protoplanetary disks: Explaining the millimeter size-luminosity relation with or without sub-structure
- X-ray photoevaporation's limited success in the formation of planetesimals by the streaming instability
- Planet formation via pebble accretion in externally photoevaporating discs
- Influence of grain growth on the thermal structure of protoplanetary discs
- Failed Growth at the Bouncing Barrier in Planetesimal Formation
- Rapid Elimination of Small Dust Grains in Molecular Clouds
- Transmission Electron Microscopy Study of the Morphology of Ices Composed of H2O, CO2, and CO on Refractory Grains
- The Preservation of Super Earths and the Emergence of Gas Giants after Their Progenitor Cores have Entered the Pebble Isolation Phase
- Polydisperse Streaming Instability III. Dust evolution encourages fast instability
- How to make giant planets via pebble accretion
- Micrometer-Sized Water Ice Particles for Planetary Science Experiments: Influence of Surface Structure on Collisional Properties
- Formation of Comets
- Evolution of dust in protoplanetary disks of eruptive stars
- Sticky or not sticky? Measurements of the tensile strength of micro-granular organic materials
- The role of pebble fragmentation in planetesimal formation II. Numerical simulations
- Is There a Temperature Limit in Planet Formation at 1000 K?
- Collisional evolution of dust and water ice in protoplanetary discs during and after an accretion outburst
- Enriching inner discs and giant planets with heavy elements
- The importance of thermal torques on the migration of planets growing by pebble accretion
- How planets grow by pebble accretion IV: Envelope opacity trends from sedimenting dust and pebbles
- Composition and Size Dependent Sorting in Preplanetary Growth: Seeding the Formation of Mercury-like Planets
- CO2-rich protoplanetary discs as a probe of dust radial drift & trapping
- Satellitesimal Formation via Collisional Dust Growth in Steady Circumplanetary Disks
- Rocky Planetesimal Formation Aided by Organics
- Testing dust trapping in the circumbinary disk around GG Tau A
- On the stickiness of CO and HO ice particles
- MINDS. JWST-MIRI reveals a peculiar CO-rich chemistry in the drift-dominated disk CX Tau
- How the origin of stars in the Galaxy impacts the composition of planetary building blocks
- Pebble accretion in class 0/I YSOs as a possible pathway for early planet formation
- A Smoking Gun for Planetesimal Formation: Charge Driven Growth into a New Size Range
- Tracking Dust Grains During Transport and Growth in Protoplanetary Disks
- The formation of wide exoKuiper belts from migrating dust traps
- The footprint of cometary dust analogs: I. Laboratory experiments of low-velocity impacts and comparison with Rosetta data
- Gravitoviscous protoplanetary disks with a dust component. V. The dynamic model for freeze-out and sublimation of volatiles
- Stellar multiplicity affects the correlation between proto-planetary disc masses and accretion rates: binaries explain high-accretors in Upper Sco
- The impact of pre-main sequence stellar evolution on midplane snowline locations and C/O in planet forming discs
- Impact of magneto-rotational instability on grain growth in protoplanetary disks: II. Increased grain collisional velocities
- Growth of Aggregates with Liquid-Like Ice-Shells in Protoplanetary Discs
- Low-velocity collision behaviour of clusters composed of sub-mm sized dust aggregates
- Millimeter Spectral Indices and Dust Trapping By Planets in Brown Dwarf Disks
- Impact of dust size distribution including large dust grains on magnetic resistivity: an analytical approach
- Global N-body simulations of circumbinary planet formation around Kepler-16 and -34 analogues I: Exploring the pebble accretion scenario
- Vertical settling of pebbles in turbulent circumbinary discs and the in situ formation of circumbinary planets
- Pebble-driven migration of low-mass planets in the 2D regime of pebble accretion
- Which stars can form planets: Planetesimal formation at low metallicities
- Influence of grain sizes and composition on the contraction rates of planetary envelopes and on planetary migration
- Growing the seeds of pebble accretion through planetesimal accretion
- Modeling the Protoplanetary Disks of Two Brown Dwarfs in the Taurus Molecular Cloud
- Dust-Gas Coupling in Turbulence- and MHD Wind-Driven Protoplanetary Disks: Implications for Rocky Planet Formation
- Water UV-Shielding in the Terrestrial Planet-Forming Zone: Implications for Oxygen-18 Isotope Anomalies in H2-18O Infrared Emission and Meteorites
- Planet population synthesis: The role of stellar encounters
- Filling in the Gaps: Can Gravitationally Unstable Discs Form the Seeds of Gas Giant Planets?
- A correlation between chemistry, polarization and dust properties in the Pipe Nebula starless core FeSt 1-457
- Water Ice in the Edge-On Orion Silhouette Disk 114--426 from JWST NIRCam Images
- Effect of Different Angular Momentum Transport mechanisms on the Distribution of Water in Protoplanetary Disks
- Scattering polarization of 3-m water-ice feature by large icy grains
- Threshold velocity for collisional growth of porous dust aggregates consisting of cohesive frictionless spheres
- Millimeter emission in photoevaporating disks is determined by early substructures
- Monte Carlo Simulation of Dust Particles in a Protoplanetary Disk: Crystalline to Amorphous Silicate Ratio in Comets
- Dust evolution during the protostellar collapse: influence on the coupling between the neutral gas and the magnetic field
- The solar abundance problem and eMSTOs in clusters
- The role of density perturbation on planet formation by pebble accretion
- Effective dust growth in laminar circumplanetary discs with magnetic wind-driven accretion
- Collisional growth efficiency of dust aggregates and its independence of the strength of interparticle rolling friction
- Effects from different grades of stickiness between icy and silicate particles on carbon depletion in protoplanetary disks
- Collisions of small ice particles under microgravity conditions (II): Does the chemical composition of the ice change the collisional properties?
- Pebble accretion in self-gravitating protostellar discs
- C/O ratios in self-gravitating protoplanetary discs with dust evolution
- Zero Age Planetary Orbit of Gas Giant Planets Revisited: Reinforcement of the Link with Stellar Metallicity
- Dust evolution: going beyond the empirical