Effect of Particle Traps on the Disk Chemistry and the Future Composition of Planets

STFC · United Kingdom government procurement

GlobalGov surfaces government procurement from around the world, including the markets your competitors overlook.

March 30, 2027
Response Due
Active
Status

Opportunity Overview

Recent observations of protoplanetary disks reveal that substructures in the dust distribution of protoplanetary disks are common. These substructures show different forms, prevalence, locations, scales, and amplitudes around stars with different properties, such stellar luminosity and age (Andrews 2020). Although planet-disk interaction is a popular explanation for the origin of these structures, there are several theoretical alternatives and currently the real origin remains unknown (Pinilla & Youdin 2017), and planets have been only found in one protoplanetary disk (Keppler et al., 2018). The purpose of this project is to use chemical models together with hydrodynamical and dust evolution models as crucial keys to differentiate between all these models for the origin of the observed substructures. This research is timely with the new ALMA MAPS data and the incoming ALMA AGE-PRO data, which aim to map the chemical structures and constrain the properties of the gas reservoirs on planet-forming scales, in a variety of protoplanetary disks.

Parametric studies of disk chemistry with simple prescriptions of gas and dust have shown that depletions of dust and gas make those parts of the disk more transparent to stellar and external radiation (UV and X-rays), and therefore these regions become warmer. This will have a direct influence on the locations of the ice lines of different abundant volatiles, such as water and carbon-monoxide, and as a consequence it will also affect the composition of the planets forming within these disks. Contrary, in the regions where particles concentrate, the disk temperature decrease and some volatiles are sequestered in the grains (Facchini et al., 2018, Alarcón et al., 2020). Current chemical models have only explored in detail the case of planet-disk interaction, with several simplifications. In this thesis, we will explore the effect of different origins of pressure bumps in the disk, including planets, dead zones, zonal...

This is one of 1,833 active United Kingdom Research Development opportunities most of your competitors will never see.

Your competitors are watching the same crowded contracts everyone else is. Track this opportunity and every one like it worldwide, set deadline alerts, and win where they aren’t. Free for 14 days, no card.

Start Free

Solicitation Details

Issuing agencySTFC
CountryUnited Kingdom
CategoryResearch Development
PublishedSeptember 30, 2023
Procurement stageActive solicitation
Response dueMarch 30, 2027
StatusOpen — accepting responses
Official sourceView original notice
Last verifiedAugust 09, 2026

Source: UK Research and Innovation (UKRI) — Open Government Licence v3.0.

Related Opportunities in United Kingdom

STFC Coventry 2023 DTP
STFC Manchester Earth 2023 DTP
DRI-focussed training for research facilitators and teams (DRIFT)
Particle Physics
RAL Studentship 2 at Bristol 2023
Bayesian Deep Learning for Cosmology with Euclid
GridPP7 Oxford Staff Grant
Jets in hot hadronic matter

See every United Kingdom Research Development opportunity your competition is missing. Free for 14 days.

Get real-time alerts, competitive intelligence, and deadline tracking for this and every market worldwide.

Start Free Trial — No Card Required

Free 14-day trial · no card required

See who is already competing here →

Get a free United Kingdom Research Development intelligence report in your inbox

A personalized report on United Kingdom Research Development opportunities, emailed in 5-10 minutes. One per month, no account needed.