Dirk Scholte

Logo

Home

GitHub

LinkedIn

Bluesky

Data

Publications

Pottery

Data

Here you can find some data products which are derived from work related to the papers below.

The JWST EXCELS survey: Probing strong line diagnostics and the chemical evolution of galaxies over cosmic time using Te-metallicities

Paper link: Scholte et al. (2025)

The data files for the tables in the paper are available for download below. Please reach out if there are any issues.

Table 3 (Properties of the EXCELS sample): Download here.

Version of Table 3 with Campbell+86 T-T relations: Download here.

Table 4 (Properties of the DESI sample): Download here.

Table C1 (Line ratios of the EXCELS sample): Download here.

Line ratios of the DESI sample: Download here.


The atomic gas sequence and mass-metallicity relation from dwarfs to massive galaxies

Paper link: Scholte et al. (2024)

Atomic gas sequence

Our measurements of the atomic gas fraction of galaxies are listed below (as in Table A1 in the paper). We measured the atomic gas fractions as a function of stellar mass for several sample selections, for more details on the sample selection see the paper. For most purposes we recommend you use the mass complete sample selection.

Mass complete selection: Download here

r-band flux limited selection: Download here

MZR sample selection: Download here

Representative SF selection: Download here

You can use the function below to plot the function we fitted to the mass complete data (parameters for fits to other samples can be found in our paper):

def logfhi(logmstar, gamma0=-0.14, gamma1= -0.854, beta=1.2, M0=8.98,logfhi7=0.45):
    '''The atomic gas sequence of a mass complete sample of galaxies.'''
    return logfhi7 + gamma0*np.log10((10**logmstar)/(10**7)) + (gamma1-gamma0)/beta * np.log10(1+((10**logmstar)/(10**M0))**beta)

Mass-metallicity relation

Measurements of the mass-metallicity relation for an emission line flux limited sample of galaxies: Download here.

You can use the function below to plot the function we fitted to the data:

def mzr(logmstar, Z0=8.854, M0=10.49, gamma1=0.2439, beta0=1.20):
    '''The mass-metallicity relation for an emission line flux limited sample'''
    return Z0 - gamma1/beta0 * np.log10(1+(10**logmstar/(10**M0))**-beta0)

Measurements of the mass-metallicity relation for a representative sample of star-forming galaxies: Download here.


Cold gas mass measurements for the era of large optical spectroscopic surveys

Paper link: Scholte & Saintonge (2023)

Grids of photoionization models: Download here.