how-to-use-thermofun-examples.ipynb

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    "![ThermoFun logo](common/fun_long_logo-01.png)\n",
    "\n",
    "**ThermoFun** is an open-source client that delivers thermodynamic properties of substances and reactions at the temperature and pressure of interest.\n",
    "\n",
    "Miron et al., (2023). ThermoFun: A C++/Python library for computing standard thermodynamic properties of substances and reactions across wide ranges of temperatures and pressures. Journal of Open Source Software, 8(83), 4624\n",
    "\n",
    "[![DOI](https://joss.theoj.org/papers/10.21105/joss.04624/status.svg)](https://doi.org/10.21105/joss.04624)"
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    "#### [001 Calculate properties of a substance or reaction](how-to-use-thermofun-examples/001-how-to-calculate-properties-substance-reaction.ipynb)\n",
    "#### [002 Calculate properties using thermoEngine](how-to-use-thermofun-examples/002-how-to-calculate-properties-thermoengine.ipynb)\n",
    "#### [002b Get Database from the remote ThermoHub](how-to-use-thermofun-examples/002b_database_engine_tutorial.ipynb)\n",
    "#### [002c Reaction properties from reactants, changing master species](how-to-use-thermofun-examples/002c_reaction_properties_from_reactants.ipynb)\n",
    "Example showing how to initialize a ThermoFun database using a JSON file or from ThermoHub remote server, and then using this database object to create a ThermoEngine that is used to calculate the thermodynamic properties of a substance or reaction and any reaction equation (provided reactants are in the db)."
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    "#### [003 How to do batch calculations, T-P grid](how-to-use-thermofun-examples/003-how-to-do-batch-calculations.ipynb)\n",
    "The Batch class is useful for doing multiple (batch) calculations for a given list of substances, reactions, properties, and desired temperature and pressure grid."
   ]
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    "#### [004 How to use a database](how-to-use-thermofun-examples/004-how-to-use-a-database.ipynb)\n",
    "A database is initialized with a ThermoDataSet. A ThermoDataSet is a collection of records of substances and/or reactions also known in the (geo)chemical community as a thermodynamic database, e.g. SUPCRT98, PSI-Nagra, CEMDATA18."
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   "source": [
    "#### [005 How to append own data and make comparisons](how-to-use-thermofun-examples/005_append_own_data_tutorial.ipynb)\n",
    "Learn how to append your own data from a JSON file and compare calculate properties from different sources and against experiments. "
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   "source": [
    "#### [006 How to add own reaction data](how-to-use-thermofun-examples/006_solved_reacdc_RBM_tutorial.ipynb)\n",
    "Learn how to append add your own reaction with a method of calculating its properties (Ryzhenko-Bryzgalin (MRB) model). Create a substance depentend on this reaction and calculate its properties.  "
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    "#### [007 Example of how uncertainty is propagated in ThermoFun](how-to-use-thermofun-examples/007_simple_uncertainty_propagation.ipynb)\n",
    "Example on how ThermoFun propagates errors in calculate properties provided the uncertainties in the reference properties and method parameters. "
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   "source": [
    "#### [008 Generate all independent reactions from given substances](how-to-use-thermofun-examples/008_chemicalfun_generate_reactions.ipynb)\n",
    "Example on how to generate reactions from a list of substances formulas "
   ]
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   "source": [
    "#### [009 Generate reactions and export them to phreeqc](how-to-use-thermofun-examples/009_reactions_phreeqc_export.ipynb)\n",
    "Example on how to generate reactions from substances caluclate thier properties and export them to phreeqc text format"
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   "source": [
    "#### [010 Calculate the water density and dielectric constant](how-to-use-thermofun-examples/010_water_properties.ipynb)\n",
    "Example on how to calculate the density and dielectric constant of water "
   ]
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