Snapshot 2

No description specified

DOI: 10.15490/fairdomhub.1.investigation.587.2

Zenodo URL: None

Created at: 1st May 2026 at 15:06

Resource

Mitochondrial fatty acid oxidation in human liver

No description specified
Contents

Model construction

No description specified

Models

No description specified

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

odendaal2

Adjusted model to test the model's ability to oxygen consumption rate by permeabilised HepG2 cells in an Oroboros oxygraph. Data from [Fletcher et al. (2019)](https://insight.jci.org/articles/view/127737).

  • odendaal2.xml

odendaal3

Adjusted model to test the model's ability to predict palmitoyl-CoA and octanoyl-CoA dehydrogenation in human liver lysate, with and without anti-MCAD and anti-VLCAD antibodies. Data from [Aoyama et al. (1995)](https://www.jci.org/articles/view/117947).

  • odendaal3.xml

Parameter Search SOP

No description specified

  • Parameter search SOP.pdf

Kinetics Minireviews

Minireviews about each enzyme in the mitochindrial beta-oxidation model on which the final parameter choices (fixed-parameter model) and parameter sampling distributions (ensemble) were based.

Parameter Search SOP

No description specified

  • Parameter search SOP.pdf

CPT1

Carnitine palmitoyltransferase 1 (EC 2.3.1.21)

  • 1, CPT1.pdf

Equilibrium constants

The theory, calculations, and conditions that went into estimating the Keqs.

  • 0, Theory - Estimating the equilibrium constants.pdf

CACT

Carnitine acylcarnitine translocase (UniProt: O43772)

  • 2, CACT.pdf

CPT2

Carnitine palmitoyltransferase 2 (EC 2.3.1.21)

  • 3, CPT2.pdf

CrAT

Carnitine acetyltransferase (EC 2.3.1.7)

  • 4, CrAT.pdf

SCAD

Short-chain acyl-CoA dehydrogenase (EC 1.3.99.2)

  • 5, SCAD.pdf

MCAD

Medium-chain acyl-CoA dehydrogenase (EC 1.3.99.3)

  • 6, MCAD.pdf

VLCAD

Very long-chain acyl-CoA dehydrogenase (EC 1.3.8.9)

  • 7, VLCAD.pdf

CROT

Crotonase / Enoyl-CoA hydratase (EC 4.2.1.17)

  • 8, CROT.pdf

MSCHAD

Medium-/short-chain hydroxyacyl-CoA dehydrogenase (EC 1.1.1.35)

  • 9, MSCHAD.pdf

MCKAT

Medium-chain ketoacyl-CoA thiolase (EC 2.3.1.16)

  • 10, MCKAT.pdf

MTP

Mitochondrial trifunctional protein (UniProt: P40939)

  • 11, MTP.pdf

ACOT

Acyl-CoA thioesterases (EC 3.1.2.1. and EC 3.1.2.2)

  • 12, ACOT.pdf

Carnitine

L-carnitine as conserved moiety

  • 13.1, CarMAT and CarCYT.pdf

CoA

CoA as conserved moiety

  • 13.2, CoAMAT and CoACYT.pdf

Acetyl-CoA (mito)

Acetyl-CoA in the mitochondrion as constant metabolite

  • 13.3, AcetylCoAMAT.pdf

NADH and NAD+

NADH and NAD+ (Nicotinamide adinine dinucleotide) as constant values.

  • 13.4, NAD and NADH.pdf

ETF

Oxidised and reduced electron transferring flavoprotein as constant values.

  • 13.5, ETF.pdf

Compartment volumes

Volume per mg mitochondrial protein of mitochondrion and cytosol.

  • 13.6, Compartment Volumes.pdf

Model notebooks

No description specified

  • Model_v4.zip

Model validation

No description specified

HepG2 oxygen consumption

Validation of model's ability to predict oxygen consumption flux as measured usign permeabilised cells in an Oroboros Oxygraph. Generates Fig. 2A in the associated publication.

Download "Model_notebooks.rar", unzip, and run: "2, generate-model-Oroboros-validation-[needs(1)]-20221109.nb" and "4, Fig2A-Oroboros-simulation-data-[needs-(1-2-and-3)]-20221109.nb" after running "1, generate-model-20221109.nb"

HepG2 protein concentration for O2 consumption assay

Protein measurement used to normalised the oxygen consumption flux measured on an Oroboros oxygraph.

  • 3, protein_WT_KO_PCoA_Malate_Carnitine_20230609.xlsx

Oxygen concentration and consumption flux in permeabilised HepG2 cells

Measured in an Oroboros oxygraph.

  • 3, data_WT_KO_PCoA_Malate_Carnitine_20230307.xlsx

odendaal2

Adjusted model to test the model's ability to oxygen consumption rate by permeabilised HepG2 cells in an Oroboros oxygraph. Data from [Fletcher et al. (2019)](https://insight.jci.org/articles/view/127737).

  • odendaal2.xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

Report: Selection of HepG2 for MCAD-KO

A short description of the experiments conducted to decide on HepG2 cells as the appropriate line for the generation of an MCAD knockout. IHH, Hep3B, HepG2, and HUH-7 cells were all consdered.

  • Selection of HepG2 for MCAD knockout.pdf

Whole-body ketogenic flux

Validation of model's ability to predict whole-body ketogeneic flux as extracted form [Fletcher et al. (2019)](https://insight.jci.org/articles/view/127737). Generates Fig. 2B in the associated publication.

Download "Model_notebooks.rar", unzip, and run: "2, generate-model-Oroboros-validation-[needs(1)]-20221109.nb" and "5, Fig2B-ketogenesis-validation-[needs-(1)]-20221109.nb" after running "1, generate-model-20221109.nb"

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

ACAD activity partitioning

Testing the model's ability to predict palmitoyl-CoA and octanoyl-CoA dehydrogenation in human liver lysate, with and without anti-MCAD and anti-VLCAD antibodies. Generates Fig. 2 C and D in the associated publication. Data from [Aoyama et al. (1995)](https://www.jci.org/articles/view/117947).

Downoad and unzip "Model_notebooks.rar" and run "6, Fig2C+D-ACAD-partitioning-validation-[needs-(1)]-20221109.nb" after running "1, generate-model-20221109.nb".

odendaal3

Adjusted model to test the model's ability to predict palmitoyl-CoA and octanoyl-CoA dehydrogenation in human liver lysate, with and without anti-MCAD and anti-VLCAD antibodies. Data from [Aoyama et al. (1995)](https://www.jci.org/articles/view/117947).

  • odendaal3.xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

Model analysis

No description specified

Predicting urinary acylcarnitines under metabolic decompensation.

Prediction of patient urinary acylcarnitine under metabolic decompensation. Generates Fig. 3, Table 1, and Table S2 in the associated publication.

Download and unzip "Model_notebooks.rar" and run "7, Fig3+4+S1+S3-ACADDs-[needs-(1)]-20221109.nb" after running "1, generate-model-20221109.nb"

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

Metabolic control analysis

Calculation of control and response coefficients. Generates Fig. 5, Fig. S4, and Table S2 in the associated publication.

Download "Model_notebooks.rar", unzip, and run: "8, Fig5-control-coefficients-[needs-(1)]-20221109.nb", "9, TableS2-response-coefficients-[needs-(1)]-20230302.nb", and "15, FigS4-control-coefficients-low-AcetylCoA-[needs-(1)]-20221109.nb" after running "1, generate-model-20221109.nb"

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

Comparing acyl-CoA dehydrogenase deficiencies

Based on odendaal1, a control model is made and compared to model deficient for short-chain acyl-CoA dehydrogenase (SCADD, 0%), medium-chain acyl-CoA dehydrogenase (MCADD, 0%), and very long-chain acyl-CoA dehydrogenase (VLCADD, 10%). With and withou metabolite partitioning, and with a fixed mitohondrial free CoASH. Generates Figures 3, 4, S1, S2, and S3 in the related paper.

Download "Model_notebooks.rar", unzip, and run: "7, Fig3+4+S1+S3-ACADDs-[needs-(1)]-20221109.nb" and "14,
...

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

MCADD rescue titration

Incrementally increase the activity of some target rescue enzymes from 20% of default expression to 200% of default expression in a control and MCADD model to see if flux and CoASH concentration are rescued. Generates Fig. 6, S5, and S6.

Download "Model_notebooks.rar", unzip, and run "11, Fig6+S5-rescues-[needs-(1-and-10)]-20221109.nb", "10, Fig6B-inset-rescues-(low-acetylCoA)-[needs-(1)]-20221109.nb", and "16, FigS6-rescues-20221109-fixed-[needs-(1)]-CoASH.nb" after running "1, generate-model-20221109.nb"
...

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

MCADD patient personalised modelling

Creation of personalised models of control, symptomatic MCADD, asymptomatic MCADD, and early diagnosis MCADD individuals using fibroblast proteomics to adjust model Vmaxes. Generates Fig. 7 and S7.

Download and unzip "Model_notebooks.rar" and run "13, Fig7-personalised-models-[needs-(1-and-12)]-20221109.nb" after running "1, generate-model-20221109.nb" and "12, Fig7-S7-preprocessing-[needs-(1)-]-20221109.nb".

Fibroblasts proteomics

Proteomics from MCADD and control individuals' fibroblasts.

  • Fibroblast proteomics.xlsx

odendaal1

Human mitochondrial fatty acid oxidation of saturated, even chain acyl-Coas beginning at C16. See Model description for detail.

  • odendaal1 (1).xml

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook names state which notebooks need to be run before them in order for them to word, e.g. "[needs-(1)]" indicates that the notebook numbered 1 must be run and its exported output generated before the given notebook can work. This has to do with the model being generated in only one notebook to avoid duplication.

  • Model_notebooks.zip

Sequestration of CoA and adaptation of CoA metabolism in MCAD-knockout cell and mouse models in response to energetic stress

Following on _in silico_ and _in vitro_ work, the effect of MCAD deficiency on CoA metabolism was investigated. Using a recently published HILIC-MS/MS method, free and acylated CoA species could be measured simultaneously in HepG2 MCAD-KO cells. The levels of CoA biosynthesis intermediates and total CoA was also characterised by HPLC in liver samples from MCAD-KO mice exposed to energetic stress (fasting adn cold). qPCR was applied to investigate changes in the CoA metabolism that might constitute
...

Computational model (in silico)

No description specified

Model notebooks

Unzip model notebooks and keep in the same folder. Notebook "0, generate_model.nb" needs to be run before the others can be, as the model needs to be exported as Excel files before they cvan be used to make the figures.

  • model_notebooks.zip

odendaal4

No description specified

  • simulate

HepG2 cells (in vitro)

The behaviour of a published MCAD-KO HepG2 cell line was compared to that of a wild-type HepG2 cell line in terms of the changes in acyl-CoA and acylcarnitine levels (measured by HILIC-MS/MS) and gene expression pertaining to CoA metabolism (characterised by qPCR). Additionally, the incorporation of label from stable isotope-labelled pantothenate (vitamine B5) was over 24 hours of exposure to an energetic stressor was also investigated.

HepG2 acylcarnitine measurements, palmitate/no-glucose (Fig. 2, Fig. S2, Fig. S7)

No description specified

  • data_Fig2_FigS2_FigS7_acylcarnitine_hepG2_palm_no_gluc.xlsx

HepG2 acyl-CoA measurements, palmitate/no-glucose (Fig. 2, Fig. S3, Fig. S7)

No description specified

  • data_Fig2_FigS3_FigS7_acyl_CoA_hepG2_palm_no_gluc.xlsx

HepG2 CoA labelling data, palmitate/no-glucose (Fig. 3, Fig. S8, Tables S1-S4)

Incorporation of stable isotope from pantothenate into total and free CoA pools.

  • data_Fig3_FigS8_TablesS1-S4_labelling_experiment_hepG2_palm_no_gluc.xlsx

HepG2 acyl-CoA measurements, palmitate/low-glucose (Fig.S5, Fig. S7)

No description specified

  • data_FigS5_FigS7_acyl_CoA_hepG2_palm_low_gluc.xlsx

HepG2 acylcarnitine measurements, palmitate/low-glucose (Fig. S5, Fig. S7)

No description specified

  • data_FigS5_FigS7_acylcarnitine_hepG2_palm_low_gluc.xlsx

HepG2 acyl-CoA/acylcarnitine measurements statistical significance, palmitate/low-glucose (Fig. S6)

No description specified

  • data_FigS6_acyl_CoA_acylcarnitine_significance_hepG2_palm_low_gluc.xlsx

HepG2 acyl-CoA/acylcarnitine measurements statistical significance, palmitate/no-glucose (Fig. S4)

No description specified

  • data_FigS4_acyl_CoA_acylcarnitine_significance_hepG2_palm_no_gluc.xlsx

HepG2 qPCR, PANK isoform expression (Fig. S9)

No description specified

  • data_FigS9_hepG2_qPCR_panks.xlsx

HepG2 qPCR, palmitate/no-glucose (Fig. S11)

No description specified

  • data_FigS11_hepG2_qPCR_palm_no_gluc.xlsx

HepG2 qPCR statistical significance, palmitate/no-glucose (Fig. S12)

No description specified

  • data_FigS12_hepG2_qPCR_significance_palm_no_gluc.xlsx

HepG2 qPCR, palmitate/low-glucose (Fig. S13)

No description specified

  • data_FigS13_hepG2_qPCR_palm_low_gluc.xlsx

HepG2 qPCR statistical significance, palmitate/low-glucose (Fig. S14)

No description specified

  • data_FigS14_hepG2_qPCR_significance_palm_low_gluc.xlsx

Mice (in vivo)

MCAD-KO mice (C57BL/6J background) were exposed to three different conditions: "fed", "fasting", and "fasting + cold". In this study we determined the concentration of various CoA biosynthetic intermediates (including CoA) and the expression of CoA metabolic genes in liver tissue samples from these groups of mice.

Mice CoA biosynthetic intermediates (Fig. 4C)

No description specified

  • data_Fig4C_mice_CoA_biosynthesis_intermediates.xlsx

Mice qPCR (Fig. 4E-F)

The expression of various genes related to the CoA metabolism as measured by qPCR.

  • data_Fig4D-E_mice_qPCR.xlsx

Mouse liver body temperature (Fig. S10)

No description specified

  • data_FigS10_mice_body_temperature.xlsx

Ensemble modelling of human mitochondrial fatty acid oxidation

Considering parameter uncertainty explicitly by generating 50 models.

Ensemble kinetic model

Explicit consideration of kinetic paramater uncertainty as obtained from literature.

Parameter Search SOP

No description specified

  • Parameter search SOP.pdf

Model notebooks

No description specified

  • Model_v4.zip
Fingerprints

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Citation
Odendaal, C., Bakker, B., Jager, E., Derks, T. G. J., & Krebs, O. (2026). FAIRDOMHub. https://doi.org/10.15490/FAIRDOMHUB.1.INVESTIGATION.587.2
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Snapshot 2 (1st May 2026) DOI
Snapshot 1 (13th Jun 2023) DOI
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Created: 1st May 2026 at 15:06

Last updated: 1st May 2026 at 15:07

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