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. 2014 Mar 28;171(8):2051–2066. doi: 10.1111/bph.12417

Table 1.

Naturally occurring and synthetic fatty acids and other lipids: mitochondrial actions of potential value in cancer chemotherapy

Fatty acid derivative Mitochondrial actions Pathways effected Function References
Butyric acid Dissipation of the mitochondrial membrane potential (ΔΨ) Caspase-3 activation ↑Apoptosis Growth arrest Heerdt et al. (1998) Milovic et al. (2000)
Bromo-analogues of butyric and propionic acids ↑ROS, DNA damage ↑Apoptosis Milovic et al. (2000)
Palmitic acid ↓Mitochondrial membrane ΔΨ, cytochrome c release ↑Apoptosis ↑Cell death Merrill and Jones (1990) Schlame et al. (2000) Ostrander et al. (2001)
13-Methyltetradecanoic acid Disrupted mitochondrial integrity and caused dysfunction, cytochrome c release ↑Bax, ↓Bcl-2 Caspase-3 activation ↓pAkt ↑p38 and JNK MAPK ↑Apoptosis Growth inhibition Yang et al. (2000) Wongtangtintharn et al. (2005) Lin et al. (2012)
Arachidonic acid-derived PGE2 ↑EGFR/ERK MAPK ↑PI3K/Akt ↑Survival ↑Proliferation Chen et al. (2009)
Eicosapentaenoic acid (EPA) ↑ATP glycolysis, ↑ROS, ↓mitochondrial membrane ΔΨ Caspase-3 activation PKC inhibition, ↓Bcl-2 ↑Apoptosis Growth inhibition Denys et al. (2005) Colquhoun (2009)
EPA-derived epoxides p38 MAPK ↑Apoptosis Growth inhibition Cui et al. (2011)
Docosahexaenoic acid PKC inhibition, ↓Bcl-2 ↑Apoptosis Denys et al. (2005)
CLA ↓DNA synthesis ↓Bcl-2, ↓PI3K/Akt ↑Apoptosis ↓Proliferation Ip et al. (1999) Ip et al. (2000) Kim et al. (2002)
Jacaric acid ↑ROS ↓Bcl-2, caspase-3,-8 and-9 activation, PARP cleavage ↑Apoptosis (intrinsic and/or extrinsic pathways) Shinohara et al. (2012) Gasmi and Sanderson (2013)
α-Eleostearic acid ↓Mitochondrial membrane ΔΨ, ↑DNA fragmentation ↑lipid peroxidation ↑Apoptosis Tsuzuki et al. (2004), Grossmann et al. (2009)
Vaccenic acid ↑DNA fragmentation Growth inhibition ↓Cytosolic glutathione ↑Cell death Miller et al. (2003)
Punicic acid Disrupted the mitochondrial membrane ΔΨ, ↑DNA fragmentation, ↑lipid peroxidation Caspase-3 and-9 activation ↓Bcl-2 (decreased Bcl-2:Bax ratio) ↓pAkt ↑Apoptosis Grossmann et al. (2010), Gasmi and Sanderson (2010)
Tetradecylthioacetic acid ↑Mitochondrial proliferation, ↑oxidative stress, ↑ROS Caspase-3 activation PARP cleavage ↑Apoptosis ↓Proliferation Tronstad et al. (2001) Lin et al. (2012) Tronstad et al. (2003)
Jasmonates Cytochrome c release, membrane depolarization, swelling of mitochondria, ↓ATP ↑Cell death Fingrut and Flescher (2002) Rotem et al. (2005) Fingrut et al. (2005) Heyfets and Flescher (2007) Goldin et al. (2007)
EETs ↑EGFR/ERK ↑PI3K/Akt ↑Survival ↑Proliferation Chen et al. (2009)
HETEs and downstream LTs Inhibition of 5-LOX depleted mitochondrial glutathione and ↑lipid peroxidation ↑apoptotic Bcl-2 family proteins ↑Survival Enhanced growth Ghosh and Myers (1998) Avis et al. (2001) Hoque et al. (2005)
Short chain ceramides Cytochrome c release, ↓mitochondrial membrane ΔΨ, ↑ROS Caspase-3 activation, ↓Bcl-2: Bax ratio, ↑p38 and JNK MAPK phosphorylation, PARP ↑Apoptosis Fillet et al. (2003) Flowers et al. (2012)
Anandamide and N-acylethanolamines ↑Permeability of inner mitochondrial membrane, ↑↓lipid peroxidation*, energetic and permeability transition alterations, Ca2+ overload and PTP modulation ↑↓Apoptosis ↑↓proliferation Epps et al. (1982) Gulaya et al. (1993) Schwarz et al. (1994) De Petrocellis et al. (1998) Maccarrone et al. (2000) Sarker et al. (2000) Wasilewski et al. (2004)
Cardiolipin Involved in ROS-promoted cytochrome c release Membrane targeting of Bid, activation of Bax ↑Apoptosis Kuwana et al. (2002)
Perifosine ↑Cytochrome c release, mitochondrial oxidative phosphorylation disruption, induction of permeability transition Akt inhibition Caspase-3,-8 and-9 activation ↑JNK MAPK translocation ↑Apoptosis Kondapaka et al. (2003) Nieto-Miguel et al. (2006) Chiarini et al. (2008) Burgeiro et al. (2013)
Edelfosine Mitochondrial dysfunction via multiple mechanisms Altered mitochondrial membrane ΔΨ, ↑DNA fragmentation, ↑ROS Caspase-3 activation PARP ↑Apoptosis Cabaner et al. (1999) Gajate et al. (2000) Mollinedo et al. (2011)
Isopropylaminopropanol derivatives (C16:0 and C18:1) Inhibition of multiple pro-survival kinases Growth inhibition Cao et al. (2013)
*

Dependent on fatty acid chain length and saturation.