for alternative biodiesel production in Nigeria. Adamu et al. (2013) assessed and
optimized the utilization of energy from yellow oleander (T. peruviana) by blending
for biodiesel with conventional diesel in Nigeria. Adebowale et al. (2012) examined
the fuel qualities of T. peruviana methyl esters seed oil. Adepoju et al. (2018)
investigated the production of biodiesel from T. peruviana seed oil as a renewable
source for the value of sustainable and ecological developments in West Africa using
Brette Pearl Spar Mable (BPSM) as an effective and easily recoverable catalyst.
Ana Godson and Udofia Bassey (2015) characterized the oil as a precursor and
biodiesel as a product synthesized from T. peruviana (lucky nut) seeds. Arun et al.
(2017) optimized the biodiesel synthesis from yellow oleander/lucky nut
(T. peruviana) using regression analysis-based response surface methodology
(RSM). Arunprasad and Balusamy (2018) investigated the experimental studies on
the functioning and emission attributes of a diesel engine by changing the injection
timing and injection pressure using blended biodiesel produced from Pongamia,
T. peruviana, Azadirachta indica and Jatropha.
Balusamy and Marappan (2007) evaluated the functioning of diesel engine of
direct injection mode with blend ratios of petroleum diesel and T. peruviana seed oil.
Balusamy and Marappan (2008) compared the blend ratios of biofuel synthesized
from T. peruviana seed oil with petroleum diesel as a fuel for diesel (CI) engine.
Balusamy and Marappan (2009) compared the functioning and emission attributes of
T. peruviana seed oil (TPSO) with other oil-rich fodder crops in a CI engine.
Balusamy and Marappan (2010) studied the effect of injection pressure and injection
time on CI engine loaded with T. peruviana seed oil methyl ester. Basumatary
(2014) reviewed the production of biodiesel from lucky nut (T. peruviana) seed oil
as a renewable and substitute fuel for CI (diesel) engines.
Betiku and Ajala (2014) conducted modelling and optimization of biodiesel
synthesis from T. peruviana (yellow bells) oil using plantain (Musa paradisiaca)
peels as a heterogeneous alkaline catalyst using biologically inspired artificial neural
network (ANN) versus RSM. Bora et al. (2014a) synthesized and characterized
yellow bells or lucky nut (T. peruviana) seed oil-based alkyd resin. Bora et al.
(2014b) compared hybrid biodiesel from oil-rich fodder crops such as Mimusops
elengi Linn (MEO), Gmelina arborea Roxb (GAO), T. peruviana Schum (TPO),
Mesua ferrea Linn (MFO) and Acer laurinum Hasskarl (ALO) with diesel blends.
Bora et al. (2015) performed structural and dynamic investigations on
microemulsion-based hybrid biofuels from T. peruviana seed oil. Borah et al.
(2017) studied the catalytic conversion of T. peruviana oil into biodiesel using
TiO 2 -ZnO nanocatalyst.
Chavan et al. (2018) executed experimental studies on biodiesel synthesis from
T. peruviana. Dawood et al. (2018) synthesized and characterized alkyl esters from
oil-rich fodder crop, lucky nut oil, using magnesium oxide (MgO) as a nanocatalyst
and methyl alcohol as an alcohol. Deka and Basumatary (2011) studied the production of superior quality biofuel from lucky nut (T. peruviana) seed oil. Duraisamy
et al. (2012) studied the influence of compression ratio on a diesel (CI) engine fuelled
with T. peruviana seed oil methyl ester. Eloka-Eboka and Inambao (2017)
142
S. Sivamani et al.
optimized the utilization of energy from yellow oleander (T. peruviana) by blending
for biodiesel with conventional diesel in Nigeria. Adebowale et al. (2012) examined
the fuel qualities of T. peruviana methyl esters seed oil. Adepoju et al. (2018)
investigated the production of biodiesel from T. peruviana seed oil as a renewable
source for the value of sustainable and ecological developments in West Africa using
Brette Pearl Spar Mable (BPSM) as an effective and easily recoverable catalyst.
Ana Godson and Udofia Bassey (2015) characterized the oil as a precursor and
biodiesel as a product synthesized from T. peruviana (lucky nut) seeds. Arun et al.
(2017) optimized the biodiesel synthesis from yellow oleander/lucky nut
(T. peruviana) using regression analysis-based response surface methodology
(RSM). Arunprasad and Balusamy (2018) investigated the experimental studies on
the functioning and emission attributes of a diesel engine by changing the injection
timing and injection pressure using blended biodiesel produced from Pongamia,
T. peruviana, Azadirachta indica and Jatropha.
Balusamy and Marappan (2007) evaluated the functioning of diesel engine of
direct injection mode with blend ratios of petroleum diesel and T. peruviana seed oil.
Balusamy and Marappan (2008) compared the blend ratios of biofuel synthesized
from T. peruviana seed oil with petroleum diesel as a fuel for diesel (CI) engine.
Balusamy and Marappan (2009) compared the functioning and emission attributes of
T. peruviana seed oil (TPSO) with other oil-rich fodder crops in a CI engine.
Balusamy and Marappan (2010) studied the effect of injection pressure and injection
time on CI engine loaded with T. peruviana seed oil methyl ester. Basumatary
(2014) reviewed the production of biodiesel from lucky nut (T. peruviana) seed oil
as a renewable and substitute fuel for CI (diesel) engines.
Betiku and Ajala (2014) conducted modelling and optimization of biodiesel
synthesis from T. peruviana (yellow bells) oil using plantain (Musa paradisiaca)
peels as a heterogeneous alkaline catalyst using biologically inspired artificial neural
network (ANN) versus RSM. Bora et al. (2014a) synthesized and characterized
yellow bells or lucky nut (T. peruviana) seed oil-based alkyd resin. Bora et al.
(2014b) compared hybrid biodiesel from oil-rich fodder crops such as Mimusops
elengi Linn (MEO), Gmelina arborea Roxb (GAO), T. peruviana Schum (TPO),
Mesua ferrea Linn (MFO) and Acer laurinum Hasskarl (ALO) with diesel blends.
Bora et al. (2015) performed structural and dynamic investigations on
microemulsion-based hybrid biofuels from T. peruviana seed oil. Borah et al.
(2017) studied the catalytic conversion of T. peruviana oil into biodiesel using
TiO 2 -ZnO nanocatalyst.
Chavan et al. (2018) executed experimental studies on biodiesel synthesis from
T. peruviana. Dawood et al. (2018) synthesized and characterized alkyl esters from
oil-rich fodder crop, lucky nut oil, using magnesium oxide (MgO) as a nanocatalyst
and methyl alcohol as an alcohol. Deka and Basumatary (2011) studied the production of superior quality biofuel from lucky nut (T. peruviana) seed oil. Duraisamy
et al. (2012) studied the influence of compression ratio on a diesel (CI) engine fuelled
with T. peruviana seed oil methyl ester. Eloka-Eboka and Inambao (2017)
142
S. Sivamani et al.