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<b>Table A.</b> Table of fit parameters for absorption spectra. <b>Table B.</b> Table of fit parameters for emission spectra. <b>Fig A.</b> Plots of experimental and fitted absorption and emission spectra for r-PE, PE, PC and APC. <b>Fig B.</b> Plots of experimental and fitted absorption and emission spectra for Chl <i>a</i>, Chl <i>b</i>, Chl <i>d</i>, Chl <i>f </i>. <b>Fig C.</b> Plots of experimental and fitted absorption and emission spectra for BChl <i>a</i>, BChl <i>b</i>. <b>Fig D.</b> Absorption spectra and pigment composition of antennae evolved under AM1.5 full sunlight. <b>Fig E.</b> Pigment composition of antennae evolved at high cost for terrestrial light environments. <b>Fig F.</b> Pigment composition of antennae evolved at medium cost for terrestrial light environments. <b>Fig G.</b> Pigment composition of antennae evolved at low cost for terrestrial light environments. <b>Fig H.</b> Electron output and efficiency antennae evolved in terrestrial light environments. <b>Fig I.</b> Pigment composition of antennae evolved with far-red adapted reaction centre. <b>Fig J.</b> Pigment composition of antennae evolved <i>in-situ</i> versus pre-adapted antennae. <b>Fig K.</b> Electron output and efficiency of antennae evolved <i>in-situ</i> versus pre-adapted antennae. <b>Fig L.</b> Pigment composition of antennae with anoxygenic and oxygenic reaction centres for M- and K- dwarf light at high cost values. <b>Fig M.</b> Pigment composition of antennae with anoxygenic and oxygenic reaction centres for M- and K- dwarf light at medium cost values. <b>Fig N.</b> Pigment composition of antennae with anoxygenic and oxygenic reaction centres for M- and K- dwarf light at low cost values. <b>Table A.</b> Table of fit parameters for absorption spectra. <b>Table B.</b> Table of fit parameters for emission spectra. <b>Fig A.</b> Plots of experimental and fitted absorption and emission spectra for r-PE, PE, PC and APC. <b>Fig B.</b> Plots of experimental and fitted absorption and emission spectra for Chl <i>a</i>, Chl <i>b</i>, Chl <i>d</i>, Chl <i>f </i>. <b>Fig C.</b> Plots of experimental and fitted absorption and emission spectra for BChl <i>a</i>, BChl <i>b</i>. <b>Fig D.</b> Absorption spectra and pigment composition of antennae evolved under AM1.5 full sunlight. <b>Fig E.</b> Pigment composition of antennae evolved at high cost for terrestrial light environments. <b>Fig F.</b> Pigment composition of antennae evolved at medium cost for terrestrial light environments. <b>Fig G.</b> Pigment composition of antennae evolved at low cost for terrestrial light environments. <b>Fig H.</b> Electron output and efficiency antennae evolved in terrestrial light environments. <b>Fig I.</b> Pigment composition of antennae evolved with far-red adapted reaction centre. <b>Fig J.</b> Pigment composition of antennae evolved <i>in-situ</i> versus pre-adapted antennae. <b>Fig K.</b> Electron output and efficiency of antennae evolved <i>in-situ</i> versus pre-adapted antennae. <b>Fig L.</b> Pigment composition of antennae with anoxygenic and oxygenic reaction centres for M- and K- dwarf light at high cost values. <b>Fig M.</b> Pigment composition of antennae with anoxygenic and oxygenic reaction centres for M- and K- dwarf light at medium cost values. <b>Fig N.</b> Pigment composition of antennae with anoxygenic and oxygenic reaction centres for M- and K- dwarf light at low cost values. (PDF)