TECHNOLOGY FOCUS - ELECTRICAL POWER AND ENERGY - Preferred Electrically Conducting Agent: The organic electrically conducting agent is present is an amorphous form.The Tg of the organic electrically conducting agent is at or below the operation temperature range of the photoelectric device, preferably 60 degreesC or below.The organic electrically conducting agent exhibits a Tg of 40 degreesC or less, preferably 30 degreesC or less and more preferably 20 degreesC or less.The organic electrically conducting agent of claim (1) exhibits a Tg of about 10 degreesC or less and preferably of about 0 degreesC or less.The organic electrically conducting agent comprises at least one organic compound, preferably a mixture of at least two organic compounds.The organic electrically conducting agent further comprises at least one dopant.The organic electrically conducting agent is a hole transporting agent.Preferred Dye: The dye is a ruthenium complex.Preferred Device: The semiconductor is sensitized with a dye.The semiconductor is porous, preferably comprises nanoparticles, preferably nanoparticles of TiO2.Preferred Mixture: The ratio of the mixture of compounds (I) to (II) is 60:40 - 20:80, preferably 40:60, where the amount of each compound is expressed as wt.% of the total weight mixture.The mixture is used as an organic electrically conducting agent.Preferred Method: The method further comprises:(i) providing a semiconductor, preferably sensitized with a dye;(ii) melting the organic electrically conducting agent;(iii) applying the organic electrically conducting agent to the semiconductor sensitized with a dye; and(iv) connecting electrodes to the semiconductor and to the organic electrically conducting agent.The organic electrically conducting agent is applied to the semiconductor such that a layer of the agent persists on top of the semiconductor.The method further comprises cooling the semiconductor and the organic electrically conducting agent to a temperature below the melting temperature and above the Tg of the organic electrically conducting agent. EXAMPLE - The compound of formula (I) was prepared by reacting 1,3,5-benzenetriol with p-methoxyaniline at 200 degreesC in the presence of I2 to give a compound of formula (V) which was subsequently reacted with 1,2-dichlorobenzene at 180 degreesC in the presence of ArI and Cu/K2CO3.    Ar = compounds of formulae (i) Han-TDAB, (ii) MEH-TDAB and (iii) MH-TDAB.    The hexaanisyl derivative (Han-TDAB) is a symmetrically substituted compound and the other two, tris(methoxyphenyl ethylhexyloxy phenyl amino)benzene (MEH-TDAB) and tris(methoxyphenyl hexyloxy phenyl benzene (MH-TDAB) are unsymmetrically substituted. Due to the flexibility of the alkyl groups, the latter are expected to have lower melting and glass transition temperatures. The purification was achieved by column chromatography. The synthesis is also disclosed in Gauthier, S.; Frechet, J.M. Synthesis 1987, 383.