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One embodiment of the present invention provides an apparatus comprising a thermoelectric generator thermally coupled to an assembly having a member, wherein the thermoelectric generator is configured to convert heat from the assembly to an electrical energy. The apparatus further comprises a mechan

One embodiment of the present invention provides an apparatus comprising a thermoelectric generator thermally coupled to an assembly having a member, wherein the thermoelectric generator is configured to convert heat from the assembly to an electrical energy. The apparatus further comprises a mechanism comprising a motor configured to actuate the member using the electrical energy.

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What is claimed is: 1. An apparatus comprising: a thermoelectric generator thermally coupled to a fuser assembly having a member and a pair of platen rollers pressed together to form a fusing nip, the thermoelectric generator configured to convert heat from the fuser assembly to an electrical energ

What is claimed is: 1. An apparatus comprising: a thermoelectric generator thermally coupled to a fuser assembly having a member and a pair of platen rollers pressed together to form a fusing nip, the thermoelectric generator configured to convert heat from the fuser assembly to an electrical energy; and a mechanism comprising a motor configured to actuate the member using the electrical energy, wherein the member is configured to separate the platen rollers when actuated by the motor; wherein the apparatus is powered via a normal energy source and further comprises: a controller configured to monitor the normal energy source compared to a threshold parameter level, and to selectively power the motor to actuate the member via the electrical energy to separate the platen rollers in response to the monitored normal energy source having a parameter level less than or substantially equal to the threshold parameter level. 2. The apparatus of claim 1, wherein the motor is configured to operate as a fuser motor when the apparatus is powered via the normal energy source. 3. The apparatus of claim 1, wherein the threshold parameter is a voltage level. 4. The apparatus of claim 1, wherein the thermoelectric generator comprises: a Peltier device operating in a Seebeck mode. 5. An imaging system comprising: a power supply configured to provide a first electrical energy having a first parameter level; a fuser assembly that generates heat and comprises: a pair of opposing platen rollers supported by a housing and pressed together to form a fusing nip; and a depressurization system comprising: a thermoelectric generator adapted to thermally couple to the fuser assembly and configured to convert heat from the fuser assembly to a second electrical energy; and a separator assembly configured to receive the first electrical energy having the first parameter level and the second electrical energy, the separator assembly comprising: a separator mechanism mechanically coupled to the fuser assembly and configured to separate the platen rollers; and a controller configured to monitor the first parameter level of first electrical energy, to normally power the separator mechanism from with the first electrical energy, and upon detecting that the first parameter level is less than or substantially equal to a threshold level to cause the separator mechanism to be powered by the second electrical energy to thereby separate the platen rollers. 6. The imaging system of claim 5, wherein the threshold level is substantially equal to zero. 7. The imaging system of claim 5, wherein the first and second energy levels each comprise a voltage. 8. The imaging system of claim 5, wherein the thermoelectric generator comprises: a first surface mechanically and thermally coupled to a frame of the imaging system; and a second surface thermally coupled only to the fuser assembly housing to thereby allow removal of the fuser assembly from the imaging device. 9. The imaging system of claim 8, wherein the thermoelectric generator comprises: a Peltier device operating in a Seebeck mode. 10. The imaging system of claim 9, wherein the first surface comprises a cold junction and the second surface comprises a hot junction. 11. The imaging system of claim 8, wherein the first surface is thermally coupled only to the frame and the second surface is mechanically and thermally coupled to the fuser assembly to thereby allow removal of the fuser assembly and associated thermoelectric generator from the imaging device. 12. An imaging system comprising: a power supply configured to provide a first electrical energy having a first parameter level; a fuser assembly that generates heat and comprises: a pair of opposing platen rollers supported by a housing and pressed together to form a fusing nip; and a depressurization system comprising: a thermoelectric generator adapted to thermally couple to the fuser assembly and configured to convert heat from the fuser assembly to second electrical energy; and a separator assembly configured to receive the first electrical energy having the first parameter level and the second electrical energy, the separator assembly comprising: a separator mechanism mechanically coupled to the fuser assembly and configured to separate the platen rollers in response to the second electrical energy; and a controller configured to monitor the first parameter level of first electrical energy and upon detecting that the first parameter level is less than or substantially equal to a threshold level to cause the separator mechanism to be powered by the second electrical energy to thereby separate the platen rollers; wherein the thermoelectric generator comprises: a first surface mechanically and thermally coupled to a frame of the imaging system; and a second surface thermally coupled only to the fuser assembly housing to thereby allow removal of the fuser assembly from the imaging device, wherein a heat conductive elastomer is positioned between the second surface and the fuser assembly housing and adhered to only the second surface so as to contact the fuser assembly.