Figure 1 is a perspective view of the present invention ready for use. The interior chambers are visible through the transparent walls. The eyeglasses are placed inside the cleansing chamber and the top is fastened shut by the latch. The interior louvers for the fan intake assembly located on the left side of the present invention and the exhaust vent on the right side are locked shut so the entire unit is now hermetically sealed. The cleaning solution reservoir is in the lower left chamber and has been filled with an antibacterial solution through the refill drain recess that is capped off. A conduit leads from the reservoir to the pump chamber via a recess in the dividing wall.

Figure 2 is a perspective view of the present invention. The reservoir needs to be filled and the eyeglasses inserted in order to be ready for operation.

Figure 3 is a perspective view of the present invention in use. The start button was depressed as indicated to activate operation and signaled the microprocessor to send power from the battery to the pump. The light above the start button informs the user that the unit is now active and will not turn off until the entire cleaning cycle is completed. The cleaning solution is being pulled from the reservoir and forced through the apertures located in the floor of the cleansing chamber emitting a spray of cleaning solution throughout the entire chamber for 10 seconds.

Figure 4 is a perspective view of the present invention in use. The microprocessor reversed the pump into vaccuum mode to drain the solution from the cleansing chamber via the floor apertures. The cleaning solution is then returned to the reservoir where it is stored until the next use.

Figure 4a is a perspective view of the present invention showing the cleaning solution chamber to be a removable/changeable tank.

Figure 5 is a perspective view of the present invention in use during the drying phase. The microprocessor has unlocked the louvers on the fan intake assembly and the exhaust vent and activated the electric fan and heating coils. The warm air is forces through the chamber and dries the eyeglasses. After 10 seconds the microprocessor shuts down the system and resumes stand-by.

Figure 6 is a perspective view of the present invention after operation. The eyeglasses have been removed and the cleansing chamber is now empty. The refill drain on the side wall of the reservoir chamber could now be used to change the cleaning solution if deemed necessary.

Figure 7 is a cross sectional side view of the fan assembly showing the fan and the heating coils in the idle position. The stationary exterior louvers on the left serve to protect the fan assembly. The locking interior louvers are shown in dotted line in the locked position and form a watertight seal as do the locking louvers in the exhaust vent (not shown in this figure). Both sets of locking louvers are released by the microprocessor upon activation of the drying cycle and the fan and heating coils initiate operation propelling warmed air into the cleansing chamber to dry the eyeglasses. Once the drying cycle is completed the microprocessor shuts down the fan and heating coils and locks the louvers down to seal the unit.

Figure 8 is a rear perspective of the present invention showing the hinge assembly of the cover and the adapter/charger sockets. The 12 volt adapter/charger would enable the present invention to run or charge off of a standard car cigarette lighter.

Figure 9 is a flow chart of the components of the present invention where a power supply comprising batteries having means for recharging the batteries energizes an electrical circuit having switch means for starting and stopping the device. Once the device is started a control device will illuminate a visual indicator that the device is on and will close both the heater louver and the exhaust louver. The control device will actuate a pump which will pump the cleaning fluid from the cleaning fluid compartment through conduit into the glasses cleaning compartment where it will be ejected as a spray through a plurality of holes contained within the floor plate member. Once the wash cycle has been completed the pump will reverse therein removing the glasses cleaning fluid and returning it to its compartment. The control unit will then open the heater louvers and the exhaust louvers. The control unit will energize the fan and the heater. The fan will draw atmospheric air into the device and eject said air across the heating element into the glasses cleaning compartment where it will cause the drying of the glasses before exiting through the exhaust louvers.

Figure 10 is a flow chart of the components of the present invention where a power supply comprising a conventional AC source energizes an electrical circuit having switch means for starting and stopping the device otherwise similar to Figure 9.