a preferred embodiment of the invention is shown in fig1 which has a first projector 2 ; a second projector 4 and a third projector 6 . each projector is mounted on a flat circular base 8 that is sized to hold the three projectors and a programmable sequence circuit 10 . the projectors are supported by a base element that maintains the projectors at a pre - fixed angle . access holes 7 a , 7 b , 7 c and 7 d are provided in the base for attaching the outer housing 12 to circular base 8 to complimentary receiving holes ( not shown ) that will accept fastening screws . the projectors are adapted so that they may project an image on any common household surface such as a wall , ceiling , curtain , lampshade or door for the same time interval or at different time intervals . an outer housing 12 with three circular openings 14 , 16 and 18 is sized to fit over the flat circular base 8 to form a circumferential joint 9 . the preferred connection between the outer housing 12 and the circular base 8 is a half - lap joint 9 a that is formed around the circumferential edges 22 and 24 of the outer housing 12 and the circular base 8 . a battery compartment 11 is provided with access ( not shown ) from the bottom of the base . the light emitting ends of the first projector 2 , second projector 4 and third projector 6 which are positioned in holes 18 a , 18 b and 18 c in the upper part of outer housing 12 as shown in fig3 . the holes 18 a , 18 b and 18 c are preferably arranged so that they are located as if on an arc of a circle at intervals of about 120 ° on the upper part of the outer housing 12 . two of the projectors in fig2 are shown in cross - section in with a light source . the projectors may aimed by arranging the three projectors so that the longitudinal axis of each projector is inclined relative to the central vertical axis of the outer housing at an angle of about 10 - 30 ° and preferably 15 - 20 ° so that each projector is aimed at a different focal point as shown by the phantom lines in fig3 . fig4 shows an arrangement where the projectors are shown by phantom lines to be arranged to have the same focal point so that an image may be simulated at the same focal point that appears to move by switching the projectors on and off in sequence . each projector comprises a tube 24 having there in a light source 26 which is preferable an led that is connected to a controlled power source by conductors ( not shown ) and at least 1 double convex aspheric collimating lens 28 to project light from the source onto a transparent medium 35 with projectable image applied to the first surface 36 . the transparent medium is held by two plastic carriers 33 and 34 which force the correct orientation of the first surface 36 and restrict the light passing through the film to a beam of diameter that can optimally illuminate the first surface of the at least 1 double convex aspheric projection lens 30 . the projection lens 30 serves to magnify the image which is projected outwardly . the preferred distance from the projection lens 30 to an image plane is about 3 to 6 feet and preferably about 5 feet . the projection system is activated by a pressure sensitive on / off switch 32 that is preferably located in a cut out section of the base 8 and the outer housing 12 that is located at the circumferential joint 9 between base 32 and outer housing 12 . the light sources 26 are controlled by a microprocessor as shown in fig5 . power may be supplied in the form or dc or ac that is provided by one or more batteries or electric current generated by conventional or alternate sources . this projection light consists of 3 small projectors in a single housing . they project 3 images in close proximity one at a time in a programmed sequence onto an image plane located in front of the light at a distance of approximately 5 feet . the projectors are preloaded with fixed images that are backlit by led light sources . the images may be cartoon characters , symbols , letters or geometric forms , such as balls , circles , dots or the like in color or in black and white , that are made from an appropriate negative image . these light sources are controlled by a microprocessor that is programmed to display the images in a sequence that is permanently programmed into memory . when the on / off switch 32 is activated the processor sets a timer for 20 minute operation time to carry out the following action sequence which is designed to cycle through the three projectors in a way that the same image is not always projected in the same sequence . after the action sequence has started , the processor can be deactivated by pressing switch 32 at any time . a preferred action sequence is as follows : 1 . press on / off switch momentarily to start sequence . 2 . set program run time timer to 20 minutes enable timer interrupt to enter sleep mode when program has run for 20 minutes . 3 . picture 1 from projector 2 turns on and stays on for 10 seconds then turns off . 4 . picture 2 from projector 4 turns on for 1 second then turns off . 5 . picture 3 from projector 6 turns on for 1 second then turns off . 6 . picture 1 from projector 2 turns on for 1 second then turns off . 7 . picture 2 from projector 4 turns on and stays on for 10 seconds then turns off . 8 . picture 3 from projector 6 turns on for 1 second then turns off . 9 . picture 1 from projector 2 turns on for 1 second then turns off . 10 . picture 2 from projector 4 turns on for 1 second then turns off . 11 . picture 3 from projector 6 turns on for and stays on for 10 seconds then turns off . 12 . picture 1 from projector 2 turns on for 1 second then turns off . 13 . picture 2 from projector 4 turns on for 1 second then turns off . 14 . picture 3 from projector 6 turns on for 1 second then turns off . 15 . go to step 3 sequence steps 3 - 15 will continue for 20 minutes after the sequence is started . after 20 minutes , the microprocessor will stop the cycle , turn off the lights and place processor in sleep mode . pressing switch 32 will wake processor from sleep and start the sequence . as best seen in fig5 , the circuit for operating the projection light preferably has a 4 . 5v input to the control circuit that may be provided by three aaa batteries but the power could be from a different style battery or other power source such as a plug in ac to dc power adapter or solar / wind power source . power from the battery is supplied to r 1 , ec 1 , c 1 and zd which provide filtered 3 . 3v dc to power the microprocessor ic 1 . on ic 1 pin 1 is 3 . 3v ( vdd ) and pin 8 is 0 v ( vss ). while the circuit in this invention uses 3 . 3v in other iterations this voltage could be changed to reflect the specific power requirements . pin 2 and 4 of the processor are not used . input for power on and off is provided through pin 3 . pin three is normally held in the high state by internal pull up resistors . when momentary switch s 1 ( on / off ) is pressed it will connect pin three to vss which will force it to the low level . when the batteries are installed or power is applied to input the processor is initialized . all outputs are set to the low ( off ) state , pin 3 is set as an input pin and interrupt on pin 3 low is enabled . then the processor is placed in the low power “ sleep ” mode . if the processor is in low power “ sleep ” mode when s 1 is pressed the interrupt will cause it to “ wake up ”, initialize the program and continue to sequence through the program until either 1 ) the processor receives a second interrupt because s 1 was pressed again or 2 ) the program time counter has reached the preprogrammed length of time for light operation . if either of these events occurs then the processor will stop the sequence , set all outputs to off ( low ) make sure the interrupt on pin 3 is enabled and enter the low power ( sleep ) mode . while the program is running it will change the states of output pins 5 , 6 , and 7 according to a preprogrammed sequence . if output pin 7 is set to high it turns on transistor q 1 with gate current limited by r 3 . the current through q 1 turns on led 1 . the current through led 1 is limited by resistor r 6 . if output pin 7 is set to low it turns off q 1 and led 1 . if output pin 6 is set to high it turns on transistor q 2 with gate current limited by r 4 . the current through q 2 turns on led 2 . the current through led 2 is limited by resistor r 7 . if output pin 7 is set to low it turns off q 2 and led 2 . if output pin 5 is set to high it turns on transistor q 3 with gate current limited by r 5 . the current through q 3 turns on led 3 . the current through led 3 is limited by resistor r 8 . if output pin 7 is set to low it turns off q 3 and led 3 . as the program sequence is followed the images projected on the projection plane will turn on and off giving the appearance of moving around on the projection plane .