True color day-night graphics system and method of assembly

• US 20070062084A1
• Filed: 08/22/2006
• Published: 03/22/2007
• Est. Priority Date: 08/22/2005
• Status: Abandoned Application

• Current Assignee: Stephen Rosa
• Original Assignee: Stephen Rosa
• Inventors: Rosa, Stephen
• Application Number:
  US11/507,643
• Publication Number:
  US 20070062084A1
• Time in Patent Office: Days
• US Class Current: 40/544
• CPC Class Codes: G09F 13/22 electroluminescent electroluminescent light sources per se H05B33/00
• CPC Class Codes: G09F 21/04 by land vehicles

Abstract

The graphics display of U.S. Pat. No. 5,518,561 is modified by selectively actuating surface-conforming illumination layers positioned behind graphics and in response to external conditions and from a variety of sources. The external conditions include time, weather and, when the display is mounted on a vehicle, the vehicle location. Selective actuation of different sections of the display permit controlled changes in the display and special effects.

Claims

1. ) A method for producing conformable and flexible true color day-night graphic displays for conformable attachment to the predetermined topographical features forming the exterior of commercial and mass transit vehicles, transit furniture and other outdoor advertising embodiments with curved, irregular and/or flexible exterior surfaces such as building wraps, said displays having substantially equivalent spectral content when illuminated by a light source located in front of the display as when illuminated by a light source located behind the display, and said displays incorporating control signal responsive means for turning the light source located behind the displays ON and OFF automatically or on command in response to changing ambient lighting conditions and other determinants, said method comprising the steps of:

(a) applying a first set of inked graphic images on the front face of a flexible translucent substrate;

(b) applying a second set of inked graphic images on the back face of said translucent substrate in registry with said first set of inked graphic images;

(c) adhering said back face of said translucent substrate to the light-emitting face of an illumination layer such as an electroluminescent panel, flat panel light emitting diode array, fiber optic mat or other flexible light source with a durable conformable essentially transparent adhesive material to form a substrate-panel assembly;

(d) adhering the non-light emitting face of said illuminating layer to said vehicle side such that said substrate-panel assembly conforms to the topographical features of the commercial or mass transit vehicle or other outdoor advertising support surface; and

(e) applying electrical energy to energize said illumination layer using an electrical circuit containing a switch that can be selectively turned ON and OFF manually and/or automatically in response to control inputs emanating from an onboard sensor or central processing unit.

2. ) The method of claim 1 further comprising adding a flexible, surface-conformable optically opaque layer between the flexible translucent layer and the illuminating layer for selectively and precisely masking the illuminating layer from backlighting portions of the translucent layer.

3. ) The method of claim 1 wherein step (e) includes providing an onboard or co-located photo detector or other light level detection means for issuing a signal to the switch in the electrical circuit to turn the power to the illuminating layer ON when the external light levels drop below some pre-set level.

4. ) The method of claim 1 wherein step (e) includes providing on board global positioning satellite system circuitry or other position location means for issuing a signal to the switch in the electrical circuit to turn the power to the illuminating layer ON or OFF when the vehicle is determined to be at some geographic location or conversely has left some geographic location.

5. ) The method of claim 1 wherein step (e) includes providing an onboard or co-located clock that issues a signal to the switch in the electrical circuit to turn the power to the illuminating layer ON and/or OFF according to a pre-set schedule.

6. ) The method of claim 1 wherein step (e) includes providing an onboard or co-located microprocessor capable of receiving and analyzing inputs from a variety of sensors such as photo detectors, GPS units, clocks, and, in issue a signal to the switches in the electrical circuit to turn the power to the illuminating layers ON and/or OFF as appropriate.

7. ) The method of claim 1 wherein step (e) includes providing an onboard or co-located wireless communications link to send information regarding the status (ON or OFF) of the conformable true color day/night graphic display(s) and the carrier vehicle (location, ambient light conditions, etc) to a microprocessor located remotely where said microprocessor receives and analyzes these inputs and, in accordance with a pre-programmed logic, issues a signal to the switches in the electrical circuit of the invention to turn the power to the illuminating layers ON and/or OFF as appropriate.

8. ) The method of claim 5 wherein step (e) includes providing an onboard or collocated wireless communications link connecting the onboard microprocessor to one or more digital networks allowing these networks to send inputs to said microprocessor where said microprocessor receives and analyses these inputs and, in accordance with a pre-programmed logic, issues a signal to the switches in the electrical circuit of the invention to turn the power to the illuminating layers ON and/or OFF as appropriate.

9. ) The method of claim 6 wherein the electrical switches provide status information such as ON, OFF, power flowing, to the remotely located microprocessor via the wireless communications link as positive feedback control of the system.

10. ) The method of claim 7 wherein the electrical switches provide status information such as ON, OFF, power flowing, to the onboard or co-located microprocessor as positive feedback control of the system.

11. ) The method of claim 1 further comprising encasing the illuminating layer in a sleeve attached to the back face of said translucent substrate so that the illuminating layer can be easily removed as necessary for maintenance or repair, and forming said sleeve of suitably surface-conformable material so as not to limit the conformability or flexibility of the resulting assembly.

12. ) The method of claim 10 further comprising inserting two illuminating layers in the sleeve with the non-illuminating sides back-to-back so as to provide illumination in opposite directions, and wherein step (a) includes sandwiching two translucent substrates having substantially identical inked images on the front faces of said translucent substrates, bonded or sewn together with the sleeve containing the two illuminating layers positioned fast between them to form a flexible banner or flag capable of producing true color day night graphics when viewed from either side, draped over an object or attached as an advertisement to an aircraft of some form.

13. ) The method of claim 1 wherein, in step (a) there is no inked image on the front face of the flexible translucent layer and the inked image is only on the back face so that in daylight, the casual viewer will see no image and only when the illuminating layer is turned ON does the inked image become detectable.

14. ) The method of claim 1 further comprising providing a blank outer layer on said display.

15. ) A surface-conformable and flexible true color day-night graphic display for conformable attachment to irregular or curved topographical features of a mounting surface said display having substantially equivalent spectral content when illuminated by a light source located in front of the display as when illuminated by a light source located behind the display, and said display incorporating control signal responsive means for turning the light source located behind the displays ON and OFF automatically or on command in response to changing ambient lighting conditions and other determinants, said method comprising:

a flexible translucent substrate having a front face and a back face and having a first set of inked graphic images at least on said back face;

an illumination layer having a light-emitting face containing voltage-actuable light source means and a non-light emitting face, said light emitting face adhered to the back face of said translucent substrate with a durable conformable essentially transparent adhesive material to form a substrate-panel assembly;

wherein the non-light emitting face of said illuminating layer is adapted to be adhered to said mounting surface such that said substrate-panel assembly conforms to the topographical features of the mounting surface;

an electrical circuit containing actuable switch means for selectively applying actuation voltage to actuate said light source means manually and/or automatically;

control means for selectively actuating said switch means to control selective portions of said light source means.

16. ) The display of claim 15 wherein said first set of inked graphic images can be viewed from in front of said display only when said illumination layer is actuated.

17. ) The display of claim 15 wherein said mounting surface is the side of a motor vehicle.

18. ) The display of claim 17 wherein said control means is located remotely from and in through-the-air signal communication with said vehicle, and wherein said control means includes means for transmitting signals to said vehicle to effect actuation of said switch means in accordance with different conditions pertaining to time of day and/or location of the vehicle.

19. ) The display of claim 17 wherein said control means includes vehicle position location sensors for selectively actuating said switch means in accordance with the geographic location of said vehicle.

20. ) The display of claim 17 wherein said control means includes a CPU located at said vehicle.

21. ) The display means of claim 20 further comprising a sensor for sensing one or more ambient conditions at said vehicle, and wherein said CPU responds to said one or more ambient conditions selectively actuating said switch means in accordance with the ambient condition changes.

22. ) The display of claim 20 wherein said control means further includes a server located remotely from and in through-the-air signal communication with said CPU, and wherein said server includes means for transmitting signals to said CPU to effect actuation of said switch means in accordance with different conditions.

23. ) The display of claim 15 further comprising a second set of inked graphic images on the front face of said flexible translucent substrate in registry with said first set of inked graphic images.