1. A method of driving a light source apparatus including a plurality of cell blocks, comprising:
supplying a scan signal to the cell blocks respectively having at least one sub-pixel; and
supplying a data signal to the cell blocks such that a summation of brightness values of the cell blocks per a frame remains constant during a period and at least one cell block among the cell blocks has a different brightness value from that of another cell block among the cell blocks during respective frame, wherein the period is comprised a predetermined number of frame.
2. The driving method of claim 1, wherein the period is comprised of all frames.
3. The driving method of claim 1, wherein a data signal applied to a first cell block during an (K)th frame is applied to a second cell block during an (K+1)th frame, wherein K is a natural number, and the second cell block is different from the first cell block.
4. The driving method of claim 1, wherein a data signal applied to an (n\u22121)th cell block during an K(th) frame is applied to an (n)th cell block during an (K+1)th frame, wherein K is a natural number.
5. The driving method of claim 1, wherein a magnitude of the data signal applied to the cell blocks during a frame gradually increases or gradually decreases.
6. The driving method of claim 1, wherein, when the predetermined number of frames is the same as a number of the cell blocks, a summation of the brightness of one cell block during the predetermined number of frame is the same as a summation of the brightness of cell blocks of one frame.
7. The driving method of claim 1, wherein first data signals supplied to the cell blocks during a first period are different from second data signals supplied to the cell blocks during a second period, and a summation of the brightness of one cell block during the first period is the same as a summation of the brightness of one cell block during the second period.
8. The driving method of claim 1, wherein first data signals supplied to the cell blocks during a first period are different from second data signals supplied to the cell blocks during a second period, and a summation of the brightness of one cell block during the first period is different from a summation of the brightness of one cell block during the second period.
9. The driving method of claim 1, wherein the sub-pixel comprises a first electrode, a second electrode and an emission layer disposed between the first and second electrodes.
10. A light source apparatus comprising:
a substrate;
a plurality of cell blocks including a plurality of sub-pixels located in a matrix type format at intersections between a plurality of scan lines and a plurality of data lines on the substrate;
a scan driver supplying a plurality of scan signals to the cell blocks through the scan lines;
a data driver supplying a plurality of data signals to the cell blocks such that a summation of brightness values of the cell blocks per a frame remains constant during a period and at least one cell block among the cell blocks has a different brightness value from that of another cell block among the cell blocks during respective frame, wherein the period is comprised a predetermined number of frame.
11. The light source apparatus of claim 10, the period is comprised of all frames.
12. The light source apparatus of claim 10, wherein, when the predetermined number of frames is the same as a number of the cell blocks, a summation of the brightness of one cell block during the predetermined number of frame is the same as a summation of the brightness of cell blocks of one frame.
13. The light source apparatus of claim 10, wherein first data signals supplied to the cell blocks during a first period are different from second data signals supplied to the cell blocks during a second period, and a summation of the brightness of one cell block during the first period is the same as a summation of the brightness of one cell block during the second period.
14. The light source apparatus of claim 10, wherein the sub-pixel comprises a first electrode, a second electrode and an emission layer disposed between the first and second electrodes.
15. The light source apparatus of claim 10, the light source apparatus includes at least one organic light emitting panel.
16. The light source apparatus of claim 10, wherein each of the cell blocks includes at least one organic light emitting panel.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A mirror switch assembly that reconfigures a mirror control system when an orientation of a mirror changes, the mirror switch assembly comprising:
a rotor that is coupled to a mirror frame and that rotates as the orientation of the mirror changes;
a switch housing that is connected to the rotor;
a set of terminals located within the switch housing and that is electrically coupled to at least one mirror adjustment button; and
a set of contacts located within the switch housing and that rotates with the rotor as the orientation of the mirror changes, that is electrically coupled to at least two motors causing the mirror to change a tilting position, and that is reconfigured when the rotor rotates to compensate for the orientation of the mirror.
2. The mirror switch assembly of claim 1, wherein the orientation of the mirror changes between a horizontal orientation and a vertical orientation.
3. The mirror switch assembly of claim 1, wherein the rotor couples to at least one tab on the mirror frame.
4. The mirror switch assembly of claim 1, wherein each contact in the set of contacts comprises a spring-loaded contact.
5. The mirror switch assembly of claim 1, further comprising a set of wires and a pair of connectors that electrically couple the at least two motors to the set of contacts.
6. The mirror switch assembly of claim 1, further comprising a first electrical connector that electrically couples a first pair of wires to a first motor of said at least two motors, and a second electrical connector that electrically couples a second pair of wires to a second motor of said at least two motors.
7. The mirror switch assembly of claim 1, further comprising a connector frame that contains the set of terminals, the connector frame defining inclined surfaces to facilitate the rotation of the set of contacts relative to the set of terminals.
8. The mirror switching assembly of claim 1, further comprising a contact frame that mounts the set of contacts.
9. The mirror switching system of claim 1, wherein the set of contacts includes four contacts, and wherein two contacts are electrically coupled to a first motor of said at least two motors and two other contacts are coupled to a second motor of said at least two motors.
10. The mirror switching system of claim 1, wherein the set of terminals includes three terminals, wherein a first terminal is electrically coupled to a vertical tilting control wire of the at least one mirror adjustment button, wherein a second terminal is electrically coupled to a horizontal tilting control wire of the at least one mirror adjustment button, and wherein a third terminal is electrically coupled to a common control wire of the at least one mirror adjustment button.
11. A mirror unit that is mounted on a vehicle, comprising:
a mirror housing;
a mirror frame that is housed in the mirror housing and that pivots on a mirror bracket;
a mirror that mounts to the mirror frame;
at least two motors that tilt the mirror horizontally and vertically; and
a mirror switch assembly that includes a rotor that is coupled to the mirror frame and that rotates as the orientation of the mirror changes, a set of terminals that is electrically coupled to at least one mirror adjustment button, and a set of contacts that rotates with the rotor as the orientation of the mirror changes, that is electrically coupled to the at least two motors causing the mirror to change a tilting position and that is reconfigured when the rotor rotates to compensate for the orientation of the mirror.
12. The mirror unit of claim 11, further comprising as couple the two motors to the set of contacts through the rotor.
13. The mirror unit of 11, wherein each contact in the set of contacts comprises a spring-loaded contact.
14. The mirror unit of claim 11, wherein the set of contacts is reconfigured to compensate for motor polarity in accordance with the orientation of the mirror.
15. The mirror unit of claim 11, further comprising a first electrical connector that electrically couples a first pair of wires to a first motor of said at least two motors, and a second electrical connector that electrically couples a second pair of wires to a second motor of said at least two motors.
16. The mirror unit of claim 11, wherein the set of contacts includes four contacts, and wherein two contacts are electrically coupled to a first motor of said at least two motors.
17. The mirror unit of claim 11, wherein the set of terminals includes three terminals, wherein a first terminal is electrically coupled to a vertical tilting control wire of the at least one mirror adjustment button, wherein a second terminal is electrically coupled to a horizontal tilting control wire of the at least one mirror adjustment button, and wherein a third terminal is electrically coupled to a common control wire of the at least one mirror adjustment button.
18. A mirror switch assembly that reconfigures a mirror control system when an orientation of a mirror changes, the mirror switch assembly comprising:
a rotor that is coupled to a mirror frame and that rotates as the orientation of the mirror changes;
a set of terminals that is electrically coupled to at least one mirror adjustment button, wherein the at least one mirror adjustment button enables a user to tilt the mirror in a vertical direction and in a horizontal direction;
a set of spring-loaded contacts that rotates with the rotor as the orientation of the mirror changes, that is electrically coupled to two motors causing the mirror to tilt horizontally and vertically, wherein one of the motors changeably tilts the mirror in the horizontal direction and the other motor changeably tilts the mirror in the vertical direction and that is reconfigured when the rotor rotates to compensate for the orientation of the mirror; and
a pair of connectors that couple the two motors to the set of spring-loaded contacts through the rotor.
19. The mirror switch assembly of claim 18, wherein the set of spring-loaded contacts includes four contacts, and wherein two contacts are electrically coupled to a first motor of said at least two motors and two other contacts are coupled to a second motor of said at least two motors.
20. The mirror switch assembly of claim 18, wherein the set of terminals includes three terminals, wherein a first terminal is electrically coupled to a vertical tilting control wire of the at least one mirror adjustment button, wherein a second terminal is electrically coupled to a horizontal tilting control wire of the at least one mirror adjustment button, and wherein a third terminal is electrically coupled to a common control wire of the at least one mirror adjustment button.