1. An electrically conductive polymer having formula (I) below:
where m is 1, 2, or 3; a hydroxyphathalimidyl group or a probe group, and n is zero or an integer.
2. An electrically conductive polymer having formula (II) below:
where m is 1, 2, or 3; R\u2032 is a hydroxyphthalimidyl group or a probe group wherein at least one R\u2032 is a probe group; and n is zero or an integer.
3. The electrically conductive polymer of claim 2, wherein the probe group is a nucleic acid or a protein.
4. The electrically conductive polymer of claim 3, wherein the probe group is selected from the group consisting of a DNA, a RNA, a PNA, an antibody, an antigen, an enzyme, a substrate, and a cofactor.
5. A monomer for synthesizing an electrically conductive polymer, comprising N-hydroxyphthalimidyl 3-thiophenlyl acetate.
6. An electrode coated with the electrically conductive polymer of claim 1.
7. A sensor employing an electrode coated with the electrically conductive polymer of claim 1.
8. An electrode coated with the electrically conductive polymer of claim 2.
9. A sensor employing an electrode coated with the electrically conductive polymer of claim 2.
10. An electrically conductive polymer having formula (II) below:
where m is 1, 2, or 3; R\u2032 is a hydroxphalimidyl group or a probe group chosen from a DNA, a RNA, a PNA, an antibody, and an antigen, wherein at least one R\u2032 is the probe group; and n is zero or an integer.
11. The electrically conductive polymer of claim 10, wherein the probe group is a DNA, a RNA, or a PNA.
12. An electrode coated with the electrically conductive polymer of claim 11.
13. A sensor employing an electrode coated with the electrically conductive polymer of claim 11.
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 power controller for use with lighting systems including:
a direct current voltage source,
a coil of known inductance,
a switch means adapted to control application of the source voltage to the coil,
means adapted to select a required duty cycle for the switch such that the input power level is substantially constant, and
means adapted to control operation of the switch such that this selected duty cycle is effected.
2. A power controller as in claim 1, further including means to rectify an output of the coil.
3. A power controller as in claim 1 further including at least one diode and at least one capacitor, arranged to co-operate with the switch and the coil to form a switchmode DC-DC converter.
4. A power supply as in claim 3 wherein the switchmode power supply is a but-boost converter.
5. A power supply as in claim 3 wherein the switchmode power supply is a buck converter.
6. A power supply as in claim 3 wherein the switchmode power supply is a boost converter.
7. A power controller as in claim 1 wherein the coil is a primary coil of a transformer, further including a secondary coil, the switch means being adapted to control application of the source voltage to the primary coil of said transformer.
8. A power controller as in claim 7 further including at least one diode and at least one capacitor, arranged to co-operate with the switch and the transformer to form a switchmode DC-DC converter.
9. A power supply as in claim 8 wherein the switchmode power supply is a flyback converter.
10. A power controller as in claim 1, wherein the power controller is coupled to an electric-to-light output transducer.
11. A power controller as in claim 10 wherein the transducer is an arc lamp.
12. A power controller as in claim 10 wherein the transducer is one or more light emitting diodes.
13. A power controller as in claim 1, wherein the means adapted to select the required duty cycle includes means to sense the magnitude of a voltage being provided by the voltage source.
14. A power controller as in claim 1, wherein the means adapted to select the duty cycle of the switch calculates this duty cycle according to a fixed mathematical relationship between said duty cycle and the voltage provided by the voltage source, the inductance of the coil and a desired power throughput of the device.
15. A power controller as in claim 1, wherein the means adapted to determine the duty cycle of the switch includes a microprocessor.
16. A power controller as in claim 15 wherein the means to calculate the duty cycle of the switch includes stored instructions which the microprocessor is adapted to follow.
17. A power controller as in claim 15, wherein the means to sense the magnitude of a voltage being provided by the voltage source is an input to the microprocessor.
18. A power controller as in claim 1, wherein the voltage source is a battery.
19. A method of effecting a supply of electrical power to an electrical-to-light output transducer, comprising:
directing an input from a direct current supply to a means for effecting transition into an outputs wherein said means includes means to effect frequent switching,
wherein a mark-space ratio of the switching is modifiable such that the input power is held substantially constant.
20. (canceled)
21. (canceled)
22. A power controller as in claim 16, wherein the means to sense the magnitude of a voltage being provided by the voltage source is an input to the microprocessor.