Author: claimsbot

1. A fuel injection control system for a vehicle having a throttle and an automatic engine stopping and starting system comprising:
a throttle sensor for detecting throttle opening,
engine start judging means, for starting the engine in response to throttle opening after automatic stoppage of the engine,
basic injection amount calculating means, for calculating a basic fuel injection amount on the basis of predetermined engine parameters, and
injection amount increasing means for increasing the fuel injection amount at the time of starting the engine from the automatic stoppage state of the engine, based on throttle opening.
2. The fuel injection control system of claim 1, further comprising:
injection amount decreasing means for decreasing the fuel injection amount on the basis of the throttle opening at the time of starting the engine from a state other than from the automatic stoppage state of the engine.
3. The fuel injection control system of claim 2, wherein the injection amount increasing means comprises:
an injection amount increase table comprising the relationship between the throttle opening at the engine starting time and an injection amount increase coefficient,
means for obtaining an injection amount increase coefficient on the basis of the throttle opening and the injection amount increase table, and
calculating means for setting a new basic injection amount as the result of multiplying the basic injection amount by the injection amount increase coefficient.
4. The fuel injection control system of claim 2, wherein the throttle opening at which the increase of the injection amount is started is smaller than the throttle opening at which the decrease of the injection amount is started.
5. The fuel injection control system of claim 4, wherein the throttle opening at which the increase of the injection amount is started is about 25% open and the throttle opening at which the decrease of the injection amount is started is about 50% open.
6. The fuel injection control system of claim 1, wherein the vehicle is a two-wheeled, single-cylinder vehicle.
7. The fuel injection control system of claim 1, further comprising a seat switch, wherein the seat switch has a loaded position and an unloaded position, wherein the engine start judging means only starts the engine in response to throttle opening when the seat switch is in the loaded position.
8. A fuel injection control system for a vehicle with an automatic engine stopping and starting system mounted thereon for automatically stopping an engine in response to a predetermined vehicle stopping condition and thereafter restarting the engine in response to a predetermined vehicle starting operation, the fuel injection control system comprising:
a throttle sensor for detecting the throttle opening,
engine start judging means for starting the engine in response to a throttle opening operation during automatic stoppage of the engine,
basic injection amount calculating means for calculating a basic fuel injection amount on the basis of predetermined engine parameters,
injection amount decreasing means for decreasing the fuel injection amount at the time of starting the engine, and
injection amount decrease prohibition means for prohibiting decrease of the fuel injection amount at the time of starting the engine from an automatic stoppage state of the engine.
9. The fuel injection control system of claim 8, the predetermined engine parameters comprising engine cooling water temperature and engine speed.
10. The fuel injection control system of claim 8, wherein the vehicle is a two-wheeled, single-cylinder vehicle.
11. The fuel injection control system of claim 8, further comprising a seat switch, wherein the seat switch has a loaded position and an unloaded position, wherein the engine start judging means only starts the engine in response to throttle opening when the seat switch is in the loaded position.
12. A method for controlling the injection amount of a fuel supplied to an engine attached to a vehicle having an automatic engine stopping and starting system, comprising:
sensing throttle opening;
sensing pre-determined conditions;
calculating a basic fuel injection amount;
determining the stoppage state of the engine; and
adjusting the basic fuel injection amount at the time of starting the engine from the automatic stoppage state of the engine, based on throttle opening.
13. The method of claim 12, wherein the predetermined conditions comprise engine cooling water temperature and engine speed.
14. The method of claim 12, wherein adjusting the basic fuel injection amount in response to the stoppage state of the engine, comprises increasing the fuel injection amount when an automatic stoppage state is detected.
15. The method of claim 12, wherein adjusting the basic fuel injection amount in response to the stoppage state of the engine, comprises decreasing the fuel injection amount when a non-automatic stoppage state is detected.
16. The method of claim 12, further comprising the step of cranking the engine.
17. The method of claim 16, the vehicle comprising a seat switch having a loaded position and an unloaded position, wherein the step of cranking the engine is only performed when the seat switch is in the loaded position.
18. The method of claim 12, wherein the vehicle is a two-wheeled, single-cylinder vehicle.

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 method comprising:
externally injecting narrow-band incoherent light signal generated by a broadband incoherent light source into a light source capable of lasing through a circulator or an optical power splitter;
suppressing any lasing modes outside of a bandwidth of the injected light signal by injecting the narrow-band incoherent light signal into the light source capable of lasing;
locking an output wavelength of the light source capable of lasing within the bandwidth of the injected light
increasing a side mode suppression ratio of the wavelength locked output by increasing a power of the injected incoherent light signal;
modulating data directly onto the output wavelength of the light source capable of lasing that is locked by the injected incoherent light signal to provide a modulated signal so that when a bias current applied to the light source capable of lasing is lower than a threshold current, an output of the light source capable of lasing is a reflected incoherent light; and
inserting a polarization controller between the circulator or the optical power splitter and the light source capable of lasing to increase an extinction ratio of the modulated signal.
2. The method of claim 1, further comprising:
generating the narrow-band injected incoherent light signal from a broadband incoherent light source.
3. The method of claim 2, further comprising:
filtering a broadband wavelength of light from the broadband incoherent light source to generate the injected narrow-band incoherent light signal.
4. The method of claim 3, wherein the filtering is adjustable.
5. The method of claim 3, wherein the filtering includes restricting the bandwidth of the incoherent light signal within a predetermined range.
6. The method of claim 2, wherein the broadband incoherent light source includes an Erbium Doped Fiber Amplifier (EDFA).
7. The method of claim 2, wherein the broadband incoherent light source includes a Light Emitting Diode (LED).
8. The method of claim 2, wherein the broadband incoherent light source includes a superluminescent diode.
9. The method of claim 1, wherein the light source capable of lasing is a Fabry-Perot laser diode.
10. The method of claim 1, wherein the light source capable of lasing is biased above a threshold.
11. The method of claim 1, wherein the light source capable of lasing is biased below a threshold.
12. The method of claim 1, wherein the modulating includes modulating a current of the light source capable of lasing.
13. An apparatus, comprising:
a light source capable of lasing to receive through a circulator or an optical power splitter an externally injected narrow-band incoherent light signal that is selected to suppress one or more lasing modes outside of a bandwidth of the injected narrow-band incoherent light signal when the injected narrow-band incoherent light signal is received and to produce an output wavelength from the light source capable of lasing that is locked within the bandwidth of the injected incoherent light signal, wherein the light source capable of lasing is further configured to increase a side mode suppression ratio of the wavelength locked output by increasing a power of the injected incoherent light signal;
wherein the light source capable of lasing is modulated directly to provide a modulated signal, so that when a bias current applied to the light source capable of lasing is lower than a threshold current, an output of the light source capable of lasing is a reflected incoherent light; and
a polarization controller coupled between the circulator or the optical power splitter and the light source capable of lasing to increase an extinction ratio of the modulated signal.
14. The apparatus of claim 13, wherein the light source capable of lasing is a Fabry-Perot laser diode.
15. The apparatus of claim 13, further comprising:
a tuneable bandpass filter to filter a broadband wavelength of light from a broadband wavelength source to pass a selected band of wavelengths from the broadband wavelength of light to the light source capable of lasing.
16. The apparatus of claim 13, wherein the light source capable of lasing is biased above a threshold.
17. The apparatus of claim 13, wherein the light source capable of lasing is biased below a threshold.
18. The apparatus of claim 13, further comprising
a broadband incoherent light source to generate an incoherent light to inject into the light source capable of lasing.
19. The apparatus of claim 18, wherein the broadband incoherent light source includes an Erbium Doped Fiber Amplifier (EDFA).
20. The apparatus of claim 18, wherein the broadband incoherent light source includes a Light Emitting Diode (LED).
21. The apparatus of claim 18, wherein the broadband incoherent light source includes a superluminescent diode.

1. A building ventilation system for attaching to a vent, of a building, comprising:
a. a fan attachable to an interior of a building in proximity to the vent;
b. a solar panel sized and operable to sufficiently supply power to the fan, wherein the solar panel is exteriorly attached to the building and electrically connected to the fan via an electrical line through the vent;
c. a controller operatively and electrically connected anywhere between the solar panel and the fan to control activation and deactivation of the fan depending upon a temperature determination; and
d. a first temperature sensor operatively and electronically associated with the controller to sense the temperature and activate or deactivate the fan in association with a pre-determined temperature.
2. The building ventilation system of claim 1, wherein the temperature sensor measures an exterior temperature outside the building, the temperature sensor operatively connected to the controller so as to sense the exterior temperature outside the building and automatically turn on or off the fan depending upon the pre-determined temperature.
3. The building ventilation. system of claim 1, further comprising a rechargeable battery operatively connected to the solar panel and the fan, wherein the solar panel charges the rechargeable battery when the solar panel is exposed to adequate sunlight, and wherein the rechargeable battery powers the fan when the solar panel is unable to power the fan due to inadequate sunlight.
4. The ventilation system of claim 1, further comprising a temperature sensor to measure an interior temperature within the building to be ventilated, the temperature sensor operatively connected to the controller so as to sense the interior temperature outside the building and automatically turn on or off the fan depending upon the pre-determined temperature.
5. The ventilation system of claim 2, further comprising a rechargeable battery operatively connected to the solar panel and the fan, wherein the solar panel charges the rechargeable battery when the solar panel is exposed to adequate sunlight, and wherein the rechargeable battery powers the fan when the solar panel is unable to power the fan due to inadequate sunlight, and wherein recharging of the battery by the solar panel occurs generally when the controller determines that the pre-determined temperature as sense by the temperature sensor has not been met to power the solar fan and there is adequate sunlight to charge the battery.
6. The ventilation system of claim 3, further comprising a rechargeable battery operatively connected to the solar panel and the fan, wherein the solar panel charges the rechargeable battery when the solar panel is exposed to adequate sunlight, and wherein the rechargeable battery powers the fan when the solar panel is unable to power the fan due to inadequate sunlight, and wherein recharging of the battery by the solar panel occurs generally when the controller determines that the pre-determined temperature as sensed by the temperature sensor has not been met to power the solar fan and there is adequate sunlight to charge the battery.
7. A retrofitable ventilation kit for an existing vent of a building, comprising:
a. a ventilation tan generally adjacent to the vent to be further ventilated wherein the fan is located within the building; and
b. a power source operatively connected to the fan, the power source comprising a solar panel located outside the building, wherein the solar panel includes a fastener to fasten the solar panel to the exterior of the building, and wherein the fan and the power source are electrically connected by way of an electrical cord that runs through the existing vent.
8. The retrofitable ventilation kit of claim 7, comprising a controller and a temperature sensor operatively connected to the controller to determine whether a predetermined condition has been met and for the controller based on the temperature sensor sensing a predetermined temperature to activate the fan.
9. The rerofitable ventilation kit of claim 8, wherein when the predetermined condition is met when the interior temperature is greater than a predetermined set temperature.
10. The retrofitable ventilation kit of claim 7, comprising two temperature sensors, a first temperature sensor positioned inside the building to measure an interior temperature; and a second temperature sensor outside the building to measure exterior temperature, wherein the first and second temperature sensors are operatively connected to the controller to indicate whether a predetermined condition has been met to activate the fan.
11. The retrofitable ventilation kit of claim 8, wherein the predetermined condition is met when the interior temperature exceeds the exterior temperature.
12. The retrofitable ventilation kit of claim 7, further comprising a rechargeable battery operatively connected to the solar panel and the fan, wherein the solar panel charges the rechargeable battery when the solar power is exposed to adequate sunlight, and wherein the rechargeable battery powers the fan when the solar power is unable to power the fan due to inadequate sunlight.
13. The retrofitable ventilation kit of claim 7, wherein the fastener is a quick application fastener.
14. A ventilation system for ventilating air through an existing vent within a building, comprising;
a. a fan;
b. a solar panel operatively connected and sized to provide sufficient power to the fan via an electrical line through the existing vent, the solar panel attachable to the building
c. a temperature sensor associated with the ventilation system; and
d. a temperature-sensitive controller unit operatively connected to the fan to control activation and deactivation of the fan depending on the temperature sensed by the temperature sensor.
15. The ventilation system of claim 14, wherein the temperature sensor measures at least one condition, wherein at least one sensor is operatively connected to the controller to indicate whether a predetermined condition has been met to activate the fan based on the temperature condition sensed by the temperature sensor and measured and compared to a pre-determined temperature by the temperature-sensitive controller.
16. The ventilation system of claim 15, wherein at least one temperature sensor is located in proximity to the fan to measure an interior temperature.
17. The ventilation system of claim 15, wherein at least one temperature sensor is in proximity to the solar panel to measure an external temperature.
18. The ventilation system of claim 16, wherein the predetermined condition is met when the interior temperature is greater than a predetermined set temperature.
19. The ventilation system of claim 17, wherein the pre-determined condition is met when the exterior temperature is greater than a pre-determined set temperature.
20. The ventilation system of claim 14, further comprising a rechargeable battery operatively connected to the solar panel and the fan, wherein the solar panel charges the rechargeable battery when the solar power is exposed to adequate lighting, and wherein the rechargeable battery powers the fan when the solar power is unable to power the fan due to inadequate sunlight.

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 telecommunication module directly connected to a wireless mobile communication network, comprising:
a system data processor for performing at least one telecommunication activity, the at least one telecommunication activity being exclusively limited to at least one of creating, setting up, implementing, monitoring and terminating a telecommunication connection with the wireless mobile communication;
a control data processor that is logically separated from the system data processor, said control data processor automatically executing at least one control instruction sequence stored in the telecommunication module, the at least one control instruction sequence being implemented such that, upon execution, the at least one telecommunication activity is initiated; and
a connector for further connecting the control data processor to an external electronic device; wherein
the at least one control instruction sequence contains of at least one Java 2 MicroEdition byte code instruction and at least one BASIC instruction.
2. A telecommunication module as claimed in claim 1, wherein the control data processor includes a storage part for storing the at least one control instruction sequence and an execution part for executing the at least one control instruction sequence.
3. A telecommunication module as claimed in claim 2, wherein the execution part executes at least one of Java instructions and BASIC instructions.
4. A telecommunication module as claimed in claim 2, wherein the execution part includes at least one of a Java virtual machine and a BASIC interpreter.
5. A telecommunication module as claimed in claim 1, wherein the at least one control instruction sequence may be at least one of setup, modified and deleted by the external electronic device via the connector.
6. A method for controlling a telecommunication module directly connected to a wireless mobile communication network, the method comprising:
providing that the telecommunication module include a system data processor for performing at least one telecommunication activity, the at least one telecommunication activity being exclusively limited to at least one of creating, setting up, implementing, monitoring and terminating a telecommunication connection with the wireless mobile communication network;
providing that the telecommunication module include a control data processor that is logically separated from the system data processor;
providing that the telecommunication module include a first connector for connecting the telecommunication module to an external electronic device;
providing that the telecommunication module include a second connector for connecting the control data processor to the system data processor;
storing at least one control instruction sequence in the telecommunication module; and
automatically executing the at least one control instruction sequence stored in the telecommunication module such that the at least one control instruction sequence initiates the at least one telecommunication activity of the system data processor;

wherein the at least one control instruction sequence contains of at least one Java 2 MicroEdition byte code instruction and at least one BASIC instruction.
7. A method for controlling a telecommunication module as claimed in claim 6, wherein for the automatic execution of the at least control instruction sequence, at least one AT control command is transmitted from the control data processor via the second connector to the system data processor.
8. A method for controlling a telecommunication module as claimed in claim 6, wherein the data is transferred from the control data processor via the first connector to the external electronic device.
9. A method for controlling a telecommunication module as claimed in claim 8, wherein the data contains instructions for controlling the external electronic device.
10. A method for controlling a telecommunication module as claimed in claim 6, wherein the at least one control instruction sequence stored in the telecommunication module may be at least one of created, modified and deleted by the external electronic device.
11. A method for controlling a telecommunication module as claimed in claim 6, wherein the automatic execution of the at least one control instruction sequence is initiated by at least one of the external electronic device and establishment of a connection from the telecommunication module to a power supply device.
12. A method for controlling a telecommunication module as claimed in claim 6, wherein the at least one control instruction sequence is implemented such that one particular control instruction sequence is repeated at least once.
13. A method for controlling a telecommunication module as claimed in claim 12, wherein the repetition of the one particular control instruction sequence occurs once a specified intervening time period has elapsed.