This invention relates generally to a light device and, more particularly, to an emergency storm light for traditional use as a flashlight and for emergency lighting when an electrical power outage is experienced.
There are many uses for a small, portable light. Flashlights are useful in that they may be carried by a user while walking or for illuminating a location not accessible to traditional lighting. So called “night lights” are useful to provide small amounts of lighting either to illuminate a darkened walkway or just to provide emotional security to a child. Although these devices are assumably effective for their intended purposes, there are shortcomings as well, such as electrical power outages in the case of night lights and the short duration of batteries in the case of flashlights.
Therefore, it would be desirable to have a storm light having multiple modes for use as a flashlight, a night light, and an emergency storm light when electrical power is interrupted. Further, it would be desirable to have a storm light that is rechargeable when plugged into a traditional electrical outlet and includes a timer so that the light may be deactivated after a predetermined time. In addition, it would be desirable to have a storm light having a belt clip for hands free usage.
A storm light according to the present invention includes a housing having a plurality of walls defining an interior space, a light positioned on the housing for transmitting light when energized, and a battery positioned in the interior space and electrically connected to the light. A control unit is situated in the interior space and electrically connected to the light and the battery, the control unit having programming corresponding to ON, OFF, and AUTOMATIC modes of operation. A mode selection switch is positioned on the housing and electrically connected to the control unit, the mode selection switch being movable between positions corresponding to respective modes. An electrical plug is mounted to the housing that is electrically connected to the control unit and configured to connect to AC power. The control unit includes programming initiated when the mode selection switch is at the ON position that causes the light to be energized by AC power if the plug is connected to the AC power and the AC power is available and that causes the light to be energized by the battery if the AC power is unavailable.
Therefore, a general object of this invention is to provide a storm light having multiple modes to enable selective usage as a flashlight, night light, or battery powered emergency storm light.
Another object of this invention is to provide a storm light, as aforesaid, that includes a battery that is rechargeable when the device is plugged into an electrical receptacle or car charger.
Still another object of this invention is to provide a storm light, as aforesaid, that is capable of hands free use.
Yet another object of this invention is to provide a storm light, as aforesaid, that promotes electricity conservation in that it includes a timer for self-deactivation.
A further object of this invention is to provide a storm light, as aforesaid, in which a nightlight mode may include a dimmer for selective illumination.
Other objects and advantages of the present invention will become apparent from the following description taken in connection with the accompanying drawings, wherein is set forth by way of illustration and example, embodiments of this invention.
a is a rear perspective view of the storm light as in
b is a rear perspective view of the storm light as in
A storm light according to a preferred embodiment of the present invention will now be described with reference to
A light 20 is positioned within the interior space of the housing 12 for transmitting light when energized (
The light 20 may be energized by either a battery 22 or by traditional AC current. The battery 22 is positioned within the interior space of the housing 12 and is preferably rechargeable. The storm light 10 includes an electrical plug 24 that is positioned on a rear wall 15 thereof and is electrically connected to the light 20 for operation as discussed in more detail later. The electrical plug is movable between an extended/use configuration (
A control unit 26 is also situated in the interior space of the housing 12 that is electrically connected to the battery 22, light 20, and other electrical components to be discussed below. A mode selector switch 28 is positioned on the front wall 14 of the housing and is movable between at least positions corresponding to “ON,” “OFF,” and “AUTO” modes of operation, each of these modes corresponding to respective programming in the control unit, the control unit 26 being a processor or equivalent circuitry. The programming relative to the aforementioned modes is illustrated in the flow chart of
The control unit 26 includes programming that is immediately initiated when the mode selector switch 28 is positioned at the “ON” configuration 50, the programming causing the light 20 to be energized by AC current, as indicated by numeral 58, if the plug 24 is engaged with an AC receptacle and AC current is currently available 52. The programming, however, causes the light 20 to be energized by allowing current to flow from the battery 22 to the light if either the plug 24 is not engaged with an AC receptacle or if AC power is simply not available 54 to the receptacle. In other words, if the control unit 26 does not detect that any AC power is available, as indicated by reference numeral 54, the control unit 26 connects the battery 22, as shown at 56 to energize the light 20, as indicated at 58.
The control unit 26 includes programming relative to an automatic mode. If the mode selector switch 28 is positioned in the AUTO mode 60, the control unit 26 then checks to see if AC power is available 62, such as by electrically signaling or polling the plug 24. If AC power is available, the control unit 26 simply continues to monitor this status. If, however, AC power is not available—which may be indicative of a power outage—the control unit 26 enables the battery 22 to deliver current to the light 20 as indicated at 64 and 66, respectively.
The control unit 26 also includes programming that causes the light 20 to be deactivated or de-energized when the mode selector switch 28 is positioned at the OFF configuration. As shown in
As shown in
The storm light 10 may also include a dimmer selection switch 32 positioned on an outer wall and electrically connected to the control unit 26 (
The storm light 10 may further include a belt clip 34 (
Still further, the storm light 10 may include a car charger 40 that enables the battery 22 to be recharged. The car charger 40 includes one end configured to engage the plug 24 of the storm light 10 and an opposed end configured to engage a vehicle's electrical adapter, such as a cigarette lighter.
In use, the storm light 10 may be used as a flashlight, night light, or as an emergency light in case of an electrical power outage. More particularly, the storm light 10 may be plugged into a traditional AC electrical receptacle. In the “ON” mode setting and with AC power being available to the receptacle, the light 20 is energized by the AC power. If no AC power is available (such as if the storm light 10 is not plugged in or in case of a power outage), the light 20 is energized by current from the battery 22. In the “on” mode, the timer 30 may be set such that the light 20 is deactivated after a user-set amount of time and the dimmer 32 may also be used to control light intensity (e.g. use as a night light). In the “AUTO” mode, the control unit 26 repeatedly monitors if AC power is available and takes no action so long as AC power is maintained. This is the case where the storm light 10 is plugged in and available in case of a power outage. If, in fact, the AC power is interrupted, the control unit 26 causes the battery 22 to deliver current to the light 20 and the light 20 is energized.
It is understood that while certain forms of this invention have been illustrated and described, it is not limited thereto except insofar as such limitations are included in the following claims and allowable functional equivalents thereof.
Number | Name | Date | Kind |
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3601595 | Kivela | Aug 1971 | A |
5684378 | Furth et al. | Nov 1997 | A |
5713655 | Blackman | Feb 1998 | A |
20100039792 | Meyers et al. | Feb 2010 | A1 |
Number | Date | Country | |
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20100271801 A1 | Oct 2010 | US |