1. Technical Field
The present invention relates generally to a timer used in commercial, industrial and residential applications, and more particularly, pertains to a timer with a slim motor assembly providing slim construction for said timing device.
2. Background Art
Timers are used for a variety of applications and purposes throughout commercial, industrial and residential buildings. Timers provide automated and adjustable control of electrical devices without having to be physically present to operate the device. Timers may be used for example, to control pools, water heaters, lights, or any other suitable electrical component. The timers may be electrically controlled or mechanically controlled, with the mechanical variety having several trippers which operate to turn on and off the electrical component at the desired time. Since a timer is adjustable, the control mechanisms must be accessible from wherever the timer is mounted. The timer enclosures are generally mounted to a wall, post or other structure nearby the electrical device they are meant to control.
The present invention seeks to improve upon the prior art by providing a timer having a motor with slim construction so as to provide a thinner and more compact timer assembly.
The present invention is generally directed to a timer in which a compact motor provides for a compact configuration of the timer. The compact motor is incorporated within a baseplate of the timer to achieve a thinner profile. Additional advantages may be achieved by positioning the motor within an area defined by the baseplate and a time indicator, or by mounting the motor in an offset manner with respect to the baseplate. Further, the orientation of the motor may be changed to mount the motor to the front or rear of the baseplate to provide for an additional thickness reduction.
In one embodiment, a mechanical timer assembly includes a baseplate having a front side and a back side; a time indicator extending from the front side; and a motor secured to the baseplate and having a front end, a back end, and an output gear; wherein the front end of the motor is forward of the front side of the baseplate and the back end of the motor is rearward of the back side of the baseplate.
In one aspect, the mechanical timer assembly baseplate may further include an opening for receiving the motor.
In another aspect, the baseplate may further include motor mounting openings that are positioned in the baseplate.
In another aspect, the mechanical timer assembly may include at least one intermediate gear communicating with the time indicator and the output gear.
In another aspect, the motor back end may extend beyond the output gear.
In another aspect, the motor front end may extend beyond the front side of the baseplate further than the motor back end extends beyond the back side of the baseplate.
In another aspect, the motor front end may extend beyond the front side of the baseplate a distance less than the motor back end extends beyond the back side of the baseplate.
In another aspect, the time indicator may be positioned on an opposite side of the baseplate from the motor output gear.
In another aspect, the motor may be releasably secured to the baseplate. The motor may further include a wiring quick disconnect.
In another aspect, the motor front end may not extend beyond the time indicator.
In another aspect, at least 25 percent of a motor thickness may extend beyond the front side of the baseplate, or at least 50 percent of a motor thickness may extend beyond the front side of the baseplate.
In another aspect, the motor may further include at least one mounting tab to secure the motor to the baseplate. The at least one mounting tab may be a series of mounting tabs.
In another aspect, the at least one mounting tab may be positioned between the motor front end and the motor back end. The at least one mounting tab may be positioned halfway between the motor front end and the motor back end.
In another embodiment, a mechanical timer assembly includes a baseplate having a front side and a back side; a time indicator extending from the front side; and a motor secured to the baseplate and having a front end, a back end, and an output gear. The motor front end is rearward of the back side of the baseplate and the motor back end is forward of the front side of the baseplate.
In another aspect, the baseplate may further include an opening for receiving the motor.
In another aspect, the baseplate may further include motor mounting openings, and the motor mounting openings may be positioned in the baseplate. The motor further includes at least one mounting tab to secure the motor to the motor mounting openings.
In another aspect, the motor back end may extend beyond the output gear.
In another aspect, the time indicator may be positioned on an opposite side of the baseplate from the motor output gear.
In another aspect, the motor may not extend beyond the time indicator.
In another aspect, at least 25 percent of the motor thickness may extend beyond the front side of the baseplate.
In another aspect, the motor may further include at least one mounting tab positioned between the front end and the back end. The at least one mounting tab may be positioned halfway between the motor front end and the motor back end.
Various other features, objects and advantages of the present invention will be apparent from the following detailed description taken together with the drawings.
The drawings illustrate the best mode presently contemplated for carrying out the invention.
In the drawings:
This invention relates to a timer assembly having a motor with a compact configuration.
As best seen in
The time indicator 36 includes a time wheel 46 having a series of time markers for determining both the current time and where to place timer triggers 38 to activate a connected device. As seen in
Referring now to
Referring now to
While the motor mounting tab openings 64 are illustrated as being integral with the baseplate 24, as seen in
In one embodiment, the location of the motor 22 is determined by the relative position between the motor mounting tabs 52 and the motor mounting tab openings 64 in baseplate 24. Specifically, the location of the motor mounting tabs 52 between the motor front end 30 and back end 32 in combination with any offset of the motor mounting tab openings 64 determines the relative position of the motor 22 with respect to the baseplate 24.
Referring to
Operation remains similar to other mechanical timer assemblies, whereby the timer triggers 38 contact various actuating components to turn the connected device on or off as desired. Further, a manual override switch 66 may be incorporated to override the timing function. Further, the override switch 66 may move to the appropriate location (on or off) during regular timing operations to further indicate the timer assembly's current state. Finally, the timer assembly 20 also includes wiring terminals 68 for connecting line inputs as well as the connected device for operation. Thus it is seen that the motor 22 may be moved relative to the baseplate 24 and particularly positioned at least partially within the baseplate 24 to significantly reduce the overall thickness of the timer assembly 20.
Referring to
As discussed above, the motor 22 includes at least one motor mounting tab 52 with a mounting opening 56 for receiving screws 58. In one embodiment, at least two motor mounting tabs 52 are included, each having their own mounting openings 56. Motor mounting tabs 52 may extend from the ledge 54 or may be disposed at any position between the motor front end 30 and the motor back end 32. In alternative embodiments, the motor mounting tabs 52 are flush with the front end 30 or back end 32 and are incorporated with the recessed motor mounting area 70 as described in greater detail above. Further, the motor back end 32 may extend outward beyond the output gear 34 to prevent damage to the output gear or teeth 74 both during operation and assembly.
Referring now to
As seen in
Referring to
In additional embodiments, the motor mounting screws 58 may be secured through the motor mounting tab openings 64 in baseplate 24 before being threaded into the motor mounting openings 56 in the motor mounting tabs 52. Alternatively, the motor mounting screws 58 may be secured through the motor mounting openings 56 in the motor mounting tabs 52 before being threaded into motor mounting tab openings 64 in the baseplate 24. The motor 22 may also be secured to the baseplate 24 by utilizing nuts to secure the motor mounting screws 58 instead of providing threaded holes at the motor mounting tab openings 64 or the motor mounting openings 56.
In operation, the motor 22 operates the time indicator 36 through the motor output gear 34 and may use the intermediate gear 50 as appropriate. As is customary with known mechanical timers, when the timer triggers 38 contact an actuating mechanism 82, the connected device is either turned on or off by supplying or shutting off current through the wiring terminals 68 as appropriate. Still further, the manual override switch 66 moves to the on or off position, but the manual override switch 66 is still operable to override the actuating mechanism 82.
Advantageously, the general operation and function of the timer assembly 20 and 76 are similar to known mechanical timers with the advantage of requiring significantly less space. Accordingly, the timer assemblies 20 and 76 provide a significantly thinner profile and less overall thickness of the timer assemblies by, amongst other advantages, incorporating the motor 22 within the baseplate 24. Additional advantages may include positioning the motor 22 within an area defined by the baseplate 24 and the time indicator 36, or by mounting the motor 22 in an offset manner with respect to the baseplate 24. Further, the orientation of the motor 22 may be changed to mount the motor to the front or the rear to provide for an additional thickness reduction.
It should be understood that the invention is not limited in its application to the details of construction and arrangements of the components set forth herein. The invention is capable of other embodiments and of being practiced or carried out in various ways. Variations and modifications of the foregoing are within the scope of the present invention. It also being understood that the invention disclosed and defined herein extends to all alternative combinations of two or more of the individual features mentioned or evident from the text and/or drawings. All of these different combinations constitute various alternative aspects of the present invention. The embodiments described herein explain the best modes known for practicing the invention and will enable others skilled in the art to utilize the invention
This application claims priority to U.S. provisional application Ser. No. 61/711,955, filed Oct. 10, 2012, the entire contents of which is incorporated herein by reference.
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Number | Date | Country | |
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61711955 | Oct 2012 | US |