This invention generally relates to winches, and more specifically relates to winches with improved functionality.
Winches in their most basic form have been used for many years to help hoist or move objects. Winches can be used in a variety of settings. They are used on boats, on cars, in a building, in a theatre, on a construction site, indoors or outdoors. They are extremely useful because they help users to maneuver often large or heavy equipment or materials in such a way that would be extremely difficult to do manually.
Winches are used to pull in or let out tension on a rope. There exists a wide variety of winches comprised of different materials. When using a vehicle such as an ATV, users are often in rough terrain, and far away from sources of electricity or power. In addition, they need the use of tools such as flashlights or other electronics such as a camera or a smart phone because of their practical features, such as the ability to make calls or take pictures or videos, and when using an ATV there are many situations that arise where an individual might wish to make a call, or take a picture. However, because these electronic devices have limited life span, they may run out of battery life before a user returns to a place that provides electric power. Thus, a winch that provides power and the ability to charge electronic hardware such as a flashlight, camera, or phone, is needed.
This invention has been developed in response to the present state of the art and, in particular, in response to the problems and needs in the art that have not yet been fully solved by currently available systems and methods. Features and advantages of different embodiments of the invention will become more fully apparent from the following description and appended claims, or may be learned by practice of the invention as set forth hereinafter.
Consistent with the foregoing, a system and method for a power bar smart winch are disclosed.
A winch is described that includes a rotatable drum comprising a winch cable windably connected to the winch drum, and a removable vehicle winch frame with two end brackets. The winch comprises a winch motor, a gear assembly, and a rigid power bar spanning the winch drum and connecting the first and second end brackets, the power bar being connected to an electrical power source and comprising an electrical power connection for powering auxiliary hardware. A winch controller comprising manual and app related software in communication with the motor, allows the controller to receive manual and or app related commands from a user to operate the winch assembly.
A clip is specifically designed which is comprised of a first end that attaches to the power bar, and a second that attaches to hardware. Various hardware can be attached to the clip and thereby to the power bar. There are various clips with distinct second ends to connect to the different hardware. The hardware consists of various dc powered handheld devices and once they are secured to the power bar by the clip, the power bar can charge the devices. Some examples of hardware that can be secured to the power bar are a flashlight, a camera, a mobile phone. However, non-electric hardware, such as a handle may also be connected to the power bar. In these instances, the non-electric hardware will not charge, but may prove convenient or helpful to the user.
The exterior surface of the winch drum is comprised of spiral grooves to control where the cable is placed on the drum when it is wound or unwound. They prevent the cable from winding onto itself or becoming tangled.
The winch frame may attach or detach to a variety of vehicles, and may also operate while unattached to any vehicle. For example, a winch could be attached to a boat, a truck, a car, a tractor, a motorcycle, or an ATV. The winch could be useful attached to any of those vehicles.
The cable may be comprised of a material that is sufficiently strong enough to pull up to 2,000 lbs. The most likely materials that the cable will be composed of are steel, polyethylene, fiber based polyethylene, and synthetic fiber.
In one embodiment, the gear assembly shifts electronically, so that it does not need to be manually shifted, and so that the user does not control when the gear assembly shifts. However, in another embodiment, a user may indicate via the app when they would like the gear assembly to shift electronically.
In another embodiment, the winch may have a cover for the power bar, to protect the power bar from damage. A power bar may be damaged by rain, snow, wind, mud, or ice. A cover for the power bar may be constructed from materials including silicone, rubber, or plastic or a combination thereof.
The all in and all out command included in the app related software permits a user to wind all the cable onto the drum at once, or to unwind the entire cable off of the drum at once.
The app related software includes a cable winding speed control so that a user can speed up or slow down the rate at which the cable winds onto or off the drum.
The drum comprises a load sensor for communicating the size of the load to the controller and the user.
The cable load threshold is up to 2,000 lbs., permitting the winch to wind an object that weighs up to 2,000 lbs.
The pairing button, when pressed or activated, has the ability to connect the controller to a nearby cellular device via a short-range wireless connection, so that the user can control the winch via their phone.
The user selectable presets available via the app related software permit a user to preset a length of cable they would like wound off of the drum.
The remote is plugged into the winch and may control the winch and its various adjustable features in the event that the user does not have or does not prefer to use a cellular device that can use the app related software for controlling the winch.
In order that the advantages of the invention will be readily understood, a more particular description of the invention briefly described above will be rendered by reference to specific embodiments illustrated in the appended drawings. Understanding that these drawings depict only typical embodiments of the invention and are not therefore to be considered limiting of its scope, the invention will be described and explained with additional specificity and detail through use of the accompanying drawings, in which:
In the following detailed description, numerous specific details are provided for a thorough understanding of the various embodiments disclosed herein. The embodiments disclosed herein can be manufactured without one or more of the specific details, or with other methods, components, materials, etc. In addition, in some cases, well-known structures, or characteristics may be combined in any suitable manner in one or more alternative embodiments.
Battery powered winches are useful for many reasons. They are designed such that they do not need to be attached to a source of electric power at all times, rather they are portable and can operate without any attachment to an exterior source of electric power because the battery provides the needed power.
Depending on the environment in which a winch is used, other devices may be beneficial. One of the common use cases for winches, for example, is for a winch to be placed on a vehicle (e.g., all-terrain vehicle (ATV), truck, utility vehicle, and the like). Typically, the winch is placed at the front (or back) of the vehicle. This placement may also be ideal for lights, cameras, speakers, and the like. For instance, it may be beneficial to have a light(s) and/or a camera placed at the front (or back) of a vehicle. For example, to provide light or record the experience that the vehicle goes through.
It is appreciated, that many devices are battery powered—such as cell phones, lap tops, cameras, lights, and/or speakers. Battery powered devices, although convenient because of their portability, have the issue of a limited life span. Battery life varies depending on the size of the battery and the amount of energy a device requires. But eventually, battery powered devices will use all the power provided by the battery and then cease to function until the battery is recharged. Users of battery-powered devices must be conscious of how much battery power a device has when they are not using a device near an external source of electrical power. A battery powered winch, similarly, has a limited life span, but may have a battery which is much larger (and thus lasts much longer, for example) than those found in other battery powered objects such as a cell phone, laptop, camera, light, and/or speaker. Batteries may be recharged by other batteries, and thus a winch battery could be a source of energy for other battery-powered devices. Accordingly, a winch that includes the ability to both mount and power other devices may be beneficial.
A winch that includes a power bar for both mounting and optionally powering other devices is described herein. As described herein the power bar enables mounting and/or powering of one or more devices. For example, a video camera (such as an action camera, for example) may be mounted and powered via a power bar attached to the winch. In some embodiments, a power bar may have exposed electrical contacts for providing power to another device (e.g., light, camera, etc.). Additionally or alternatively, the power bar may have inductive coils for wireless power transfer, etc. Reference is now made to the figures, which further describe various embodiments of the described winch with power bar.
In one embodiment, the user selectable preset button 706 may be used to power on the power bar 105 (or power on a particular device or particular outlet on the power bar, for example) and the selectable preset button 707 may be used to power off the power bar 105 (or power off a particular device or particular outlet on the power bar, for example). In this way a user may easily select and control which devices on the power bar 105 (or the power bar 105 itself, for example) are powered on/off.
A battery indicator button 708 indicates to the user how much battery life the winch assembly 100 has remaining. Because the winch assembly 100 can operate solely on battery power, a user does not need to be near an electrical outlet to use their winch assembly 100. However, if the battery life is running low, a user will need to find an electrical power source to continue using their winch assembly 100. As such, the battery life indicator button 708 signals to a user how much power is remaining. The battery can be recharged at any time. A load indictor button 709 signals to the user the weight of the load that the user is pulling. The winch assembly 100 has the capacity to pull up to 2,000 lbs. and the load indicator button 709 will indicate to a user how much of this capacity is being used when pulling an object. This will be helpful to a user in the event that they need to determine whether or not they can add more weight for the winch assembly 100 to pull.
In some embodiments, the winch assembly 100 may have the capacity to pull up to 4,000 lbs for a very short amount of time (e.g., less than 5 seconds), by allowing the winch assembly 100 to draw substantially more current (in a short burst, for example), than is permitted in steady state (or typical) operation. In some cases, this burst of pulling power may enable the winch 100 to overcome the static friction of a heavy object while being able to overcome the moving friction using a pulling capacity that is less than the 2,000 lb pulling capacity. This may enable the winch 100 to be able to accomplish certain tasks that would otherwise be unattainable with the 2,000 lb pulling capacity. In some cases, this burst mode capacity may be enabled via a button (e.g., load indicator button 709, by long pressing the button, for example).