The subject invention generally and in various embodiments relates to devices for receiving and retaining independently powered lights, and more particularly to light holders for use with a tool.
In many instances, an independently powered light, such as a flashlight, may be used to illuminate a darkened space. More specifically, the light may be used to work provide a user with sufficient visibility to allow the user to perform a required function or operation. In cases where the user also must employ a tool in the course of performing the particular function or operation, the user may experience difficulty in positioning the light to illuminate an area in which the specific operation or function is to be performed with the tool.
In some operations a user may experience further problems where a strong light source emanates from behind the darkened space or where visibility is otherwise low, such that the user may become dazzled. In such cases, the overpowering light source may direct light toward the user's eyes from behind the work space of interest and inhibit the user's ability to freely position the portable independently powered light effectively into the darkened space to perform the operation or function.
Various embodiments of the present invention include an apparatus for receiving and retaining an independently powered light. In some embodiments, the apparatus has an elongated molded body having a first aperture extending through the length of the elongated molded body. The first aperture is adapted to receive and retain the independently powered light. The elongated molded body also has a second aperture extending through the length of the elongated molded body. The second aperture is adapted for attachment to a tool.
In various embodiments, an apparatus for receiving and retaining an independently powered light includes a removable elongated molded body having an upper portion and a lower portion. The upper portion has a first aperture through the upper portion. The upper portion is configured to receive and retain the independently powered light. The elongated molded body also has a second aperture through the lower portion. The apparatus includes a tool configured to receive the elongated molded body about the second aperture.
In various embodiments, an apparatus for receiving and retaining an independently powered light includes an elongated molded body having a first retaining means for retaining the independently powered light within at least a portion of the first retaining means. The apparatus further includes an attachment means for removably mounting the retaining means to a tool.
Other systems, methods, and/or products according to embodiments will be or become apparent to one with skill in the art upon review of the following drawings and detailed description. It is intended that all such additional systems, methods, and/or products be included within this description, be within the scope of the present invention, and be protected by the accompanying claims.
In the accompanying Figures, there are shown various embodiments of the present invention wherein like reference numerals are employed to designate like parts and wherein:
Referring now to the drawings for the purpose of illustrating the invention and not for the purpose of limiting the same, it is to be understood that standard components or features that are within the purview of an artisan of ordinary skill and do not contribute to the understanding of the various embodiments of the invention are omitted from the drawings to enhance clarity. In addition, it will be appreciated that the characterizations of various components and orientations described herein as being “vertical” or “horizontal”, “right” or “left”, “side”, “top”, “bottom”, “upper” or “lower” are relative characterizations only based upon the particular position or orientation of a given component for a particular application.
The elongated molded body 20 may be constructed from a number of materials including, but not limited to, polymeric materials, rubber, etc. The elongated nature of the elongated molded body 20 allows the first aperture 30 to be of sufficient length to allow the elongated molded body 20 to retain an independently powered light 800. Additionally, the length of the elongated molded body 20 provides the second aperture 30 with a sufficient length to allow attachment to a tool 700. Further, the elongated molded body 20 may take on various shapes depending on the particular application. As illustrated, the elongated molded body 20 is shaped such that it follows the contour of the first and second apertures 30, 40, although other shapes may be implemented.
In various embodiments, the first aperture 30 is configured to receive and retain the independently powered light 800, such as, for example, a flashlight 808. As shown in
The second aperture 40 is adapted to attach to the tool 700. The second aperture 40 may be received by the tool 700 and may attach to the tool 700 in a variety of different manners, as will be discussed in detail below, including, but not limited to a friction fit. Further, the second aperture 40 may be configured to allow various mounting orientations as may be required for a particular application or tool 700, such as, for example, a screwdriver 707. As shown, when the screwdriver 707 is employed with the light retainer 10 having the light 800 therein, the orientation of the second aperture 40 allows the light 800 to provide a beam of light and additional illumination at or near the work area in which the tool 700 may contact another object.
As shown in
The additional structure for the third aperture 150 tends to counter balance the first aperture 130, which is positioned on the opposite side of the second aperture 140. The light retainer 110 thus provides an increased moment of inertia about the central axis of the tool 700.
The elongated molded body 120 may be constructed from a number of materials including, but not limited to, polymeric materials, rubber, etc. The elongated nature of the elongated molded body 120 allows the first aperture 130 to be of sufficient length to make a stable connection with and retain an independently powered light 800. Additionally, the length of the elongated molded body 120 provides the second aperture 130 with a sufficient length to allow attachment to the tool 700. The third aperture 150 also provides a sufficient length to receive and retain the battery 909. The elongated molded body 120 may take on various shapes as determined by a given application. As illustrated, the elongated molded body 120 is shaped such that it generally follows the contour of the first and third apertures 130, 150 save a lower planar portion 180, although other shapes may be implemented.
As can be seen in
The first aperture 130 is configured to receive and retain the independently powered light 800, such as, for example, a flashlight 808. As shown in
The second aperture 140 is adapted to attach to the tool 700. The second aperture 140 may receive the tool 700 and may further attach to the tool 700 in a variety of different manners, as will be discussed in further detail below, including, but not limited to, a friction fit. The second aperture 140 alternatively may be configured so as to allow for various mounting orientations as may be required for a particular application or tool 700. As shown, the orientation of the second aperture 140 is such that when the screwdriver 707 is employed with the light retainer 110 having a light 800 therein, the beam of light may provide additional illumination at or near the work area in which the tool 700 may be required to contact another object.
The elongated molded body 120 also has the third aperture 150, as illustrated in
As shown in
In addition, the elongated molded body 220 includes a third aperture 250, as illustrated, through at least a portion of the elongated molded body 220 to hold a spare power source 900. The power source 900 may include various standardized forms such as, for example, a battery 909.
The additional structure for the third aperture 250 tends to counter balance the first aperture 230, which is positioned on the opposite side of the second aperture 240. The light retainer 210 thus provides an increased moment of inertia about the central axis of the tool 730.
The elongated nature of the elongated molded body 220 allows the first aperture 230 a sufficient length in which to make a stable connection with and retain the light 800. The length of elongated molded body 220 also provides the second aperture 230 with a sufficient length to allow attachment to the tool 730. The third aperture 250 has a sufficient length to receive and retain the battery 909. The elongated molded body 220 also may be constructed from a number of materials including, but not limited to, polymeric materials, rubber, etc. Further, the elongated molded body 220 may take on various shapes as determined by a particular application. As illustrated, the elongated molded body 220 is shaped such that it generally follows the contour of the first and third apertures 230, 250, save a lower planar portion 280.
As can be seen in
The first aperture 230 is configured to receive and retain the light 800. The light 800 may be a flashlight 808, as illustrated, or otherwise may be another light source. As shown in
As shown in
Various embodiments also include the elongated molded body 220 having the third aperture 250, as illustrated in
A light retainer 310 is shown in
The elongated configuration of the elongated molded body 320 allows the first aperture 330 to be of sufficient length to make a stable connection with and retain the light such as, for example, a flashlight. Additionally, the length of elongated molded body 320 provides the second aperture 330 with a sufficient length to allow attachment to a tool 740. The third aperture 350 provides a sufficient length to receive and retain the spare power source, which may be, for example, a battery (not shown). The elongated molded body 320 may be constructed from a number of materials including, but not limited to, polymeric materials, rubber, etc. The elongated molded body 320 may take on various shapes as determined by a particular application. The elongated molded body 320 is shaped such that it generally follows the contour of the first and third apertures 330, 350.
As depicted in the drawings, the first aperture 330 is configured to receive and retain a light (not shown). The light may be a flashlight or otherwise may be another light source and may be received and retained in several different manners, including, but not limited to a friction fit. The first aperture 330 alternatively may be configured to hold the light in various angles and orientations by creating the first aperture 330 along various angles and orientations as desired.
The second aperture 340 is adapted to attach to the tool 740 by way of a notch 750 on the tool 740. The tool 740 receives the molded body 320 within the second aperture 340. When the second aperture 340 reaches the notch 750, the notch 750 should be aligned with a slot 370 in the second aperture 340. As the molded body 320 is slid over the notch 750 within the slot 370, the molded body will eventually contact the end of the slot 370 and enter the locking slot 377. The molded body 320 is then rotated about the notch 750 so that the notch 750 leaves the slot 370 and enters the locking slot 377. Thus, the molded body 320 may releasably attach to the tool 740 by mating the notch 750 with the locking slot 377.
The second aperture 340 alternatively may be configured to allow for various mounting orientations. As shown, the orientation of the second aperture 340 is such that when the tool 740 is attached with the light retainer 310 having a light therein, the beam of light may provide additional illumination at or near the work area in which the tool 740 may be required to contact another object.
The elongated molded body 320 has the third aperture 350, as illustrated in
The additional structure for the third aperture 350 tends to counter balance the first aperture 330, which is positioned on the opposite side of the second aperture 340. The light retainer 310 thus provides an increased moment of inertia about the central axis of the tool 740.
Whereas particular embodiments of the invention have been described herein for the purpose of illustrating the invention and not for the purpose of limiting the same, it will be appreciated by those of ordinary skill in the art that numerous variations of the details, materials, configurations and arrangement of parts may be made within the principle and scope of the invention without departing from the spirit of the invention. One such example may be the addition of a centrally located pocket to hold a spare capsule shaped bulb for the light. Other examples may include additional areas in which to store additional spare power sources, etc. The preceding description, therefore, is not meant to limit the scope of the invention.