The field of the present disclosure relates generally to a system for use in calibrating a tool, more specifically, to a tool calibration device for calibrating a crow foot wrench and a tool.
At least some known vehicles, such as automobiles, require specific tooling to perform assembly and maintenance. Such tooling includes a crow foot wrench coupled to the head of a powered tool. In at least some circumstances, the crow foot wrench needs to be attached to the tool head in a predetermined orientation in order to perform tightening or fastening operations for vehicle assembly. An improperly aligned wrench may be responsible for leaking pipes or hoses and may result in a shortened service lifetime of the tool.
In at least some circumstances, a technician may visually inspect the workpiece and estimate the correct angle in which to set the crow foot wrench with respect to the tool in order to complete the required service. However, if the crow foot wrench is not correctly oriented with respect to the tool head, much of the torque applied by the tool may be directed to a surface or component different than that intended, which may result in unacceptable tightening or fastening or a shortened service lifetime of the tool. As such, improper alignment of the crow foot wrench with the tool head may result in undesired increased parts costs, labor costs, and service time.
In one aspect, a tool calibration device for use with a tool and a wrench is provided. The tool calibration device includes a baseplate including an arcuate slot defined therein and a pin coupled to the baseplate and slidably moveable along the slot. The pin is configured to engage the wrench such that movement of the pin along the slot causes rotation of the wrench.
In another aspect, a tool calibration system is provided. The tool calibration system includes a tool and a wrench pivotally coupled to the tool. The tool calibration system also includes a tool calibration device coupled to the tool and to the wrench. The tool calibration device includes a baseplate including an arcuate slot defined therein and a pin coupled to the baseplate and slidably moveable along the slot. The pin is configured to engage the wrench such that movement of the pin along the slot causes rotation of the wrench.
The embodiments described herein relate generally to a tool calibration system. More specifically, the tool calibration system described herein uses a tool calibration device to facilitate proper alignment of a crow foot wrench and a tool. Previously, a technician may visually inspect the workpiece and estimate the correct angle in which to set the crow foot wrench with respect to the tool in order to complete the required service. However, an improperly aligned wrench may be responsible for leaking pipes or hoses and may result in a shortened service lifetime of the tool. The tool calibration system describe herein enables the technician to engage the crow foot wrench with a moveable pin and then slide the pin along a slot to a desired angle indicator to adjust the orientation of the crow foot wrench such that the pin corresponds to a predetermined angle setting with respect to the tool to which the crow foot wrench is coupled. Once the angle is set, the technician can tighten a fastener to maintain the position of the crow foot wrench. As long as the fastener is kept tightened, the technician can confirm the alignment of the tool and crow foot wrench by inserting the tool with the crow foot wrench into the tool calibration device, for example at the beginning of a shift, to verify the crow foot wrench is in the proper orientation.
Device 106 also includes a pin 120 coupled to baseplate 108 and slidably moveable along slot 110. Pin 120 engages wrench 104 such that movement of pin 120 along slot 110 causes rotation of wrench 104, as described in further detail below. As shown in
Baseplate 108 also includes a scale 126 extending along the arc length of body portion 116 of slot 110. Scale 126 includes a plurality of indicators 128 that designate an angle measurement with respect to tool 102. More specifically, in operation, scale 126 enables a technician to slide pin 120 along slot 110 to a desired predetermined angle indicator 128 to set the angle of wrench 104 with respect to tool 102. Baseplate 108 also includes an alignment opening 130 configured to receive a head 132 of tool 102. Alignment opening 130 is positioned at a center point of arcuate slot 110 and represents a rotational axis of wrench 104 with respect to tool head 132. As such, alignment opening 130 facilitates aligning wrench 104 with head 132 to enable calibration of tool 102 and wrench 104.
As shown in
In some embodiments, tool calibration device 106 further includes a tool support plate 138 coupled to baseplate 108. Tool support plate 138 is positioned between handle openings 136 and maintains the position of tool 102 while the technician is setting the alignment of wrench 104. In some embodiments, tool support plate 138 includes a first end 140, an opposing second end 142, and a plurality of grooves 144 extending a full distance between ends 140 and 142. In other embodiments, grooves 144 extend less than a full distance between ends 140 and 142. Although three grooves 144 are shown in
Tool support plate 138 also includes a pair of pins 146 coupled with each groove 144. Pins 146 are similar to pins 120 in that pins 146 are slidably engaged with groove 144 to enable movement of pins 146 along grooves 144. Grooves 144 are open-ended at ends 140 and 142 to enable pins to slide into grooves 144. As shown in
In operation, a technician engages a first end 156 of wrench 104 with pin 120 of tool calibration device 106. The technician then aligns an opening (not shown) in a second end 158 of wrench 104 with alignment opening 130 in baseplate 108 of tool calibration device 106. A fastener (not shown) in tool head 134 is then inserted into the opening in second end 158 of wrench 104 to coupled wrench 104 to tool 102. Handle 148 is positioned between pins 146 in tool support plate 138, and pins 146 are adjusted along grooves 144 to restrict movement of handle 148. The technician then slides pin 120 along slot 110 in baseplate 108 to set the orientation of wrench 104 to a predetermined angle with respect to tool head 134. Once the orientation is set, the tool 102 and wrench can be removes from tool calibration device 106 and the fastener on tool head 134 can be tightened to lock wrench 104 into the set orientation.
The embodiments described herein relate generally to a tool calibration system. More specifically, the tool calibration system described herein uses a tool calibration device to facilitate proper alignment of a crow foot wrench and a tool. Previously, a technician may visually inspect the workpiece and estimate the correct angle in which to set the crow foot wrench with respect to the tool in order to complete the required service. However, an improperly aligned wrench may be responsible for leaking pipes or hoses and may result in a shortened service lifetime of the tool. The tool calibration system describe herein enables the technician to engage the crow foot wrench with a moveable pin and then slide the pin along a slot to an angle indicator to adjust the orientation of the crow foot wrench to correspond to a predetermined angle setting with respect to the tool to which the crow foot wrench is coupled. Once the angle is set, the technician can tighten a fastener to maintain the position of the crow foot wrench. As long as the fastener is kept tightened, the technician can confirm the alignment of the tool and crow foot wrench by inserting the tool with the crow foot wrench into the tool calibration device, for example at the beginning of a shift, to verify the crow foot wrench is in the proper orientation.
This written description uses examples to disclose various embodiments, including the best mode, and also to enable any person skilled in the art to practice the various implementations, including making and using any devices or systems and performing any incorporated methods. The patentable scope of the disclosure is defined by the claims, and may include other examples that occur to those skilled in the art. Such other examples are intended to be within the scope of the claims if they have structural elements that do not differ from the literal language of the claims, or if they include equivalent structural elements with insubstantial differences from the literal language of the claims.
Number | Name | Date | Kind |
---|---|---|---|
404451 | Waggoner | Jun 1889 | A |
1840685 | Witherup | Jan 1932 | A |
4569139 | Wakeling | Feb 1986 | A |
4635370 | Beaver | Jan 1987 | A |
5697166 | Hommel | Dec 1997 | A |
5735054 | Cole | Apr 1998 | A |
5775184 | Cole | Jul 1998 | A |
5931063 | Kuo | Aug 1999 | A |
6584698 | Liu | Jul 2003 | B1 |
6792831 | Crosser | Sep 2004 | B2 |
20070157484 | Grubler | Jul 2007 | A1 |
20070294904 | Jacobs | Dec 2007 | A1 |
20110061252 | Cerwin | Mar 2011 | A1 |
20130097884 | Hayworth | Apr 2013 | A1 |
20140039810 | Wener | Feb 2014 | A1 |
20160169654 | Howard | Jun 2016 | A1 |
20180023934 | Gjertsen | Jan 2018 | A1 |
Number | Date | Country |
---|---|---|
2526111 | Dec 2002 | CN |
2371998 | Jan 1982 | FR |
2054429 | Feb 1983 | GB |
Number | Date | Country | |
---|---|---|---|
20180259314 A1 | Sep 2018 | US |