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Capacitive-sense touchscreens have become widely available as a user interface component of user devices. In particular, touchscreens have become extremely popular in mobile phones, cellular phones, tablets, Personal Digital Assistants (PDAs), laptops, and other portable computing devices. Touchscreens are also widely employed in Point Of Sale (POS) terminals, inventory management systems, security systems, and the like. One reason for the increased popularity of touchscreens and specifically capacitive-sense touchscreens in user devices is their ability to simultaneously act as a user input device and a user output device. More particularly, touchscreens enable a user to interact with the data that is presented to the user rather than interact with a set of separate buttons. This helps minimize the size of the user device and/or maximize the size of the output screen used to present information to the user. In other words, capacitive-sense touchscreens can be utilized as an intuitive method of obtaining input for user devices. Two principal capacitive sensing and measurement technologies are currently employed in most capacitive touchscreen devices. The first such technology is that of self-capacitance. Many devices manufactured by SYNAPTICS™ employ self-capacitance measurement techniques, as do Integrated Circuit (IC) devices such as the CYPRESS PSOC™. Self-capacitance involves measuring the self-capacitance of a series of electrode pads using techniques such as those described in U.S. Pat. No. 5,543,588 to Bisset et al. and U.S. Patent Publication Nos. 2010/0302201 to Ritter et al. and 2008/0297174 to Narasimhan et al., each of which are hereby incorporated herein by reference in their entirety. Self-capacitance may be measured through the detection of the amount of charge accumulated on an object held at a given voltage (Q=CV). Self-capacitance is typically measured by applying a known voltage to an electrode, and then using a circuit to measure how much charge flows to that same electrode. When external objects are brought close to the electrode, additional charge is attracted to the electrode. As a result, the self-capacitance of the electrode increases. Many touch sensors employed in touchscreens are configured such that the grounded object is a finger. The human body is essentially a capacitor to a surface where the electrical field vanishes, and typically has a capacitance of around 100 pF. Electrodes in self-capacitance touchscreens and/or touchpads are typically arranged in rows and columns. By scanning first rows and then columns the locations of individual disturbances induced by the presence of a finger, for example, can be determined. Typically, rows and columns of electrodes in self-capacitance sensing devices such as touchscreens or touchpads comprise electrically conductive traces or strips of Indium Tin Oxide (ITO) laid down on a glass or plastic substrate. Although ITO is the material of choice in most capacitive-sense touchscreens, other known materials or compositions which are functionally equivalent to ITO may also be used. During and after the process of forming such traces on a suitable substrate, defects in such traces or strips will arise, at least in some of the self-capacitance sensing devices. It is desirable to minimize the number