ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯥꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡꯒꯤ ꯑꯋꯥꯠꯄꯥ

ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯥꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡꯒꯤ ꯑꯋꯥꯠꯄꯁꯤꯡ

Feb 19, 2019 ꯄꯥꯎꯖꯦꯜ ꯑꯃꯥ ꯊꯥꯗꯣꯀꯎ

ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯥꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡ ꯄꯥꯛ ꯁꯟꯅꯥ ꯁꯤꯖꯤꯟꯅꯔꯕꯁꯨ, ꯑꯇꯣꯞꯄꯥ ꯇꯆ ꯇꯦꯛꯅꯣꯂꯣꯖꯤꯁꯤꯡꯗꯥ ꯌꯥꯝꯅꯥ ꯆꯥꯎꯕꯥ ꯑꯋꯥꯠꯄꯥ ꯂꯩ, ꯑꯇꯣꯞꯄꯥ ꯇꯆ ꯇꯦꯛꯅꯣꯂꯣꯖꯤꯁꯤꯡ ꯑꯁꯤꯅꯥ ꯄ꯭ꯔꯦꯖꯦꯟꯁ ꯑꯃꯥ ꯁꯦꯃꯒꯠꯅꯕꯥ ꯑꯃꯁꯨꯡ ꯃꯥꯔꯀꯦꯠ ꯁꯦꯌꯔ ꯑꯃꯥ ꯄꯥꯀꯊꯣꯛ ꯆꯥꯎꯊꯣꯀꯍꯟꯅꯕꯥ ꯈꯨꯗꯣꯡꯆꯥꯕꯥ ꯄꯤꯔꯤ. ꯌꯨꯖꯔꯁꯤꯡꯅꯥ ꯂꯦꯞꯇꯅꯥ ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡꯒꯥ ꯂꯣꯌꯅꯅꯥ ꯇꯆꯁ꯭ꯛꯔꯤꯅꯒꯤ ꯇꯣꯉꯥꯅꯕꯥ ꯁꯔꯨꯛ ꯑꯃꯗꯥ ꯕꯇꯟ ꯑꯦꯛꯇꯤꯚꯦꯁꯟ ꯑꯗꯨ ꯑꯆꯨꯝꯕꯥ ꯃꯑꯣꯡꯗꯥ ꯔꯤꯄꯣꯔꯠ ꯇꯧꯕꯥ, ꯅꯠꯠꯔꯒꯥ ꯄ꯭ꯔꯦꯁꯁꯤꯡꯕꯨ ꯏꯅꯗꯦꯟꯗꯦꯗ ꯑꯣꯏꯅꯥ ꯑꯦꯛꯇꯤꯚꯦꯠ ꯇꯧꯗꯕꯥ, ꯅꯠꯠꯔꯒꯥ ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡꯗꯥ ꯃꯈꯥ ꯄꯣꯜꯂꯤꯕꯥ ꯃꯔꯝꯅꯥ, ꯃꯁꯤꯅꯥ ꯃꯨꯚꯃꯦꯟꯇ ꯑꯃꯁꯨꯡ ꯐ꯭ꯂꯥꯛꯁꯇꯥ ꯃꯊꯧ ꯇꯥꯔꯤꯕꯅꯥ ꯃꯔꯝ ꯑꯣꯏꯗꯨꯅꯥ ꯄ꯭ꯔꯦꯁꯁꯤꯡ ꯑꯁꯤ ꯏꯅꯗꯦꯟꯗꯦꯗ ꯑꯣꯏꯅꯥ ꯑꯦꯛꯇꯤꯚ ꯑꯣꯏꯍꯟꯗꯕꯥ, ꯅꯠꯠꯔꯒꯥ ꯄ꯭ꯔꯦꯁꯁꯤꯡ ꯑꯁꯤ ꯏꯅꯗꯦꯟꯗꯦꯗ ꯑꯣꯏꯅꯥ ꯑꯦꯛꯇꯤꯚ ꯑꯣꯏꯍꯟꯗꯕꯥ, ꯅꯠꯠꯔꯒꯥ ꯄ꯭ꯔꯦꯁꯁꯤꯡ ꯑꯁꯤ ꯏꯅꯗꯦꯟꯗꯦꯗ ꯑꯣꯏꯅꯥ ꯑꯦꯛꯇꯤꯚꯦꯠ ꯇꯧꯕꯥ ꯉꯃꯗꯕꯥ ꯑꯁꯤꯅꯥ ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡꯒꯥ ꯂꯣꯌꯅꯅꯥ ꯑꯆꯨꯝꯕꯥ ꯃꯑꯣꯡꯗꯥ ꯔꯤꯄꯣꯔꯠ ꯇꯧꯗꯦ꯫ ꯁ꯭ꯇꯦꯛ-ꯑꯞ. ꯃꯁꯤꯒꯤ ꯃꯊꯛꯇꯥ, ꯃꯊꯛꯀꯤ ꯍꯥꯔꯗꯀꯣꯠ ꯂꯦꯌꯔ ꯑꯁꯤ ꯇꯆꯁ꯭ꯛꯔꯤꯟ ꯄꯦꯅꯦꯂꯒꯤ ꯐ꯭ꯂꯦꯛꯁꯤꯕꯤꯂꯤꯇꯤ ꯑꯁꯤ ꯉꯥꯛꯇꯨꯅꯥ ꯊꯝꯅꯕꯥ ꯃꯇꯤꯛ ꯆꯥꯅꯥ ꯂꯨꯝꯕꯥ ꯃꯊꯧ ꯇꯥꯏ. ꯆꯠꯊꯣꯛ-ꯆꯠꯁꯤꯟ ꯇꯧꯔꯤꯕꯥ ꯂꯦꯌꯔꯁꯤꯡꯒꯤ ꯀꯝꯕꯤꯅꯦꯁꯟ ꯑꯃꯁꯨꯡ ꯊꯤꯟ ꯄ꯭ꯔꯣꯇꯦꯛꯇꯤꯕ ꯂꯦꯌꯔ ꯑꯃꯅꯥ ꯁ꯭ꯛꯔꯌꯥꯆ ꯇꯧꯕꯗꯥ ꯍꯟꯊꯕꯥ ꯑꯃꯁꯨꯡ ꯁꯣꯀꯍꯜꯂꯀꯄꯥ ꯍꯟꯊꯍꯜꯂꯤ.

ꯔꯦꯁꯤꯁ꯭ꯇꯦꯟꯇ ꯇꯥꯆꯁ꯭ꯛꯔꯤꯅꯁꯤꯡꯗꯁꯨ ꯂꯣꯌꯔꯕꯥ ꯑꯣꯞꯇꯤꯀꯦꯜ ꯇ꯭ꯔꯥꯟꯁꯃꯤꯁꯤꯕꯤꯇꯤ (< 80%). The construction of resistive touchscreens with two layers of PET, an air gap, and spacer dots can render a loss of refractive and reflective light, thereby yielding a more shaded display. Another negative attribute is that resistive touchscreens suffer from aging, which starts to occur when PET breaks down at high temperature. Signs of aging include touchscreen discoloration, where the touchscreen starts to turn white in color. Resistive touchscreens also have the disadvantage of requiring calibration. Calibration is needed to compensate for ITO-sheet resistance drift on PET.