I am introducing the Quick Recognition (QR) Act, which requires ICE and CBP officers to wear uniforms featuring QR codes. When scanned, the code would generate a digital ID displaying the officer’s name, badge number, and law enforcement agency.
ICE should be unmasked both physically and digitally.
The ability to correct generally means the amount of squares that can have their value flipped (bit error) without changing the message. This can be changing white -> black or black -> white with identical results. If you want to know more about how it works, the article it links about Reed-Solomon error correction goes into more detail about the algorithm.
Still not a good way to solve this issue, but QR codes (and other codes like it) are ubiquitous for good reason.
Thank you for the explanation. A lot of the maths goes over my head, but your posts and articles have helped me understand how they work a bit better and answered a long-standing question I had.
The ability to correct generally means the amount of squares that can have their value flipped (bit error) without changing the message. This can be changing white -> black or black -> white with identical results. If you want to know more about how it works, the article it links about Reed-Solomon error correction goes into more detail about the algorithm.
Still not a good way to solve this issue, but QR codes (and other codes like it) are ubiquitous for good reason.
Thank you for the explanation. A lot of the maths goes over my head, but your posts and articles have helped me understand how they work a bit better and answered a long-standing question I had.