The Bullseye That Lost: How a Rejected Circle Changed Every Store in America

Every time you check out at a grocery store, a pharmacy, a big-box retailer, or a clothing shop, the same thing happens in roughly a third of a second. A laser reads a pattern of black lines, a number is transmitted to a database, a price appears on a screen, and inventory is automatically updated somewhere in a system you'll never see. The whole transaction is so fast and so routine that it's essentially invisible.

That pattern of lines — the Universal Product Code, the UPC barcode — is one of the most consequential design objects of the twentieth century. It reshaped American retail so completely that it's almost impossible to imagine the industry without it. And it almost looked completely different.

The Man Who Drew It in the Sand

The origin story of the barcode is usually told starting with Norman Woodland, a graduate student at the Drexel Institute of Technology in Philadelphia. In 1948, a local supermarket executive named Bernard Silver overheard a conversation between a store manager and a dean — the manager was asking whether the university could develop a system to automatically read product information at checkout. Silver mentioned this to Woodland, and the two began working on the problem.

Woodland's breakthrough came in 1949, on a beach in Florida. Sitting in the sand, he extended his fingers and dragged them downward, creating a set of parallel lines. Then — and this is the moment that matters — he curved those lines into a circle. The resulting shape looked like an archery target: concentric rings, readable from any direction because of its radial symmetry. No matter how a product was oriented when passed over a scanner, the circular pattern would read correctly.

Woodland and Silver patented their bullseye barcode design in 1952. It was genuinely clever. The circular format solved a real problem — the directional limitation of linear codes — and the underlying principle of using light to read a machine-readable pattern was sound. But the technology needed to read it reliably didn't really exist yet. Scanners of that era weren't fast or precise enough to decode the circular pattern without errors. The patent was ahead of its time, and it sat largely unused for years. IBM eventually purchased it in 1962, but the bullseye remained a concept rather than a product.

The Committee That Chose Stripes

By the early 1970s, the grocery industry in America had a serious problem. Supermarkets had grown dramatically in size and product variety through the postwar boom. A modern store might carry fifteen or twenty thousand individual items. Tracking all of them — pricing, inventory, reordering — was a labor-intensive nightmare. Cashiers had to memorize prices or look them up. Stockroom workers did physical counts by hand. Pricing errors were constant and expensive.

In 1970, the grocery industry formed a committee — eventually called the Ad Hoc Committee on a Uniform Grocery Product Code — to develop a standardized system that all American supermarkets could adopt. The goal was a single machine-readable code that any scanner, from any manufacturer, could read on any product. It had to work reliably, scan quickly, and print cheaply on packaging.

Several companies submitted competing designs. IBM's entry was developed by a engineer named George Laurer, who was specifically tasked with improving on Woodland's circular design. Laurer concluded that the bullseye, while conceptually elegant, had a fatal practical flaw: printing. Manufacturing processes of the era frequently caused ink to smear or spread in the direction of the printing press's motion. On a circular design, smearing could corrupt the code in every direction simultaneously, making it unreadable. On a linear pattern of vertical stripes, smearing would only extend the lines slightly in length — and the scanner could be designed to read across their width, where smearing had no effect.

Laurer's linear barcode was more forgiving of the printing imperfections that existed in real-world manufacturing. It was also easier and cheaper to print consistently at scale. When the committee evaluated the submissions in 1973, Laurer's design won. The bullseye was set aside.

On June 26, 1974, a pack of Wrigley's Juicy Fruit chewing gum became the first product in the United States to be scanned using the new Universal Product Code, at a Marsh Supermarket in Troy, Ohio. That pack of gum is now in the Smithsonian.

What Happened to American Retail After the Stripe Won

The adoption of the UPC through the mid-1970s and 1980s was transformative in ways that went well beyond faster checkout lines. The barcode made it economically feasible to track inventory in real time, which changed how stores ordered products, how suppliers shipped them, and how retailers understood their own businesses.

Walmart, in particular, built a significant portion of its competitive advantage on barcode-enabled inventory systems. By the mid-1980s, the company had developed one of the most sophisticated supply chain tracking operations in the country, using barcode data to reduce overstock, eliminate waste, and reorder products with a precision that competitors couldn't match. The barcode didn't create Walmart's dominance, but it was infrastructure that made that dominance possible.

For labor, the effects were more complicated. Checkout scanning reduced the skill requirements for cashier work and accelerated the pace of transactions — which meant fewer workers could process more customers. The pricing gun, once a tool wielded by workers throughout the store, became largely obsolete as price information moved into the database rather than onto individual items.

The Design Choice That Still Surrounds You

Norman Woodland lived to see the barcode become ubiquitous. He received the National Medal of Technology from President George W. Bush in 1992, and he died in 2012, having watched the system he first sketched in beach sand become one of the most scanned objects in human history — billions of times per day, across every retail sector on earth.

His bullseye design wasn't forgotten entirely. The circular, omnidirectional principle he envisioned eventually resurfaced in QR codes, which use a two-dimensional matrix that can be read from any angle — essentially a digital evolution of the idea Woodland drew in 1949.

The stripe won because it was practical. The circle was right about direction. Between the two of them, they built the invisible architecture that every American store runs on.