Not everyone outside India may immediately recognize Titan. Today, Titan is one of India’s most recognized consumer brands, known for watches, jewelry, eyewear, and lifestyle products. But in the 1980s, Titan represented something more ambitious: a bet that India could build a modern, design-led, world-class watch company. Titan was incorporated in 1984 as a joint venture between Tata Industries and the Tamil Nadu Industrial Development Corporation, with the goal of redefining watches in India through quartz technology, manufacturing discipline, and design (Tata Group, n.d.).
From the initial batch of Titan watches manufactured in December 1986, J.R.D. Tata was gifted one of the watches. To the embarrassment of the Titan team, the quartz watch given to him was not working (Borate et al., 2023). The detail is small, almost painfully human. The most symbolic early user of the product received a watch that did not do the one thing a watch must do which is to keep working.
At first glance, this sounds like a product defect. But for engineering leaders, it is more useful to read it as a systems lesson. The watch did not fail because the ambition was wrong. It failed because ambition has to travel through systems: design systems, manufacturing systems, quality systems, testing systems, support systems, and feedback systems. A product does not become reliable because leaders believe in it. It becomes reliable because the organization builds the discipline to make reliability repeatable.
On the similar lines, Every software system has a “first watch” moment. It is the moment when a carefully designed, developed, tested, and approved system finally touches the real world and exposes assumptions that were invisible inside the project plan. The demo worked. The unit tests passed. The user story was accepted. The release note was sent. The dashboard turned green. Then production happened.
The data was messier than expected. A downstream service responded differently than it did in testing. A user clicked through the workflow in an unexpected order. A batch job overlapped with another process. A permissions rule behaved differently for a real user role. A support team could not diagnose the failure quickly enough. The system did not simply fail in code. It failed in context.That distinction matters. Software teams often ask, “Did we test the feature?” Wouldnt it be awesome if we asked, “Did we test the world the feature has to survive in?” The first question produces test cases. The second question produces engineering maturity.
The Pattern Repeats - more examples from history
The Hubble Space Telescope was one of the most sophisticated scientific instruments ever built, yet after launch in 1990, its images were blurred because of spherical aberration in the primary mirror. NASA later traced the flaw to a miscalibrated measuring instrument that caused the mirror edges to be ground slightly too flat (NASA, 2008). The lesson is not that NASA lacked intelligence, funding, or ambition. The lesson is that even elite engineering organizations can fail when the validation system itself has a blind spot. In software terms, Hubble reminds us that it is not enough to test the product. We must also test the assumptions, environments, tools, data, and gates we rely on to declare the product ready.
The Challenger disaster gives us an even harder lesson. The Rogers Commission found that the accident began with design decisions in the solid rocket motor joint and with the failure of both NASA and Thiokol to adequately respond to facts from testing. The Commission also concluded that management came to accept O-ring erosion and blow-by as an unavoidable and acceptable flight risk, despite recurring evidence of the problem (Presidential Commission on the Space Shuttle Challenger Accident, 1986). For software leaders, this is the danger of normalized risk. A flaky test is ignored. A manual control becomes routine. A release exception becomes standard practice. A known vulnerability receives repeated extensions. Each decision may seem defensible in isolation, but together they teach the organization to live with warning signs.
Knight Capital offers the most direct software engineering parallel. In 2012, Knight Capital suffered a major trading incident after issues with code deployment and testing in its automated equity order router. According to the SEC, the system sent millions of erroneous orders into the market during the first 45 minutes after opening, resulting in more than 397 million shares traded and a loss of more than $460 million. The SEC also found that Knight did not have adequate controls and procedures for code deployment and testing, and that automated error messages before market open were not acted upon as meaningful alerts (U.S. Securities and Exchange Commission, 2013). The issue was not simply a bug. It was a failure of deployment discipline, control design, operational response, and organizational readiness.
These examples differ in technology, industry, and consequence, but they point to the same truth: the first real use of a system is not the end of engineering. It is the beginning of truth.
What Leaders Can Learn
For IT leaders, the lesson is not simply to test more. The lesson is to test closer to reality. Teams need to validate systems with production-like data, real permission models, real integrations, real timing constraints, realistic failure modes, and clear operational handoffs. Happy-path testing proves that software can work. Readiness testing asks whether it can recover, degrade, alert, explain, and survive when reality pushes back. Leaders should also treat deployment as part of the product. Rollback plans, environment consistency, automated alerts, release controls, and support procedures are not administrative details. They are part of the system customers experience. A release process that depends on heroics, tribal knowledge, or manual inspection is not mature simply because it has worked before.
The hardest leadership task is protecting the signal value of warnings. Challenger shows what can happen when recurring anomalies become familiar enough to feel acceptable. In software organizations, this shows up as ignored alerts, waived controls, repeated production defects, stale risk acceptances, and fragile components that never receive investment. Leaders need to ask not only whether the system is working today, but what the organization has learned to tolerate.
Finally, when failures happen, the ideal thought process is not to point fingers or blame others but more around What did our engineering system fail to reveal earlier?” This introspection moves attention from individual blame to requirement quality, test realism, observability, deployment discipline, operational readiness, and decision-making.
The Titan watch that did not work for J.R.D. Tata is memorable because it makes the lesson human. A great vision met a small failure. But the larger story of Titan is not defined by that early defect. It is defined by the organization’s ability to keep building, learning, and maturing. That is the point. Failure is not noble by itself. Failure only becomes useful when it is converted into better judgment, better systems, and better discipline. Every organization eventually discovers whether it has built a product or a production system. The difference is not always visible in the demo. It becomes visible when the system is used by real people, under real conditions, with real consequences.
Good engineering is not about proving that software works in the environment we imagined. Good engineering is about discovering where it breaks before customers, operators, regulators, or executives discover it for us.
References
Borate, N., Sharma, A., & Kondawar, A. (2023, July 18). Time is money: The story of Titan. Penguin Random House India. https://www.penguin.co.in/time-is-money-the-story-of-titan/
NASA. (2008, April 18). A brief history of the Hubble Space Telescope. NASA History. https://www.nasa.gov/history/hubble/index.html
Presidential Commission on the Space Shuttle Challenger Accident. (1986). Report of the Presidential Commission on the Space Shuttle Challenger Accident: Volume I, Chapter VI: An accident rooted in history. NASA. https://www.nasa.gov/history/rogersrep/v1ch6.htm
Tata Group. (n.d.). Excellence, a watchword. https://www.tata.com/newsroom/business/40-years-titan-company
U.S. Securities and Exchange Commission. (2013, October 16). SEC charges Knight Capital with violations of market access rule. https://www.sec.gov/newsroom/press-releases/2013-222