Question: 'Estimate the number of cups of tea consumed daily on your university campus.' 1. State clarifying assumptions (campus student population = 6,000; hosteler vs day scholar split = 80/20). 2. Segment by user personas (non-tea drinkers = 30%, light drinkers = 1 cup/day, heavy exam grinders = 3 cups/day). 3. Add faculty and canteen footfall. 4. Sanity check with canteen vendor batch sizes. Interviewers care about structured logic, not the exact number.

Section 52 of the Copyright Act allows fair dealing for private or personal use, including research, criticism, review, and reporting. If you are building educational tools or research datasets, citing sources properly and not commercializing copyrighted materials directly keeps you on solid legal ground.

Section 52 of the Copyright Act allows fair dealing for private or personal use, including research, criticism, review, and reporting. If you are building educational tools or research datasets, citing sources properly and not commercializing copyrighted materials directly keeps you on solid legal ground.

Currently researching for a moot proposition: Under Section 2(d) of the Copyright Act, 1957, the 'author' of a computer-generated work is the person who causes the work to be created. Does the prompter qualify, or does the lack of human creative expression void copyright entirely? Keen to hear tech law students' take.

1. Pace yourself: When nervous, people speak at 180 wpm. Deliberately slow down to 120 wpm — pauses command attention. 2. Eye contact with all panelists, not just the presiding judge. 3. Never argue with the bench when they interrupt: Acknowledge the question with 'Much obliged, Your Honour' and pivot back to your strongest legal proposition.

Classic computer architecture experiment: Iterate over 100,000 integers and conditionally sum elements > 128. If the array is unsorted, the CPU's branch predictor misses 50% of the time, stalling the instruction pipeline. If the array is sorted, branch prediction accuracy is ~99%, and execution runs 6x faster. Understanding hardware mechanics makes you a dramatically better programmer.