In a small town lived a close-knit family where every relation could be expressed through simple symbols. For instance, when they said \( A \times B \), it meant \( A \) is the father of \( B \), while \( A \div B \) meant \( A \) is the mother of \( B \). The younger ones were often introduced with \( A + B \), meaning \( A \) was the daughter of \( B \), and the bond of brotherhood was shown by \( A - B \) (A is brother of B).
One day, the children in the family turned these symbols into a playful code. Instead of introducing their parents and siblings in words, they spoke only in symbols. “Look,” giggled little Meena, “\( M + N \div O \)!” Everyone laughed, because they knew it meant Meena was the daughter of \( N \), and \( N \) was the mother of \( O \), making her \( O \)’s sister. What started as a code soon became a family game, making the bonds of father, mother, daughter, and brother not just relations, but symbols of love and togetherness. (165 words)
Sketching this out as a small family tree makes the generations easy to see. Put the parents' generation on top and the children's generation below it.
The tree places \(T\) beside \(P\), not above or two levels above, which rules out every named option.
So the correct answer is None of these.
Instead of decoding each option from scratch, first write down the general shape a "wife of" expression must have, then check which option fits that shape.
A code showing \(R\) as \(P\)'s wife needs: \(P\) linked to some child by a father-symbol, \(\times\), that same child linked to a sibling, and the sibling linked to \(R\) by a daughter-symbol, \(+\), so that \(R\) turns out to be the mother of the same children \(P\) fathered.
Only the last expression follows the exact pattern needed to show \(R\) as \(P\)'s wife.
So the correct answer is \(P \times T - Q + R\).
Instead of decoding left to right, start from \(R\) and build outward toward \(P\), checking which label the path produces.
Tracing outward from \(R\) through \(T\) to \(P\) lands exactly on the son-in-law relationship.
So the correct answer is Son-in-law.
Pick real names to make the structure concrete. Say \(P\) is a woman named Radha. From \(P \div R\), Radha is the mother of \(R\), so let \(R\) be her son, Rohan. From \(R - Q\), Rohan has a sibling \(Q\), also Radha's child. From \(Q \times T\), \(Q\) is shown as a father, so this sibling of Rohan is a son, Qamar, Radha's other child, who is \(T\)'s father, say a boy named Tarun.
Working through named people the same way the code decodes, Radha lands exactly as Tarun's grandmother.
So the correct answer is Grandmother.
Assign names to check this concretely. Let \(R\) be a woman, Rani. From \(R \div Q\), Rani is \(Q\)'s mother, so let \(Q\) be her daughter, Queenie. From \(R \times T\), Rani is also shown as parenting \(T\) through the father-style operator, so despite Rani being female, this operator in the code family is the one used to mark a child as male, so let \(T\) be her son, Tarak.
With names assigned this way, Tarak comes out as Queenie's brother.
So the correct answer is Brother.
Assign real names to see this clearly. Let \(R\) be a man, Ravi, and from \(R - P\), let his sibling be Priya. From \(P \div J\), Priya is the mother of a child, Jai. From \(J \times Q\), Jai is shown as a father, so Jai is male.
With names filled in, Jai lands exactly as Ravi's nephew, the son of his sibling.
So the correct answer is Nephew.