{ "ai.module": "reciprocals_partition_polynomials_rtt", "ai.version": "1.0", "ai.purpose": "RTT structural map of the paper 'Reciprocals of Partition Polynomials'.", "ai.source.pdf": "https://arxiv.org/pdf/2605.21718", "ai.keywords": [ "partition polynomials", "reciprocal polynomials", "zeros", "asymptotics", "q-series", "generating functions", "analytic number theory" ], "ai.module.summary": "This module exposes the regime structure behind the study of reciprocals of partition polynomials, connecting generating-function identities, zero distributions, and asymptotic behavior. It preserves the authors' results while adding RTT operators for agentic reasoning.", "ai.regimes": { "partition_polynomial_regime": { "description": "Partition polynomials encode restricted partition functions via finite generating functions.", "evidence": "Paper defines partition polynomials P_n(q) from truncated partition generating series." }, "reciprocal_regime": { "description": "Reciprocals 1/P_n(q) are studied as analytic objects with controlled singularities.", "evidence": "Main focus is on analytic and combinatorial properties of 1/P_n(q)." }, "zero_distribution_regime": { "description": "Zeros of P_n(q) and poles of 1/P_n(q) exhibit structured patterns in the complex plane.", "evidence": "Authors analyze location and clustering of zeros/poles." }, "asymptotic_regime": { "description": "As n grows, partition polynomials and their reciprocals obey asymptotic laws.", "evidence": "Paper derives asymptotic estimates for coefficients and values." } }, "ai.tensions": { "finite_vs_infinite_generating": { "description": "Finite partition polynomials vs infinite partition generating functions.", "paper_alignment": "Reciprocals interpolate between finite truncations and full q-series." }, "combinatorial_vs_analytic": { "description": "Discrete partition counts vs analytic behavior of polynomials and their reciprocals.", "paper_alignment": "Proofs move between coefficient identities and complex analysis." }, "zeros_vs_coefficients": { "description": "Zero locations vs coefficient growth and sign patterns.", "paper_alignment": "Zero distribution is linked to asymptotic coefficient behavior." } }, "ai.transitions": { "truncation_to_polynomial_transition": { "description": "Pass from truncated partition series to partition polynomials P_n(q).", "paper_alignment": "Definition of P_n(q) via finite products/sums." }, "polynomial_to_reciprocal_transition": { "description": "Study 1/P_n(q) as a new generating object with poles at zeros of P_n.", "paper_alignment": "Main analytic setup of the paper." }, "zeros_to_asymptotics_transition": { "description": "Use zero distribution to derive asymptotic information on coefficients/values.", "paper_alignment": "Asymptotic theorems based on analytic structure." } }, "ai.operators": { "partition_polynomial_operator": { "type": "operator", "role": "Constructs P_n(q) from partition data or truncated q-series." }, "reciprocal_operator": { "type": "operator", "role": "Forms 1/P_n(q) and tracks its poles and analytic behavior." }, "zero_distribution_operator": { "type": "operator", "role": "Analyzes zeros of P_n(q) and poles of 1/P_n(q)." }, "asymptotic_operator": { "type": "operator", "role": "Derives asymptotic estimates from analytic data." } }, "ai.audience": "Researchers in analytic number theory, partition theory, and q-series.", "ai.contact.github": "https://github.com/TriadicFrameworks", "ai.license": "Open educational use permitted" }