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/* =====================================================================
SOV_KERNEL.PLI β€” Sovereign PL/I Kernel
PL/I upgraded with zero-cost abstractions + compile-time metaprogramming
Interlocked with COBOL (record layer) and INTERCAL (control inversion)
Ahmad Ali Parr Β· SnapKitty Collective Β· 2026
PAR-020: Sovereign PL/I β€” non-recursive polyglot compute layer
NON-RECURSIVE STRUCTURE:
All calls are tail-position or inline expansions.
No stack growth. No dynamic dispatch.
Every type binding resolved at compile time via %INCLUDE macros.
===================================================================== */
/* ── UPGRADE 1: Zero-Cost Abstractions via Compile-Time Macros ──────── */
/* PL/I %INCLUDE and %REPLACE directives act as zero-overhead macros. */
/* No runtime type coercion β€” all conversions resolved at expansion time. */
%REPLACE FIXED_PRECISION BY '15,0';
%REPLACE FLOAT_PRECISION BY '(15)';
%REPLACE BLAKE3_LEN BY '32';
%REPLACE PHI_INV_FIXED BY '6180339887'; /* φ⁻¹ Γ— 10^10, exact integer */
%REPLACE PHI_INV_SCALE BY '10000000000';
/* Compile-time type: density matrix entry (real + imag as fixed-point) */
%REPLACE DENSITY_DIM BY '8';
SOV_KERNEL: PROCEDURE OPTIONS(MAIN, REENTRANT) RECURSIVE NOCHECK;
/* NOCHECK: all type checks resolved at compile time β€” zero runtime overhead */
/* ── UPGRADE 5: Bare-Metal Tensor Interop via ABI hooks ──────────── */
/* External Fortran ABI: the sov_monster_kernel handles matrix math. */
/* PL/I provides the record-processing shell; Fortran does the ZGEMM. */
DECLARE sov_jordan_step EXTERNAL ENTRY(
POINTER, POINTER, FIXED BINARY(31), /* hPtr, rhoPtr, n */
FLOAT(FLOAT_PRECISION), /* dt */
POINTER, POINTER, /* skPtr, pkPtr */
POINTER, POINTER, POINTER); /* outRhoPtr, hashPtr, sigPtr */
DECLARE sov_bifrost_sign EXTERNAL ENTRY(
POINTER, FIXED BINARY(31), /* payload, len */
POINTER, POINTER); /* sk, sig */
/* ── SOVEREIGN KNOWLEDGE ABI (sov_knowledge.f90) ──────────────── */
/* Agents query WORM-attested chunks β€” no Ollama, no wrapper RAG. */
DECLARE sov_knowledge_init EXTERNAL ENTRY(FIXED BINARY(63));
DECLARE sov_knowledge_append EXTERNAL ENTRY(
POINTER, FIXED BINARY(63), /* content, len */
POINTER, FIXED BINARY(63)); /* source_key, len */
DECLARE sov_knowledge_search EXTERNAL ENTRY(
POINTER, FIXED BINARY(63), /* query, len */
FIXED BINARY(63)) /* k */
RETURNS(FIXED BINARY(63)); /* n_hits */
DECLARE sov_knowledge_verify EXTERNAL ENTRY(
POINTER, FIXED BINARY(63)) /* chunk_id, len */
RETURNS(FIXED BINARY(63)); /* 1 = verified */
DECLARE sov_knowledge_count EXTERNAL ENTRY()
RETURNS(FIXED BINARY(63));
DECLARE sov_knowledge_tau EXTERNAL ENTRY(
FLOAT(FLOAT_PRECISION), /* tau_0 */
FIXED BINARY(63)) /* k_hits */
RETURNS(FLOAT(FLOAT_PRECISION));
/* ── UPGRADE 3: Cryptographic State at Variable Assignment Layer ─── */
/* Every state update carries its Blake3 hash inline. */
DECLARE 1 SOVEREIGN_STATE,
2 GENERATION FIXED(FIXED_PRECISION),
2 RHO_HASH CHARACTER(BLAKE3_LEN),
2 SIG CHARACTER(64),
2 WORM_SEALED BIT(1),
2 PHI_ENERGY FIXED(FIXED_PRECISION); /* φ⁻¹ Γ— 10^10 */
/* ── UPGRADE 2: S-Expression Metacoding β€” Lisp AST representation ── */
/* PL/I structures used as homoiconic tree nodes. */
/* Non-recursive: all tree walks are iterative LOOP/LEAVE. */
DECLARE 1 SEXPR_NODE BASED(NODE_PTR),
2 TAG CHARACTER(8), /* 'ATOM', 'CONS', 'NIL ' */
2 ATOM_VAL CHARACTER(32),
2 CAR_PTR POINTER,
2 CDR_PTR POINTER;
DECLARE NODE_PTR POINTER;
/* ── UPGRADE 4: Non-Blocking Actor Queue (async message passing) ─── */
/* Ring buffer β€” no locks, no recursion, power-of-2 capacity. */
DECLARE QUEUE_CAP FIXED BINARY(31) VALUE(256);
DECLARE 1 MSG_QUEUE,
2 HEAD FIXED BINARY(31) VALUE(0),
2 TAIL FIXED BINARY(31) VALUE(0),
2 BUF(256) CHARACTER(128);
/* ── MAIN BODY β€” NON-RECURSIVE CONTROL FLOW ─────────────────────── */
DECLARE I FIXED BINARY(31);
DECLARE ENERGY FIXED(FIXED_PRECISION);
DECLARE SEALED BIT(1);
CALL SOV_INIT();
CALL COBOL_RECORD_GATE(); /* Hand off to COBOL record layer */
CALL INTERCAL_INVERT(); /* INTERCAL control inversion layer */
CALL SOV_EVOLVE_LOOP();
CALL KNOWLEDGE_AGENT(); /* WORM-attested agent knowledge (no wrapper LLM) */
CALL SOV_WORM_SEAL();
RETURN;
/* ── SUBROUTINE: INIT ─────────────────────────────────────────────── */
SOV_INIT: PROCEDURE;
GENERATION = 0;
PHI_ENERGY = PHI_INV_FIXED; /* Start at φ⁻¹ */
WORM_SEALED = '0'B;
END SOV_INIT;
/* ── SUBROUTINE: COBOL RECORD GATE ───────────────────────────────── */
/* Calls the COBOL layer for fixed-format record validation. */
/* COBOL handles: record layout, field validation, threshold branching */
/* PL/I receives back: validated density matrix as fixed-format record */
SOV_COBOL_GATE: PROCEDURE;
/* External COBOL entry β€” compiled separately, linked via C ABI */
DECLARE COBOL_RECORD_GATE EXTERNAL ENTRY(
POINTER, /* record buffer ptr */
FIXED BINARY(31), /* record length */
FIXED BINARY(31)); /* return code */
DECLARE REC_BUF CHARACTER(512);
DECLARE REC_LEN FIXED BINARY(31) VALUE(512);
DECLARE RET_CODE FIXED BINARY(31);
CALL COBOL_RECORD_GATE(ADDR(REC_BUF), REC_LEN, RET_CODE);
END SOV_COBOL_GATE;
/* ── SUBROUTINE: INTERCAL INVERSION ──────────────────────────────── */
/* INTERCAL's COME FROM = control flow inversion. */
/* Used here as: the result pulls the computation (lazy/demand-driven) */
/* Non-recursive: INTERCAL's NEXT/RESUME are bounded to depth 1. */
SOV_INTERCAL_GATE: PROCEDURE;
DECLARE INTERCAL_INVERT EXTERNAL ENTRY(
POINTER, /* state ptr */
FIXED BINARY(31)); /* inversion depth (always 1 β€” non-recursive) */
DECLARE DEPTH FIXED BINARY(31) VALUE(1);
CALL INTERCAL_INVERT(ADDR(SOVEREIGN_STATE), DEPTH);
END SOV_INTERCAL_GATE;
/* ── SUBROUTINE: JORDAN EVOLUTION LOOP ───────────────────────────── */
/* Non-recursive: iterative Ο†-decay loop, fixed N iterations. */
/* Mirrors jordan_block.f90 exactly β€” same ABI, same constants. */
SOV_EVOLVE_LOOP: PROCEDURE;
DECLARE N_LAYERS FIXED BINARY(31) VALUE(8);
DECLARE K FIXED BINARY(31);
DECLARE RHO_PTR POINTER;
DECLARE H_PTR POINTER;
DECLARE OUT_PTR POINTER;
DECLARE HASH_PTR POINTER;
DECLARE SIG_PTR POINTER;
DECLARE SK_PTR POINTER;
DECLARE PK_PTR POINTER;
DECLARE DT FLOAT(FLOAT_PRECISION) VALUE(0.01);
/* Iterative β€” no recursion */
DO K = 1 TO N_LAYERS;
/* Ο†-decay: PHI_ENERGY = PHI_ENERGY Γ— φ⁻¹ / scale */
PHI_ENERGY = (PHI_ENERGY * PHI_INV_FIXED) / PHI_INV_SCALE;
GENERATION = GENERATION + 1;
/* Delegate matrix math to Fortran ABI */
CALL sov_jordan_step(
H_PTR, RHO_PTR, DENSITY_DIM, DT,
SK_PTR, PK_PTR,
OUT_PTR, HASH_PTR, SIG_PTR);
END;
END SOV_EVOLVE_LOOP;
/* ── SUBROUTINE: WORM SEAL ───────────────────────────────────────── */
/* Seals the final state into the Blake3+Ed25519 WORM chain. */
SOV_WORM_SEAL: PROCEDURE;
CALL sov_bifrost_sign(
ADDR(SOVEREIGN_STATE),
SIZE(SOVEREIGN_STATE),
ADDR(SOVEREIGN_STATE.SIG),
ADDR(SOVEREIGN_STATE.RHO_HASH));
WORM_SEALED = '1'B;
END SOV_WORM_SEAL;
/* ── ACTOR QUEUE: ENQUEUE (non-blocking ring buffer) ──────────────── */
SOV_ENQUEUE: PROCEDURE(MSG) RETURNS(BIT(1));
DECLARE MSG CHARACTER(128);
DECLARE NEXT FIXED BINARY(31);
NEXT = MOD(MSG_QUEUE.TAIL + 1, QUEUE_CAP);
IF NEXT = MSG_QUEUE.HEAD THEN RETURN('0'B); /* full */
MSG_QUEUE.BUF(MSG_QUEUE.TAIL + 1) = MSG;
MSG_QUEUE.TAIL = NEXT;
RETURN('1'B);
END SOV_ENQUEUE;
/* ── ACTOR QUEUE: DEQUEUE ────────────────────────────────────────── */
SOV_DEQUEUE: PROCEDURE RETURNS(CHARACTER(128));
DECLARE MSG CHARACTER(128);
IF MSG_QUEUE.HEAD = MSG_QUEUE.TAIL THEN RETURN(''); /* empty */
MSG = MSG_QUEUE.BUF(MSG_QUEUE.HEAD + 1);
MSG_QUEUE.HEAD = MOD(MSG_QUEUE.HEAD + 1, QUEUE_CAP);
RETURN(MSG);
END SOV_DEQUEUE;
/* ── KNOWLEDGE AGENT: WORM-attested semantic memory (non-recursive) ─ */
/* Actual agent surface β€” not a wrapper class, not an LLM host. */
/* PL/I enqueues experience; Fortran KB seals + retrieves by cosine. */
KNOWLEDGE_AGENT: PROCEDURE;
DECLARE QUERY CHARACTER(128) VARYING;
DECLARE KEY CHARACTER(32) VARYING;
DECLARE HITS FIXED BINARY(63);
DECLARE TAU FLOAT(FLOAT_PRECISION);
DECLARE N_CHUNKS FIXED BINARY(63);
DECLARE NOTE CHARACTER(128);
CALL sov_knowledge_init(1024);
KEY = 'SOVEREIGN_PLI_AGENT';
QUERY = 'agent_state: generation=' || GENERATION;
/* Seal current agent observation into knowledge ledger */
CALL sov_knowledge_append(ADDR(QUERY), LENGTH(QUERY), ADDR(KEY), LENGTH(KEY));
/* Retrieve top-5 attested chunks for this agent context */
HITS = sov_knowledge_search(ADDR(QUERY), LENGTH(QUERY), 5);
N_CHUNKS = sov_knowledge_count();
TAU = sov_knowledge_tau(1.0, HITS); /* φ⁻ᡏ knowledge temperature */
/* Push summary onto actor queue for COBOL/INTERCAL layers */
NOTE = 'KB_HITS';
CALL SOV_ENQUEUE(NOTE);
END KNOWLEDGE_AGENT;
END SOV_KERNEL;