/* g/j.c ** ** This file is in the public domain. */ #include "all.h" /* _cj_count(): count and link dashboard entries. */ static c3_w _cj_count(u3_cs_core* par_u, u3_cs_core* dev_u) { c3_w len_l = 0; c3_w i_w; if ( dev_u ) { for ( i_w = 0; 0 != dev_u[i_w].cos_c; i_w++ ) { u3_cs_core* kid_u = &dev_u[i_w]; kid_u->par_u = par_u; len_l += _cj_count(kid_u, kid_u->dev_u); } } return 1 + len_l; } /* _cj_install(): install dashboard entries. */ static c3_w _cj_install(u3_cs_core* ray_u, c3_w jax_l, u3_cs_core* dev_u) { c3_w i_w; if ( dev_u ) { for ( i_w = 0; 0 != dev_u[i_w].cos_c; i_w++ ) { u3_cs_core* kid_u = &dev_u[i_w]; kid_u->jax_l = jax_l; ray_u[jax_l++] = *kid_u; jax_l = _cj_install(ray_u, jax_l, kid_u->dev_u); } } return jax_l; } /* u3_cj_boot(): initialize jet system. */ void u3_cj_boot(void) { c3_w jax_l; u3D.len_l =_cj_count(0, u3D.dev_u); u3D.ray_u = (u3_cs_core*) malloc((1 + u3D.len_l) * sizeof(u3_cs_core)); memset(u3D.ray_u, 0, ((1 + u3D.len_l) * sizeof(u3_cs_core))); jax_l = _cj_install(u3D.ray_u, 1, u3D.dev_u); printf("boot: installed %d jets\n", jax_l); } /* _cj_insert(): append copy of core driver to jet table. */ static c3_l _cj_insert(u3_cs_core* cop_u) { c3_l jax_l = u3D.len_l; u3D.len_l += 1; u3D.ray_u = realloc(u3D.ray_u, u3D.len_l * sizeof(u3_cs_core)); memcpy(&u3D.ray_u[jax_l], cop_u, sizeof(u3_cs_core)); cop_u->jax_l = jax_l; return jax_l; } /* u3_cj_find(): search for jet. `cor` is RETAINED. */ c3_l u3_cj_find(u3_noun bat) { u3_weak jax = u3_ch_get(u3R->jed.har_u, bat); if ( u3_none == jax ) { return 0; } else { u3_assure(u3_co_is_cat(jax)); return (c3_l)jax; } } /* _cj_soft(): kick softly by arm axis. */ static u3_noun _cj_soft(u3_noun cor, c3_l axe_l) { u3_noun arm = u3_cx_at(axe_l, cor); return u3_cn_nock_on(cor, u3k(arm)); } /* _cj_kick_a(): try to kick by jet. If no kick, produce u3_none. ** ** `cor` is RETAINED iff there is no kick, TRANSFERRED if one. */ static u3_weak _cj_kick_a(u3_noun cor, u3_cs_hood* hud_u, c3_l axe_l) { u3_cs_harm* ham_u; if ( axe_l >= hud_u->len_w ) { return u3_none; } if ( !(ham_u = hud_u->ray_u[axe_l]) ) { return u3_none; } if ( 0 == ham_u->fun_f ) { return u3_none; } if ( u3_ne(ham_u->liv) ) { return u3_none; } else { if ( u3_so(ham_u->ice) ) { u3_weak pro = ham_u->fun_f(cor); if ( u3_none != pro ) { u3z(cor); return pro; } } else { u3_weak pro, ame; ham_u->ice = u3_yes; pro = ham_u->fun_f(u3k(cor)); ham_u->ice = u3_no; if ( u3_none == pro ) { u3z(cor); return pro; } ham_u->liv = u3_no; ame = _cj_soft(cor, axe_l); ham_u->liv = u3_yes; if ( u3_no == u3_cr_sing(ame, pro) ) { printf("test: %s %s: mismatch: good %x, bad %x\r\n", ham_u->cop_u->cos_c, (!strcmp(".2", ham_u->fcs_c)) ? "$" : ham_u->fcs_c, u3_cr_mug(ame), u3_cr_mug(pro)); c3_assert(0); return u3_cm_bail(c3__fail); } else { #if 0 printf("test: %s %s\r\n", ham_u->cop_u->cos_c, (!strcmp(".2", ham_u->fcs_c)) ? "$" : ham_u->fcs_c); #endif } } return u3_none; } } /* _cj_kick_b(): try to kick by jet. If no kick, produce u3_none. ** ** `cor` is RETAINED iff there is no kick, TRANSFERRED if one. */ static u3_weak _cj_kick_b(u3_noun cor, c3_l jax_l, c3_l axe_l) { c3_l mug_l = u3_cr_mug(u3h(cor)); u3_cs_core* cop_u = &u3D.ray_u[jax_l]; u3_cs_hood* hud_u = cop_u->hud_u; // printf("kick: %s\r\n", cop_u->cos_c); while ( 1 ) { if ( 0 == hud_u ) { break; } if ( mug_l != hud_u->mug_l ) { hud_u = hud_u->nex_u; continue; } return _cj_kick_a(cor, hud_u, axe_l); } return u3_none; } /* _cj_hook_in(): execute hook from core, or fail. */ static u3_noun _cj_hook_in(u3_noun cor, const c3_c* tam_c, c3_o jet_o) { u3_noun bat = u3h(cor); c3_l jax_l = u3_cj_find(bat); // printf("hook: %s\n", tam_c); if ( 0 == jax_l ) { return 0; } else { u3_cs_core* cop_u = &u3D.ray_u[jax_l]; while ( cop_u ) { u3_cs_hood* hud_u = cop_u->hud_u; c3_l mug_l = u3_cr_mug(bat); while ( 1 ) { if ( 0 == hud_u ) { break; } if ( mug_l != hud_u->mug_l ) { break; hud_u = hud_u->nex_u; continue; } { u3_cs_hook* huk_u = hud_u->huk_u; while ( huk_u ) { if ( !strcmp(huk_u->nam_c, tam_c) ) { u3_noun pro; if ( u3_so(jet_o) && (u3_none != (pro = _cj_kick_a(cor, hud_u, huk_u->axe_l))) ) { return pro; } else { return _cj_soft(cor, huk_u->axe_l); } } huk_u = huk_u->nex_u; } } hud_u = hud_u->nex_u; } // For convenience, search in deeper cores. { if ( cop_u->axe_l && cop_u->par_u ) { u3_noun inn = u3_cr_at(cop_u->axe_l, cor); u3k(inn); u3z(cor); cor = inn; bat = u3h(cor); cop_u = cop_u->par_u; } else cop_u = 0; } } } u3z(cor); return u3_cm_bail(c3__fail); } /* u3_cj_soft(): execute soft hook. */ u3_noun u3_cj_soft(u3_noun cor, const c3_c* tam_c) { return _cj_hook_in(cor, tam_c, u3_no); } /* u3_cj_hook(): execute hook from core, or fail. */ u3_noun u3_cj_hook(u3_noun cor, const c3_c* tam_c) { return _cj_hook_in(cor, tam_c, u3_yes); } /* u3_cj_kick(): try to kick by jet. If no kick, produce u3_none. ** ** `axe` is RETAINED by the caller; `cor` is RETAINED iff there ** is no kick, TRANSFERRED if one. */ u3_weak u3_cj_kick(u3_noun cor, u3_noun axe) { c3_l axe_l, jax_l; if ( u3_ne(u3_co_is_cat(axe)) ) { return u3_none; } axe_l = axe; if ( 0 == (jax_l = u3_cj_find(u3h(cor))) ) { return u3_none; } return _cj_kick_b(cor, jax_l, axe_l); } /* u3_cj_kink(): kick either by jet or by nock. */ u3_noun u3_cj_kink(u3_noun cor, u3_noun axe) { u3_weak pro = u3_cj_kick(cor, axe); if ( u3_none != pro ) { return pro; } else { return u3_cn_nock_on(cor, u3nq(9, axe, 0, 1)); } } /* _cj_axis(): axis from formula, or 0. `fol` is RETAINED. */ static c3_l _cj_axis(u3_noun fol) { u3_noun p_fol, q_fol, r_fol; while ( u3_so(u3du(fol)) && (10 == u3h(fol)) ) { fol = u3t(u3t(fol)); } if ( u3_ne(u3_cr_trel(fol, &p_fol, &q_fol, &r_fol)) ) { if ( u3_ne(u3_cr_cell(fol, &p_fol, &q_fol)) || (0 != p_fol) || (u3_ne(u3_co_is_cat(q_fol))) ) { printf("axis: bad a\r\n"); return 0; } return q_fol; } else { if ( 9 != p_fol ) { printf("axis: bad b\r\n"); return 0; } if ( u3_ne(u3_co_is_cat(q_fol)) ) { printf("axis: bad c\r\n"); return 0; } if ( u3_ne(u3du(r_fol)) || (0 != u3h(r_fol)) || (1 != u3t(r_fol)) ) { printf("axis: bad d\r\n"); return 0; } return q_fol; } } /* _cj_activate(): activate jets in `cop` for `hud`. */ static void _cj_activate(u3_cs_core* cop_u, u3_cs_hood* hud_u) { c3_l max_l = 0; /* Check for mismatched duplicates - very unlikely. */ { u3_cs_hood* duh_u = cop_u->hud_u; while ( duh_u ) { if ( duh_u->mug_l == hud_u->mug_l ) { printf("jets: mug collision!\r\n"); return; } duh_u = duh_u->nex_u; } } /* Compute axes of all correctly declared arms. */ if ( cop_u->arm_u ) { c3_l i_l = 0; while ( 1 ) { u3_cs_harm* jet_u = &cop_u->arm_u[i_l]; jet_u->cop_u = cop_u; if ( 0 == jet_u->fcs_c ) { break; } else { c3_l axe_l = 0; if ( '.' == *(jet_u->fcs_c) ) { c3_d axe_d = 0; if ( (1 != sscanf(jet_u->fcs_c+1, "%llu", &axe_d)) || axe_d >> 32ULL || ((1 << 31) & (axe_l = (c3_w)axe_d)) || (axe_l < 2) ) { printf("jets: activate: bad fcs %s\r\n", jet_u->fcs_c); } } else { u3_cs_hook* huk_u = hud_u->huk_u; while ( huk_u ) { if ( !strcmp(huk_u->nam_c, jet_u->fcs_c) ) { axe_l = huk_u->axe_l; break; } huk_u = huk_u->nex_u; } } max_l = c3_max(max_l, axe_l); jet_u->axe_l = axe_l; } i_l++; } /* Allocate jet table for this battery. */ { c3_w i_l; if ( !max_l ) { hud_u->len_w = 0; } else { hud_u->len_w = (max_l + 1); hud_u->ray_u = malloc(hud_u->len_w * (sizeof(u3_cs_harm *))); for ( i_l = 0; i_l < hud_u->len_w; i_l++ ) { hud_u->ray_u[i_l] = 0; } } } /* Fill jet table. */ { c3_l i_l = 0; while ( 1 ) { u3_cs_harm* jet_u = &cop_u->arm_u[i_l]; if ( !jet_u->fcs_c ) break; if ( jet_u->axe_l ) { hud_u->ray_u[jet_u->axe_l] = jet_u; } i_l++; } } } /* Link in new battery record. */ { hud_u->nex_u = cop_u->hud_u; cop_u->hud_u = hud_u; } } /* _cj_chum(): decode chum as string. */ static c3_c* _cj_chum(u3_noun chu) { if ( u3_so(u3ud(chu)) ) { return u3_cr_string(chu); } else { u3_noun h_chu = u3h(chu); u3_noun t_chu = u3t(chu); if ( u3_ne(u3_co_is_cat(t_chu)) ) { return 0; } else { c3_c* h_chu_c = u3_cr_string(h_chu); c3_c buf[33]; memset(buf, 0, 33); snprintf(buf, 32, "%s%d", h_chu_c, t_chu); free(h_chu_c); return strdup(buf); } } } /* u3_cj_mine(): register core for jets. */ u3_noun u3_cj_mine(u3_noun clu, u3_noun cor) { if ( u3_none != u3_ch_get(u3R->jed.har_u, u3h(cor)) ) { u3z(clu); return cor; } else { u3_noun p_clu, q_clu, r_clu; u3_cs_hook* huk_u; u3_cs_hood* hud_u; c3_c* nam_c; c3_l axe_l, par_l; u3_noun pab; if ( u3_no == u3_cr_trel(clu, &p_clu, &q_clu, &r_clu) ) { printf("mine: bad z\r\n"); u3z(clu); return cor; } if ( 0 == (nam_c = _cj_chum(p_clu)) ) { printf("mine: bad a\r\n"); u3z(clu); return cor; } // printf("mine: chum: %s\r\n", nam_c); while ( u3_so(u3du(q_clu)) && (10 == u3h(q_clu)) ) { q_clu = u3t(u3t(q_clu)); } if ( u3_ne(u3du(q_clu)) ) { printf("mine: bad b\r\n"); u3z(clu); return cor; } if ( (1 == u3h(q_clu)) && (0 == u3t(q_clu)) ) { axe_l = 0; } else { if ( (0 != u3h(q_clu)) ) { printf("mine: bad c\r\n"); u3z(clu); return cor; c3_assert(0); } if ( u3_ne(u3_co_is_cat(axe_l = u3t(q_clu))) ) { printf("mine: bad d\r\n"); u3z(clu); return cor; } } if ( 0 != axe_l ) { if ( (u3_none == (pab = u3_cr_at(axe_l, cor))) ) { printf("mine: bad e\r\n"); u3z(clu); return cor; } if ( (0 == (par_l = u3_cj_find(u3h(pab)))) ) { printf("mine: bad f\r\n"); printf("battery mug %x\r\n", u3_cr_mug(u3h(pab))); u3z(clu); c3_assert(0); return cor; } else { // printf("parent %d, mug %x\r\n", par_l, u3_cr_mug(u3h(pab))); } } huk_u = 0; while ( 0 != r_clu ) { u3_noun ir_clu, tr_clu, pir_clu, qir_clu; u3_cs_hook* kuh_u; c3_l kax_l; if ( u3_no == u3_cr_cell(r_clu, &ir_clu, &tr_clu) ) { printf("mine: bad g\r\n"); u3z(clu); return cor; } if ( u3_no == u3_cr_cell(ir_clu, &pir_clu, &qir_clu) ) { printf("mine: bad h\r\n"); u3z(clu); return cor; } if ( u3_ne(u3ud(pir_clu)) ) { printf("mine: bad i\r\n"); u3z(clu); return cor; } if ( 0 == (kax_l = _cj_axis(qir_clu)) ) { printf("mine: bad j\r\n"); u3z(clu); return cor; } kuh_u = malloc(sizeof(u3_cs_hook)); kuh_u->nam_c = u3_cr_string(pir_clu); kuh_u->axe_l = kax_l; kuh_u->nex_u = huk_u; huk_u = kuh_u; r_clu = tr_clu; } hud_u = malloc(sizeof(u3_cs_hood)); hud_u->mug_l = u3_cr_mug(u3h(cor)); hud_u->len_w = 0; hud_u->ray_u = 0; hud_u->huk_u = huk_u; hud_u->nex_u = 0; // Find the child, if possible, in the parent. Otherwise, // register it to avoid slow repeated search. // { u3_cs_core* par_u = axe_l ? &u3D.ray_u[par_l] : 0; u3_cs_core* dev_u = par_u ? par_u->dev_u : u3_Dash.dev_u; c3_l jax_l = 0; c3_w i_l = 0; if ( dev_u ) { while ( 1 ) { u3_cs_core* cop_u = &dev_u[i_l]; if ( 0 == cop_u->cos_c ) { break; } if ( !strcmp(cop_u->cos_c, nam_c) ) { jax_l = cop_u->jax_l; u3D.ray_u[jax_l].axe_l = axe_l; u3D.ray_u[jax_l].par_u = par_u; c3_assert(0 != jax_l); free(nam_c); printf("mine: bound jet %s, %d\r\n", cop_u->cos_c, cop_u->jax_l); break; } i_l++; } } if ( 0 == jax_l ) { u3_cs_core fak_u; memset(&fak_u, 0, sizeof(u3_cs_core)); fak_u.cos_c = nam_c; printf("mine: dummy %s\r\n", fak_u.cos_c); fak_u.par_u = par_u; fak_u.axe_l = axe_l; jax_l =_cj_insert(&fak_u); } u3_ch_put(u3R->jed.har_u, u3h(cor), jax_l); u3z(clu); _cj_activate(&u3D.ray_u[jax_l], hud_u); #if 0 { u3_cs_core* cop_u = &u3D.ray_u[jax_l]; u3_cs_core* par_u = cop_u->par_u; printf("cop %s/%p/%d; par_u %p/%s/%d/%p; hud_u %p\n\n", cop_u->cos_c, cop_u, jax_l, par_u, par_u ? par_u->cos_c : "none", par_l, par_l ? &u3D.ray_u[par_l] : 0, cop_u->hud_u); } #endif return cor; } } }