File Coverage

xs/si16.xsi

Criterion	Covered	Total	%
statement	112	285	39.3
branch	158	678	23.3
condition			n/a
subroutine			n/a
pod			n/a
total	270	963	28.0

MODULE = Data::HashMap    PACKAGE = Data::HashMap::SI16
PROTOTYPES: DISABLE

SV*
new(char* class, ...)
    CODE:
        EXTRACT_NEW_ARGS(_max_size, _ttl, _lru_skip);
        HashMapSI16* map = hashmap_si16_create(_max_size, _ttl, _lru_skip);
        if (!map) croak("Failed to create HashMap::SI16");
        RETVAL = sv_setref_pv(newSV(0), class, (void*)map);
    OUTPUT:
        RETVAL

void
DESTROY(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        hashmap_si16_destroy(self);
        sv_setiv(SvRV(self_sv), 0);

bool
put(SV* self_sv, SV* key_sv, int16_t value)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        RETVAL = hashmap_si16_put(self, _kstr, (uint32_t)_klen, _khash, _kutf8, value, 0);
    OUTPUT:
        RETVAL

SV*
get(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        int16_t value;
        if (!hashmap_si16_get(self, _kstr, (uint32_t)_klen, _khash, &value))
            XSRETURN_UNDEF;
        RETVAL = newSViv(value);
    OUTPUT:
        RETVAL

bool
remove(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        RETVAL = hashmap_si16_remove(self, _kstr, (uint32_t)_klen, _khash);
    OUTPUT:
        RETVAL

SV*
take(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        int16_t value;
        if (!hashmap_si16_take(self, _kstr, (uint32_t)_klen, _khash, &value)) XSRETURN_UNDEF;
        RETVAL = newSViv(value);
    OUTPUT:
        RETVAL

bool
exists(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        RETVAL = hashmap_si16_exists(self, _kstr, (uint32_t)_klen, _khash);
    OUTPUT:
        RETVAL

SV*
incr(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        int16_t val;
        if (!hashmap_si16_increment(self, _kstr, (uint32_t)_klen, _khash, _kutf8, &val))
            croak("HashMap::SI16: increment failed");
        RETVAL = newSViv(val);
    OUTPUT:
        RETVAL

SV*
decr(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        int16_t val;
        if (!hashmap_si16_decrement(self, _kstr, (uint32_t)_klen, _khash, _kutf8, &val))
            croak("HashMap::SI16: decrement failed");
        RETVAL = newSViv(val);
    OUTPUT:
        RETVAL

SV*
incr_by(SV* self_sv, SV* key_sv, int16_t delta)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        int16_t val;
        if (!hashmap_si16_increment_by(self, _kstr, (uint32_t)_klen, _khash, _kutf8, delta, &val))
            croak("HashMap::SI16: incr_by failed");
        RETVAL = newSViv(val);
    OUTPUT:
        RETVAL

size_t
size(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        RETVAL = self->size;
    OUTPUT:
        RETVAL

size_t
max_size(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        RETVAL = self->max_size;
    OUTPUT:
        RETVAL

UV
ttl(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        RETVAL = (UV)self->default_ttl;
    OUTPUT:
        RETVAL

UV
lru_skip(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        RETVAL = (UV)self->lru_skip;
    OUTPUT:
        RETVAL

void
keys(SV* self_sv)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        EXTEND(SP, self->size);
        size_t i;
        for (i = 0; i < self->capacity; i++) {
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                uint32_t klen = HM_UNPACK_LEN(self->nodes[i].key_len);
                SV* sv = newSVpvn(self->nodes[i].key, klen);
                if (HM_UNPACK_UTF8(self->nodes[i].key_len)) SvUTF8_on(sv);
                mXPUSHs(sv);
            }
        }

void
values(SV* self_sv)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        EXTEND(SP, self->size);
        size_t i;
        for (i = 0; i < self->capacity; i++) {
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now))
                mXPUSHi(self->nodes[i].value);
        }

void
items(SV* self_sv)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        EXTEND(SP, self->size * 2);
        size_t i;
        for (i = 0; i < self->capacity; i++) {
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                uint32_t klen = HM_UNPACK_LEN(self->nodes[i].key_len);
                SV* sv = newSVpvn(self->nodes[i].key, klen);
                if (HM_UNPACK_UTF8(self->nodes[i].key_len)) SvUTF8_on(sv);
                mXPUSHs(sv);
                mXPUSHi(self->nodes[i].value);
            }
        }

void
each(SV* self_sv)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        while (self->iter_pos < self->capacity) {
            size_t i = self->iter_pos++;
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                EXTEND(SP, 2);
                {
                    uint32_t klen = HM_UNPACK_LEN(self->nodes[i].key_len);
                    SV* ksv = newSVpvn(self->nodes[i].key, klen);
                    if (HM_UNPACK_UTF8(self->nodes[i].key_len)) SvUTF8_on(ksv);
                    mXPUSHs(ksv);
                }
                if (GIMME_V == G_SCALAR) XSRETURN(1);
                mXPUSHi(self->nodes[i].value);
                XSRETURN(2);
            }
        }
        self->iter_pos = 0;
        XSRETURN_EMPTY;

void
iter_reset(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        self->iter_pos = 0;

void
drain(SV* self_sv, UV count)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        UV n = 0;
        EXTEND(SP, (count < self->size ? count : self->size) * 2);
        while (self->iter_pos < self->capacity && n < count) {
            size_t i = self->iter_pos++;
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                {
                    SV* ksv = newSVpvn(self->nodes[i].key, HM_UNPACK_LEN(self->nodes[i].key_len));
                    if (HM_UNPACK_UTF8(self->nodes[i].key_len)) SvUTF8_on(ksv);
                    mXPUSHs(ksv);
                }
                mXPUSHi(self->nodes[i].value);
                if (HM_UNLIKELY(self->lru_prev)) hashmap_si16_lru_unlink(self, (uint32_t)i);
                hashmap_si16_tombstone_at(self, i);
                n++;
            }
        }
        if (self->iter_pos >= self->capacity) self->iter_pos = 0;
        HM_MAYBE_COMPACT_XS(self, hashmap_si16_compact);

void
pop(SV* self_sv)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        if (self->lru_prev) {
            while (self->lru_tail != HM_LRU_NONE) {
                uint32_t idx = self->lru_tail;
                if (HM_UNLIKELY(HM_TTL_SKIP_EXPIRED(self, idx, now))) {
                    hashmap_si16_expire_at(self, idx, true); continue;
                }
                EXTEND(SP, 2);
                {
                    SV* ksv = newSVpvn(self->nodes[idx].key, HM_UNPACK_LEN(self->nodes[idx].key_len));
                    if (HM_UNPACK_UTF8(self->nodes[idx].key_len)) SvUTF8_on(ksv);
                    mXPUSHs(ksv);
                }
                mXPUSHi(self->nodes[idx].value);
                hashmap_si16_lru_unlink(self, idx);
                hashmap_si16_tombstone_at(self, idx);
                HM_MAYBE_COMPACT_XS(self, hashmap_si16_compact);
                XSRETURN(2);
            }
            XSRETURN_EMPTY;
        } else {
            while (self->iter_pos < self->capacity) {
                size_t i = self->iter_pos++;
                if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                    EXTEND(SP, 2);
                {
                    SV* ksv = newSVpvn(self->nodes[i].key, HM_UNPACK_LEN(self->nodes[i].key_len));
                    if (HM_UNPACK_UTF8(self->nodes[i].key_len)) SvUTF8_on(ksv);
                    mXPUSHs(ksv);
                }
                mXPUSHi(self->nodes[i].value);
                    hashmap_si16_tombstone_at(self, i);
                    HM_MAYBE_COMPACT_XS(self, hashmap_si16_compact);
                    XSRETURN(2);
                }
            }
            self->iter_pos = 0;
            XSRETURN_EMPTY;
        }

void
shift(SV* self_sv)
    PPCODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        if (self->lru_prev) {
            while (self->lru_head != HM_LRU_NONE) {
                uint32_t idx = self->lru_head;
                if (HM_UNLIKELY(HM_TTL_SKIP_EXPIRED(self, idx, now))) {
                    hashmap_si16_expire_at(self, idx, true); continue;
                }
                EXTEND(SP, 2);
                {
                    SV* ksv = newSVpvn(self->nodes[idx].key, HM_UNPACK_LEN(self->nodes[idx].key_len));
                    if (HM_UNPACK_UTF8(self->nodes[idx].key_len)) SvUTF8_on(ksv);
                    mXPUSHs(ksv);
                }
                mXPUSHi(self->nodes[idx].value);
                hashmap_si16_lru_unlink(self, idx);
                hashmap_si16_tombstone_at(self, idx);
                HM_MAYBE_COMPACT_XS(self, hashmap_si16_compact);
                XSRETURN(2);
            }
            XSRETURN_EMPTY;
        } else {
            if (self->iter_pos == 0) self->iter_pos = self->capacity;
            while (self->iter_pos > 0) {
                size_t i = --self->iter_pos;
                if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                    EXTEND(SP, 2);
                {
                    SV* ksv = newSVpvn(self->nodes[i].key, HM_UNPACK_LEN(self->nodes[i].key_len));
                    if (HM_UNPACK_UTF8(self->nodes[i].key_len)) SvUTF8_on(ksv);
                    mXPUSHs(ksv);
                }
                mXPUSHi(self->nodes[i].value);
                    hashmap_si16_tombstone_at(self, i);
                    HM_MAYBE_COMPACT_XS(self, hashmap_si16_compact);
                    XSRETURN(2);
                }
            }
            XSRETURN_EMPTY;
        }


void
clear(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        hashmap_si16_clear(self);

void
reserve(SV* self_sv, UV count)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        if (!hashmap_si16_reserve(self, (size_t)count))
            croak("Failed to reserve capacity");

void
purge(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        hashmap_si16_purge(self);

SV*
freeze(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        SV* buf = newSV(22 + self->size * 32);
        SvPOK_on(buf);
        SvCUR_set(buf, 0);
        /* Header: magic(4) + version(1) + variant_id(1) + count(4) + max_size(4) + ttl(4) + lru_skip(4) */
        sv_catpvn(buf, "DHMP", 4);
        { uint8_t ver = 1; sv_catpvn(buf, (const char*)&ver, 1); }
        { uint8_t vid = 9; sv_catpvn(buf, (const char*)&vid, 1); }
        STRLEN cnt_offset = SvCUR(buf);
        { uint32_t cnt = 0; sv_catpvn(buf, (const char*)&cnt, 4); }
        UV n_written = 0;
        { uint32_t ms = (uint32_t)self->max_size; sv_catpvn(buf, (const char*)&ms, 4); }
        { uint32_t dt = self->default_ttl; sv_catpvn(buf, (const char*)&dt, 4); }
        { uint32_t ls = self->lru_skip; sv_catpvn(buf, (const char*)&ls, 4); }
        { size_t i;
          for (i = 0; i < self->capacity; i++) {
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                uint32_t kl = HM_UNPACK_LEN(self->nodes[i].key_len);
                uint8_t ku = HM_UNPACK_UTF8(self->nodes[i].key_len) ? 1 : 0;
                sv_catpvn(buf, (const char*)&kl, 4);
                sv_catpvn(buf, (const char*)&ku, 1);
                sv_catpvn(buf, self->nodes[i].key, kl);
                sv_catpvn(buf, (const char*)&self->nodes[i].value, 2);
                /* TTL: remaining seconds (0 = none) */
                { uint32_t rem = 0;
                  if (self->expires_at && self->expires_at[i] && self->expires_at[i] >= now) {
                      rem = self->expires_at[i] - now;
                      if (!rem) rem = 1;
                  }
                  sv_catpvn(buf, (const char*)&rem, 4);
                }
                n_written++;
            }
          }
        }
        { uint32_t actual = (uint32_t)n_written;
          memcpy(SvPVX(buf) + cnt_offset, &actual, 4); }
        RETVAL = buf;
    OUTPUT:
        RETVAL

SV*
thaw(char* class, SV* data)
    CODE:
        STRLEN dlen;
        const uint8_t* p = (const uint8_t*)SvPV(data, dlen);
        const uint8_t* end = p + dlen;
        if (dlen < 22 || memcmp(p, "DHMP", 4) != 0) croak("Invalid freeze data");
        p += 4;
        uint8_t ver = *p++; if (ver != 1) croak("Unsupported freeze version %d", ver);
        uint8_t vid = *p++; if (vid != 9) croak("Variant mismatch: expected 9, got %d", vid);
        uint32_t cnt; memcpy(&cnt, p, 4); p += 4;
        uint32_t ms; memcpy(&ms, p, 4); p += 4;
        uint32_t dt; memcpy(&dt, p, 4); p += 4;
        uint32_t ls; memcpy(&ls, p, 4); p += 4;
        HashMapSI16* map = hashmap_si16_create((size_t)ms, dt, ls);
        if (!map) croak("Failed to create map for thaw");
        if (cnt > 0) hashmap_si16_reserve(map, (size_t)cnt);
        { uint32_t j;
          for (j = 0; j < cnt; j++) {
            if (p + 11 > end) { hashmap_si16_destroy(map); croak("Truncated freeze data"); }
            uint32_t kl; memcpy(&kl, p, 4); p += 4;
            uint8_t ku = *p++; bool kutf8 = ku ? true : false;
            if (p + kl + 6 > end) { hashmap_si16_destroy(map); croak("Truncated freeze data"); }
            const char* kstr = (const char*)p; p += kl;
            uint32_t khash = hm_hash_string(kstr, kl);
            int16_t val; memcpy(&val, p, 2); p += 2;
            uint32_t ttl; memcpy(&ttl, p, 4); p += 4;
            if (!hashmap_si16_put(map, kstr, kl, khash, kutf8, val, ttl)) { hashmap_si16_destroy(map); croak("OOM during thaw"); }
            if (ttl == 0 && map->expires_at) hashmap_si16_persist(map, kstr, kl, khash);
          }
        }
        if (p > end) croak("Truncated freeze data");
        RETVAL = sv_setref_pv(newSV(0), class, (void*)map);
    OUTPUT:
        RETVAL


UV
capacity(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        RETVAL = (UV)self->capacity;
    OUTPUT:
        RETVAL

bool
persist(SV* self_sv, SV* key_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        RETVAL = hashmap_si16_persist(self, _kstr, (uint32_t)_klen, _khash);
    OUTPUT:
        RETVAL

SV*
swap(SV* self_sv, SV* key_sv, int16_t new_val)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        int16_t old;
        if (!hashmap_si16_swap(self, _kstr, (uint32_t)_klen, _khash, new_val, &old)) XSRETURN_UNDEF;
        RETVAL = newSViv(old);
    OUTPUT:
        RETVAL

bool
cas(SV* self_sv, SV* key_sv, int16_t expected, int16_t new_val)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        RETVAL = hashmap_si16_cas(self, _kstr, (uint32_t)_klen, _khash, expected, new_val);
    OUTPUT:
        RETVAL


SV*
clone(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        HashMapSI16* clone = hashmap_si16_clone(self);
        if (!clone) croak("Failed to clone");
        RETVAL = sv_setref_pv(newSV(0), HvNAME(SvSTASH(SvRV(self_sv))), (void*)clone);
    OUTPUT:
        RETVAL

void
from_hash(SV* self_sv, SV* href)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        if (!SvROK(href) || SvTYPE(SvRV(href)) != SVt_PVHV)
            croak("from_hash requires a hashref");
        HV* hv = (HV*)SvRV(href);
        hashmap_si16_reserve(self, (size_t)HvUSEDKEYS(hv));
        hv_iterinit(hv);
        HE* he;
        while ((he = hv_iternext(hv))) {
            STRLEN klen; const char* kstr = HePV(he, klen);
            bool kutf8 = HeUTF8(he) ? true : false;
            uint32_t khash = hm_hash_string(kstr, (uint32_t)klen);
            SV* val = HeVAL(he);
            hashmap_si16_put(self, kstr, (uint32_t)klen, khash, kutf8, (int16_t)SvIV(val), 0);
        }

void
merge(SV* self_sv, SV* other_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        if (!SvROK(other_sv) || !SvOBJECT(SvRV(other_sv)) || SvSTASH(SvRV(other_sv)) != stash_si16)
            croak("Expected a Data::HashMap::SI16 object");
        HashMapSI16* other = INT2PTR(HashMapSI16*, SvIV(SvRV(other_sv)));
        hashmap_si16_reserve(self, self->size + other->size);
        uint32_t now = other->expires_at ? (uint32_t)time(NULL) : 0;
        size_t i;
        for (i = 0; i < other->capacity; i++) {
            if (SI16_NODE_LIVE(other->nodes[i]) && !HM_TTL_SKIP_EXPIRED(other, i, now))
                hashmap_si16_put(self, other->nodes[i].key, HM_UNPACK_LEN(other->nodes[i].key_len), other->nodes[i].key_hash, HM_UNPACK_UTF8(other->nodes[i].key_len), other->nodes[i].value, 0);
        }


SV*
to_hash(SV* self_sv)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        HV* hv = newHV();
        uint32_t now = self->expires_at ? (uint32_t)time(NULL) : 0;
        size_t i;
        for (i = 0; i < self->capacity; i++) {
            if (SI16_NODE_LIVE(self->nodes[i]) && !HM_TTL_SKIP_EXPIRED(self, i, now)) {
                uint32_t klen = HM_UNPACK_LEN(self->nodes[i].key_len);
                bool kutf8 = HM_UNPACK_UTF8(self->nodes[i].key_len);
                SV* val = newSViv(self->nodes[i].value);
                (void)hv_store(hv, self->nodes[i].key, kutf8 ? -(I32)klen : (I32)klen, val, 0);
            }
        }
        RETVAL = newRV_noinc((SV*)hv);
    OUTPUT:
        RETVAL

bool
put_ttl(SV* self_sv, SV* key_sv, int16_t value, UV ttl)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        RETVAL = hashmap_si16_put(self, _kstr, (uint32_t)_klen, _khash, _kutf8, value, (uint32_t)ttl);
    OUTPUT:
        RETVAL

SV*
get_or_set(SV* self_sv, SV* key_sv, int16_t default_value)
    CODE:
        EXTRACT_MAP(HashMapSI16, stash_si16, "Data::HashMap::SI16", self_sv);
        EXTRACT_STR_KEY(key_sv);
        bool was_found;
        size_t idx = hashmap_si16_get_or_set(self, _kstr, (uint32_t)_klen, _khash, _kutf8, default_value, 0, &was_found);
        if (idx >= self->capacity) XSRETURN_UNDEF;
        RETVAL = newSViv(self->nodes[idx].value);
    OUTPUT:
        RETVAL