bool process_record_user(uint16_t keycode, keyrecord_t *record)
{
switch (keycode) {
case BASE1:
if (record->event.pressed) {
base_n = base_n | BASE_1;
if (base_n == BASE_12) {
base_layer();
}
}
else {
base_n = base_n & ~BASE_1;
}
return false;
case BASE2:
if (record->event.pressed) {
base_n = base_n | BASE_2;
if (base_n == BASE_12) {
base_layer();
}
}
else {
base_n = base_n & ~BASE_2;
}
return false;
case AT_DOWN:
#ifdef HOME_MODS
case HOME_E:
case HOME_R:
#endif
tap_mods(record, KC_LALT);
break;
case CT_RGHT:
#ifdef HOME_MODS
case HOME_H:
case HOME_W:
#endif
tap_mods(record, KC_LGUI);
break;
case GT_UP:
#ifdef HOME_MODS
case HOME_I:
case HOME_S:
#endif
tap_mods(record, KC_LCTL);
break;
#ifdef HOME_MODS
case HOME_A:
case HOME_T:
tap_mods(record, KC_LSFT);
break;
#endif
#ifdef CENTER_TT
case TT_ESC:
clear_tt(); // exit TT layer
return false;
#endif
case LT_ESC:
#ifdef CENTER_TT
if (tt_keycode != 0) {
clear_tt(); // exit TT layer
return false;
}
#endif
tap_layer(record, _NUMBER);
break;
case LT_LEFT:
case SP_BSPC:
tap_layer(record, _SYMBOL);
// LT (_SYMBOL, KC_LEFT) left right combination layer
thumb_layer(record, RIGHT, 0, 0, _SYMBOL, _LSHIFT);
break;
case OS_ALT:
tap_mods(record, KC_LALT);
break;
case OS_CTL:
tap_mods(record, KC_LCTL);
break;
case OS_GUI:
tap_mods(record, KC_LGUI);
break;
case SM_CIRC:
// GUI_T(S(KC_6))
mt_shift(record, KC_LGUI, 0, KC_6);
break;
case SM_DLR:
// SFT_T(S(KC_4))
mt_shift(record, KC_LSFT, 0, KC_4);
break;
case SM_G:
// MT(MOD_LALT | MOD_LSFT, S(KC_G))
mt_shift(record, KC_LALT, KC_LSFT, KC_G);
break;
case SM_H:
// MT(MOD_LCTL | MOD_LSFT, S(KC_K))
mt_shift(record, KC_LCTL, KC_LSFT, KC_H);
break;
case SM_W:
// MT(MOD_LGUI | MOD_LSFT, S(KC_W))
mt_shift(record, KC_LGUI, KC_LSFT, KC_W);
break;
case SM_PERC:
// ALT_T(S(KC_5))
mt_shift(record, KC_LALT, 0, KC_5);
break;
case LT_BSLS:
tap_layer(record, _MOUSE);
// LT (_MOUSE, KC_BSLS) left right combination layer, see #define LT_BSLS
thumb_layer(record, LEFT, 0, 0, _MOUSE, _SYMBOL);
break;
case SL_LEFT:
tap_layer(record, _MOUSE);
// LT (_MOUSE, S(KC_LEFT)) left right combination layer
thumb_layer(record, RIGHT, SHIFT, KC_LEFT, _MOUSE, _LSHIFT);
break;
case SP_DEL:
tap_layer(record, _MOUSE);
// LT (_MOUSE, S(KC_LEFT)) left right combination layer
thumb_layer(record, RIGHT, NOSHIFT, KC_DEL, _MOUSE, _LSHIFT);
break;
case SL_TAB:
// LT (_FNCKEY, S(KC_TAB)) emulation
lt_shift(record, KC_TAB, _FNCKEY);
break;
case TD_ENT:
tap_layer(record, _RSHIFT);
// LT (_RSHIFT, KC_ENT) emulation, see tap dance enter
break;
case TD_SPC:
tap_layer(record, _LSHIFT);
// LT (_LSHIFT, KC_SPC) left right combination layer, see tap dance TD_SPC
thumb_layer(record, LEFT, 0, 0, _LSHIFT, _SYMBOL);
break;
#ifdef CENTER_TT
case CNTR_TL:
case CNTR_TR:
case CNTR_HL:
case CNTR_HR:
case CNTR_BL:
case CNTR_BR:
if (tt_keycode != keycode && tt_keycode != 0) {
clear_tt(); // return to base layer first if different TT layer selected
}
tt_keycode = keycode;
break;
#endif
// #ifdef STENO_ENABLE
// case PS_STNA:
// stn_layer(record, STN_A, _NUMBER);
// break;
// case PS_STNO:
// stn_layer(record, STN_O, _FNCKEY);
// break;
// case PS_STNE:
// stn_layer(record, STN_E, _EDIT);
// break;
// case PS_STNU:
// stn_layer(record, STN_U, _SYMBOL);
// break;
// #endif
case PLOVER:
steno(record);
return false;
}
return true;
}
IImageDataSP VKTS_APIENTRY imageDataLoadGli(const std::string& name, const IBinaryBufferSP& buffer)
{
if (!buffer.get())
{
return IImageDataSP();
}
auto texture = gli::load(name.c_str());
if (texture.empty())
{
return IImageDataSP();
}
if (texture.layers() > 1 && texture.faces() > 1)
{
return IImageDataSP();
}
VkFormat format = imageDataTranslateFormat(texture.format());
if (format == VK_FORMAT_UNDEFINED)
{
return IImageDataSP();
}
uint32_t arrayLayers = (uint32_t)(texture.layers() * texture.faces());
uint32_t mipLevels = (uint32_t)texture.levels();
VkImageType imageType = VK_IMAGE_TYPE_2D;
if (texture.extent().z > 1)
{
imageType = VK_IMAGE_TYPE_3D;
}
//
std::vector<size_t> allOffsets;
size_t offset = 0;
for (size_t arrayLayer = texture.base_layer(); arrayLayer <= texture.max_layer(); arrayLayer++)
{
for (size_t face = texture.base_face(); face <= texture.max_face(); face++)
{
for (size_t mipLevel = texture.base_level(); mipLevel <= texture.max_level(); mipLevel++)
{
allOffsets.push_back(offset);
offset += texture.size(mipLevel);
}
}
}
size_t totalSize = offset;
std::vector<uint8_t> data(totalSize);
offset = 0;
for (size_t arrayLayer = texture.base_layer(); arrayLayer <= texture.max_layer(); arrayLayer++)
{
for (size_t face = texture.base_face(); face <= texture.max_face(); face++)
{
for (size_t mipLevel = texture.base_level(); mipLevel <= texture.max_level(); mipLevel++)
{
memcpy(&data[offset], texture.data(arrayLayer, face, mipLevel), texture.size(mipLevel));
offset += texture.size(mipLevel);
}
}
}
return IImageDataSP(new ImageData(name, imageType, format, { (uint32_t)texture.extent().x, (uint32_t)texture.extent().y, (uint32_t)texture.extent().z }, mipLevels, arrayLayers, allOffsets, &data[0], totalSize));
}
