Files
MinecraftConsoles/Minecraft.World/ConsoleSaveFileOriginal.cpp
MrTheShy ce24910f30 Overhaul Keyboard/Mouse Support (#612)
* Sync keyboard text buffer from Flash before processing physical input

The native keyboard scene maintained a separate C++ buffer
(m_win64TextBuffer) for physical keyboard input, which was pushed
to the Flash text field via setLabel(). However, when the user typed
with the on-screen controller buttons, Flash updated its text field
directly through ActionScript without updating the C++ buffer.

This caused a desync: switching back to the physical keyboard would
overwrite any text entered via controller, since m_win64TextBuffer
still held the old value before the controller edits.

Fix: read the current Flash text field into m_win64TextBuffer at the
start of each tick(), before consuming new physical keyboard chars.
This ensures both input methods always operate on the same state.

* Use last active input device to decide keyboard mode instead of connection state

The keyboard UI mode (on-screen virtual keyboard vs direct text input)
was determined by Win64_IsControllerConnected(), which checks if any
XInput controller is physically plugged in. This meant that even if
the player was actively using mouse and keyboard, the virtual keyboard
would still appear as long as a controller was connected.

Replace the connection check with g_KBMInput.IsKBMActive(), which
tracks the actual last-used input device based on per-frame input
detection. Now the keyboard mode is determined by what the player is
currently using, not what hardware happens to be plugged in.

Affected scenes: CreateWorldMenu (world naming) and LoadOrJoinMenu
(world renaming).

* Fix TextInput caret behavior and add proper cursor editing for KBM direct edit

The direct text editing mode introduced for KBM users had several
issues with the TextInput control's caret (blinking cursor) and text
manipulation:

1. Caret visible when not editing:
   When navigating to the world name field with keyboard/mouse, Flash's
   Iggy focus system would show the blinking caret even though the field
   wasn't active for editing yet (Enter not pressed). This was misleading
   since typing had no effect in that state.

   Fix: access the FJ_TextInput's internal m_mcCaret MovieClip and
   force its visibility based on editing state. This is enforced every
   tick because setLabel() and Flash focus transitions continuously
   reset the caret state.

2. No cursor movement during editing:
   The direct edit implementation treated the text as a simple buffer
   with push_back/pop_back — there was no concept of cursor position.
   Backspace only deleted from the end, and arrow keys did nothing.

   Fix: track cursor position (m_iCursorPos) in C++ and use wstring
   insert/erase at that position. Arrow keys (Left/Right), Home, End,
   and Delete now work as expected. The visual caret position is synced
   to Flash via the FJ_TextInput's SetCaretIndex method.

3. setLabel() resetting caret position:
   Every call to setLabel() (when text changes) caused Flash to reset
   the caret to the end of the string, making the cursor jump visually
   even though the C++ position was correct.

   Fix: enforce caret position via setCaretIndex every tick during
   editing, so any Flash-side resets are immediately corrected.

New UIControl_TextInput API:
- setCaretVisible(bool): toggles m_mcCaret.visible in Flash
- setCaretIndex(int): calls FJ_TextInput.SetCaretIndex in Flash

* Fix keyboard/arrow navigation not working when no UI element is focused

On Windows64 with KBM, moving the mouse over empty space (outside any
button) would clear the Iggy focus entirely. After that, pressing arrow
keys did nothing because Flash had no starting element to navigate from.

Two changes here:

- Don't set focus to IGGY_FOCUS_NULL when the mouse hovers over empty
  space. The previous hover target stays focused, so switching back to
  arrows keeps working seamlessly.

- When a navigation key is pressed and nothing is focused at all (e.g.
  mouse was already on empty space when the menu opened), grab the first
  focusable element instead of silently dropping the input. The keypress
  is consumed to avoid jumping two elements at once.

This makes mixed mouse+keyboard navigation feel a lot more natural.
You can point at a button, then continue with arrows, or just start
pressing arrows right away without having to hover first.

* Overhaul mouse support and generalize direct text editing to all UI scenes

This is a large rework of the Windows64 KBM (keyboard+mouse) input layer.
It touches the mouse hover system, the mouse click dispatch, and the direct
text editing infrastructure, then applies all of it to every scene that has
text input fields or non-standard clickable elements.

MOUSE HOVER REWRITE (UIController.cpp tickInput)

The old hover code had two structural problems:

(a) Scene lookup was group-first: it iterated UI groups and checked all
layers within each group. The Tooltips layer on eUIGroup_Fullscreen (which
holds non-interactive overlays like button hints) would be found before
in-game menus on eUIGroup_Player1. The tooltip scene focusable objects
captured mouse input and prevented hover from reaching the actual menu.

Fixed by switching to layer-first lookup across all groups, and skipping
eUILayer_Tooltips entirely since those are never interactive.

(b) On tabbed menus (LaunchMoreOptionsMenu Game vs World tabs), all
controls from all tabs are registered in Flash at the same time. There was
no filtering, so controls from inactive tabs had phantom hitboxes that
overlapped the active tab controls, making certain buttons unhoverable.

Fixed by introducing parent panel tracking: each UIControl now has a
m_pParentPanel pointer, set automatically by the UI_MAP_ELEMENT macro
during mapElementsAndNames(). The hover code checks the control parent
panel against the scene GetMainPanel() and skips mismatches. This is the
same technique the Vita touch code used, but applied to mouse hover.

The coordinate conversion was also simplified. The old code had two separate
scaling paths (window dimensions for hover, display dimensions for sliders).
Now there is one conversion from window pixel coords to SWF coords using
the scene own render dimensions.

REUSING VITA TOUCH APIs FOR MOUSE (ButtonList, UIScene)

Several APIs originally gated behind __PSVITA__ are now enabled for Win64:

- UIControl_ButtonList::SetTouchFocus(x,y) and CanTouchTrigger(x,y): the
  Flash-side ActionScript methods were already registered on all platforms
  in setupControl(), only the C++ wrappers were ifdef-gated. Opening the
  ifdefs to include _WINDOWS64 lets the mouse hover code delegate to Flash
  for list item highlighting, which handles internal scrolling and item
  layout that would be impractical to replicate in C++.

- UIScene::SetFocusToElement(id): programmatic focus-by-control-ID, used as
  a fallback when Iggy focusable objects do not match the C++ hit test.

- UIScene_LaunchMoreOptionsMenu::GetMainPanel(): returns the active tab
  panel control, needed by the hover code to filter inactive tab controls.

MOUSE CLICK DISPATCH (UIScene.cpp handleMouseClick)

Left-clicking previously relied entirely on Iggy ACTION_MENU_OK dispatch,
which routes to whatever Flash considers focused. This broke for custom-
drawn elements that are not Flash buttons (crafting recipe slots), and for
scenes where Iggy focus did not match what the user visually clicked.

Added a virtual handleMouseClick(x, y) on UIScene with a default
implementation that hit-tests C++ controls. When multiple controls report
overlapping bounds (common in debug scenes where TextInputs report full
Flash-width), it picks the one whose left edge X is closest to the click.
Returns true to consume the click and suppress the normal ACTION_MENU_A
dispatch via a m_mouseClickConsumedByScene flag on UIController.

The default implementation handles buttons, text inputs, and checkboxes
(toggling state and calling handleCheckboxToggled directly).

CRAFTING MENU MOUSE CLICK (UIScene_CraftingMenu.cpp)

The crafting menu recipe slots (H slots) are rendered through Iggy custom
draw callback, not as Flash buttons. They have no focusable objects, so
mouse clicking did nothing.

The solution caches SWF-space positions during rendering: inside customDraw,
when H slot 0 and H slot 1 are drawn, the code extracts SWF coordinates
from the D3D11 transform matrix via gdraw_D3D11_CalculateCustomDraw_4J.
The X difference between slot 0 and slot 1 gives the uniform slot spacing.

handleMouseClick then uses these cached bounds to determine which recipe
slot was clicked, resets the vertical slot indices (same pattern as the
constructor), updates the highlight and vertical slots display, and re-shows
the old slot icon. This mirrors the existing controller LEFT/RIGHT
navigation in the base class handleKeyDown.

DIRECT EDIT REFACTORING (UIControl_TextInput)

The direct text editing feature (type directly into text fields instead of
opening the virtual keyboard) was originally implemented inline in
CreateWorldMenu with all the state, character consumption, cursor tracking,
caret visibility, and cooldown logic hardcoded in one scene.

Moved everything into UIControl_TextInput:
- beginDirectEdit(charLimit): captures current label, inits cursor at end
- tickDirectEdit(): consumes chars, handles Backspace/Enter/Escape, arrow
  keys (Left/Right/Home/End/Delete), enforces caret visibility every tick
  (because setLabel and Flash focus transitions continuously reset it),
  returns Confirmed/Cancelled/Continue
- cancelDirectEdit() / confirmDirectEdit(): programmatic control
- isDirectEditing() / getDirectEditCooldown() / getEditBuffer(): state query

For SWFs that lack the m_mcCaret MovieClip child (like AnvilMenu), the
existence check validates by reading a property from the resolved path,
since IggyValuePathMakeNameRef always succeeds even for undefined refs.
When no caret exists, the control inserts a _ character at the cursor
position as a visual fallback.

The caret check result is cached in m_bHasCaret/m_bCaretChecked to avoid
repeated Iggy calls that could corrupt internal state.

SCENES UPDATED WITH DIRECT EDIT + VIRTUAL KEYBOARD

Every scene with text input now supports both input modes: direct editing
when KBM is active, virtual keyboard (via NavigateToScene eUIScene_Keyboard)
when using a controller. The mode is chosen at press time based on
g_KBMInput.IsKBMActive().

- CreateWorldMenu: refactored to use the new UIControl_TextInput API,
  removing ~80 lines of inline editing code.

- AnvilMenu: item renaming now supports direct edit. The keyboard callback
  uses Win64_GetKeyboardText instead of InputManager.GetText (which reads
  from a different buffer on Win64). The virtual keyboard is opened with
  eUILayer_Fullscreen + eUIGroup_Fullscreen so it does not hide the anvil
  container menu underneath. Added null guards on getMovie() in setCostLabel
  and showCross since the AnvilMenu SWF may not fully load on Win64.

- SignEntryMenu: all 4 sign lines support direct edit. Clicking a different
  line while editing confirms the current one. Each line cooldown timer
  is checked independently to prevent Enter from re-opening the edit.

- LaunchMoreOptionsMenu: seed field direct edit with proper input blocking.

- DebugCreateSchematic: all 7 text inputs (name + start/end XYZ coords).
  handleMouseClick is overridden to always consume clicks during edit to
  prevent Iggy re-entry on empty space.

- DebugSetCamera: all 5 inputs (camera XYZ + Y rotation + elevation).
  Clicking a different field while editing confirms the current value and
  opens the new one. Float display formatting changed from %f to %.2f.

All keyboard completion callbacks on Win64 now use Win64_GetKeyboardText
(two params: buffer + size) instead of InputManager.GetText, which reads
from the correct g_Win64KeyboardResult global when using the in-game
keyboard scene.

SCROLL WHEEL

Mouse wheel events (ACTION_MENU_OTHER_STICK_UP/DOWN) are now centrally
remapped to ACTION_MENU_UP/DOWN in UIController::handleKeyPress when KBM
is active. Previously each scene would need to handle OTHER_STICK actions
separately, and most did not, so scroll wheel only worked in a few places.

* Add mouse click support to CraftingMenu (tab switching, slot selection, craft)

The crafting screen's horizontal recipe slots and category tabs are custom-drawn
via Iggy callbacks rather than regular Flash buttons, so the standard mouse hover
system can't interact with them. This adds handleMouseClick to derive clickable
regions from the H slot positions cached during customDraw.

Tab clicking: tab hitboxes are computed relative to the H slot row since the
Vita TouchPanel overlays (full-screen invisible rectangles) aren't suitable
for direct hit-testing on Win64. The Y bounds were tuned empirically to match
the SWF tab icon positions. Clicking a tab runs the same switch logic as
LB/RB: hide old highlight, update group index, reset slot indices,
recalculate recipes, and refresh the display.

H slot clicking: clicking a different recipe slot selects it (updating V slots,
highlight, and re-showing the previous slot). Clicking the already-selected
slot crafts the item by dispatching ACTION_MENU_A through handleKeyDown,
reusing the existing crafting path. Empty slots (iCount == 0) are ignored.

All mouse clicks on the scene are consumed (return true) to prevent misses
from falling through as ACTION_MENU_A and accidentally triggering a craft.
This only suppresses mouse-originated A presses via m_mouseClickConsumedByScene;
keyboard and controller A remain fully functional.

Also enables GetMainPanel for Win64 (was Vita-only) so the mouse hover system
can filter controls by active panel, same as other tabbed menus.

* Fix mouse hover selecting wrong buttons from the third onward

The hover code was doing a redundant second hit-test against Iggy
focusable object bounds after the C++ control bounds had already
identified the correct control. Iggy focusable bounds are wider than
the actual visible buttons and overlap vertically, so the "pick
largest x0" heuristic would match focusables belonging to earlier
buttons when hovering the right side of buttons 3+.

Replaced the IggyPlayerGetFocusableObjects path with a direct
SetFocusToElement call using the already-correct hitControlId from
the C++ hit-test, same approach the click path uses in
handleMouseClick. Also switched the overlap tiebreaker from "largest
x0" to smallest area, consistent with how clicks resolve overlapping
controls. TextInput is excluded from hover focus to avoid showing
the caret on mere mouse-over (its Iggy focus is set on click).

* Use smallest-area tiebreaker for mouse click hit-testing too

Same overlap fix applied to handleMouseClick: when multiple controls
contain the click point, prefer the one with the smallest bounding
area instead of the one with the largest left-edge X. This is more
robust for any layout (vertical menus, grids, overlapping panels)
and matches the hover path logic.

Those changes were initially made in order to fix the teleport ui for the mouse but broke every other well working ui.

* Fix mouse cursor staying trapped in window on alt-tab

When the inventory or other UI with a hidden cursor was open,
alt-tabbing out would leave the cursor locked to the game window.
SetWindowFocused(false) from WM_KILLFOCUS correctly released the
clip and showed the cursor, but Tick() was unconditionally calling
SetCursorPos every frame to re-center it, overriding the release.

Added m_windowFocused to the Tick() condition so cursor manipulation
only happens while the window actually has focus.

* Map mouse right click to ACTION_MENU_X for inventory half-stack

Right clicking an item stack in Java Edition picks up half of it.
Console Edition already handles this via ACTION_MENU_X (the X button
on controller), which sets buttonNum=1 in handleKeyDown. This maps
mouse right click to that same action so KBM players get the same
behavior across all container menus (inventory, chests, furnaces,
hoppers, etc).

* Fix mouse hover hitting removed controls (ghost hitboxes)

When removeControl() removes a Flash element (e.g. the Reinstall
button in Help & Options, or the Debug button when disabled), the
C++ control object stays in the m_controls vector. On Vita this was
handled by calling setHidden(true) and checking getHidden() in the
touch hit-test, but on Windows64 none of that was happening.

The result: removed buttons kept phantom bounds that the hover code
would match against, stealing focus from the buttons that shifted
into their visual position. In the Help & Options menu with debug
enabled, the removed Reinstall button (Button6) had ghost bounds
overlapping where the Debug button (Button7) moved to after the
removal, making Debug un-hoverable and snapping focus to Button1.

The fix has three parts:

- removeControl() now calls setHidden(true) on all platforms, not
  just Vita. The m_bHidden member was already declared on all
  platforms, only the accessors were ifdef'd behind __PSVITA__.

- Removed the __PSVITA__ ifdef from setHidden/getHidden in
  UIControl.h so they're available everywhere.

- Added getHidden() checks in both the hover and click hit-test
  loops, matching what the Vita touch code already does. The check
  is a simple bool read (no Flash/Iggy call), placed before the
  getVisible() query which hits Flash and can return stale values
  for removed elements.

* Add right-click to open save options in world selection menu

On controller, RB (ACTION_MENU_RIGHT_SCROLL) opens the save options
dialog (rename/delete) when a save is selected. Mouse right-click
maps to ACTION_MENU_X, which had no Windows64 handler in this scene.

Added save options handling under ACTION_MENU_X for _WINDOWS64 so
right-clicking a save opens the same dialog. Also handles the mashup
world hide action for right-click consistency. Console-only options
(copy save, save transfer) are excluded since they don't apply here.

* Fix Escape key not opening pause menu during tutorial hints

The KBM pause check had a IsTutorialVisible guard that blocked
Escape entirely while any tutorial popup was on screen. The
controller path never had this restriction. Removed the check
so Escape behaves the same as Start on controller.

* Fix crash in WriteHeader when save buffer is too small for header table

When a player enters a new region, RegionFile's constructor calls
createFile which adds a FileEntry with length 0 to the file table.
This increases the header table size (appended at the end of the save
buffer) by sizeof(FileEntrySaveData) per entry, but since no actual
data is written to the file, MoveDataBeyond is never called and the
committed virtual memory pages are never grown to match.

On the next autosave tick, saveLevelData writes level.dat first
(before chunkSource->save which would have grown the buffer). If
level.dat doesn't need to grow, finalizeWrite calls WriteHeader which
tries to memcpy the now-larger header table past the end of committed
memory, causing an access violation.

This is especially likely in splitscreen where two players exploring
at the same time can create multiple new RegionFile entries within a
single tick, quickly exhausting the page-alignment slack in the buffer
(yes i am working at splitscreen in the meanwhile :) )

The fix was deduced by tracing the crash callstack through the save
system: FileHeader, ConsoleSaveFileOriginal, the stream chain, and
the RegionFile/RegionFileCache layer. The root cause turned out to be
a gap between createFile (which grows the header table) and
MoveDataBeyond (the only place that grows the buffer), with
finalizeWrite sitting right in between unprotected.

The buffer growth check added here mirrors the exact same VirtualAlloc
pattern already used in MoveDataBeyond (line 484-497) and in the
constructor's decompression path (line 176-190), so it integrates
naturally with the existing code. Same types, same page rounding,
same error handling. The fast path (no new entries, buffer already big
enough) is a single DWORD comparison that doesn't get taken, so there
is zero overhead in the common case.

This is the right place for the fix because finalizeWrite is the sole
caller of WriteHeader, meaning every code path that writes the header
(closeHandle, PrepareForWrite, deleteFile, Flush) is now protected by
a single check point.

* Fix TextInput bugs and refactor direct edit handling into UIScene base class

The fake cursor character (_) used for SWFs without m_mcCaret was leaking
into saved sign and anvil text. This happened because setLabel() with
instant=false only updates the C++-side cache, deferring the Flash write
to the next control tick. Any getLabel() call before that tick reads the
old Flash value still containing the underscore. Fixed by passing
instant=true in confirmDirectEdit, cancelDirectEdit, and the Enter key
path inside tickDirectEdit, so the cleaned text hits Flash immediately.

Mouse hover over TextInput controls (world name, anvil name, seed field)
was not showing the yellow highlight border. The hover code used
IggyPlayerSetFocusRS which sets Iggy's internal dispatch focus but does
not trigger Flash's ChangeState callback, so no visual feedback appeared.
Buttons worked fine because Iggy draws its own focus ring on them, but
TextInput relies entirely on ChangeState(0) for the yellow border.
Switched to SetFocusToElement which goes through the Flash-side SetFocus
path, then immediately call setCaretVisible(false) to suppress the
blinking caret that comes with focus. No visual flicker since rendering
happens after both tickInput and scene tick complete.

While direct editing, mouse hover was able to move focus away to other
TextInputs on the same scene (most noticeably on the sign editor, where
hovering a different line would steal focus from the line being typed).
Added an isDirectEditBlocking() check in the hover path to skip focus
changes when any input on the scene is actively being edited.

The Done button in SignEntryMenu was unresponsive to mouse clicks during
direct editing. The root cause is execution order: handleMouseClick runs
before handleInput in the frame. The base handleMouseClick found the Done
button and called handlePress, but handlePress bailed out because of the
isDirectEditing guard. The click was marked consumed, so handleInput
never saw it. Fixed by overriding handleMouseClick in SignEntryMenu to
detect the Done button hit while editing and confirm + close directly.

Added click-outside-to-deselect for anvil and world name text inputs.
Both scenes previously required Enter to confirm the edit, which felt
wrong. Now clicking anywhere outside the text field bounds confirms the
current text, matching standard UI behavior.

The anvil menu now updates the item name in real time while typing, like
Java edition. Previously the name was only applied on Enter, so the
repair cost display was stale until confirmation.

The biggest change is structural: every scene that used direct editing
(AnvilMenu, CreateWorldMenu, SignEntryMenu, LaunchMoreOptionsMenu,
DebugCreateSchematic, DebugSetCamera) had its own copy of the same
boilerplate -- tickDirectEdit loops in tick(), click-outside hit testing
in handleMouseClick(), cooldown guard checks in handleInput/handlePress,
and result dispatch with switch/if chains. This was around 200 lines of
near-identical code scattered across 6 files, each with its own slight
variations and its own bugs waiting to happen.

Pulled all of it into UIScene with two virtual methods: getDirectEditInputs()
where scenes register their text inputs, and onDirectEditFinished() where
they handle confirmed/cancelled results. The base class tick() drives
tickDirectEdit on all registered inputs, handleMouseClick() does the
click-outside-to-deselect hit test generically using panel offsets, and
isDirectEditBlocking() replaces all the inline cooldown checks. Scenes
now just override those two methods and get everything for free.

Also removed the m_activeDirectEditControl enum tracking from the debug
scenes (DebugCreateSchematic, DebugSetCamera) since the base class
handles lifecycle tracking through the controls themselves.

* Remap scroll wheel to LEFT/RIGHT for horizontal controls

The scroll wheel was always remapped to UP/DOWN, which is fine for
vertical lists but useless on horizontal controls like sliders and
the texture pack selector.

Track whether the mouse is hovering a horizontal control during the
hover hit-test (new bool m_bMouseHoverHorizontalList, set for
eTexturePackList and eSlider). When the flag is set, handleKeyPress
emits LEFT/RIGHT instead of UP/DOWN for wheel events.

TexturePackList is also now part of the mouse hover system with
proper hit-testing, relative-coord SetTouchFocus and GetRealHeight
for accurate bounds.

* Guard setCaretVisible and setCaretIndex against null movie

tickDirectEdit calls into Iggy every tick without checking if the
movie is still valid, which crashes inside iggy_w64.dll when the
Flash movie gets unloaded or isn't ready yet.

* Fix creative inventory scroll for both mouse wheel and controller

The mouse scroll wheel was not working in the creative inventory at
all. UIController remaps wheel input from OTHER_STICK to UP/DOWN for
KBM users, but the base container menu handler consumed UP/DOWN for
grid navigation before it could reach the creative menu's page
scrolling logic in handleAdditionalKeyPress. Fixed by detecting
scroll wheel input on UP/DOWN in the base handler and forwarding it
as OTHER_STICK to handleAdditionalKeyPress instead.

Also fixed the controller right stick scrolling way too fast: it was
jumping TabSpec::rows (5) rows per tick at 100ms repeat rate, which
blew through the entire item list almost instantly. Reduced to 1 row
per tick so scrolling feels controlled on both input methods.
2026-03-06 12:38:12 -06:00

1088 lines
32 KiB
C++

#include "stdafx.h"
#include "StringHelpers.h"
#include "ConsoleSaveFileOriginal.h"
#include "File.h"
#include <xuiapp.h>
#include "compression.h"
#include "..\Minecraft.Client\Minecraft.h"
#include "..\Minecraft.Client\MinecraftServer.h"
#include "..\Minecraft.Client\ServerLevel.h"
#include "..\Minecraft.World\net.minecraft.world.level.h"
#include "..\Minecraft.World\LevelData.h"
#include "..\Minecraft.Client\Common\GameRules\LevelGenerationOptions.h"
#include "..\Minecraft.World\net.minecraft.world.level.chunk.storage.h"
#ifdef _XBOX
#define RESERVE_ALLOCATION MEM_RESERVE | MEM_LARGE_PAGES
#define COMMIT_ALLOCATION MEM_COMMIT | MEM_LARGE_PAGES
#else
#define RESERVE_ALLOCATION MEM_RESERVE
#define COMMIT_ALLOCATION MEM_COMMIT
#endif
unsigned int ConsoleSaveFileOriginal::pagesCommitted = 0;
void *ConsoleSaveFileOriginal::pvHeap = NULL;
ConsoleSaveFileOriginal::ConsoleSaveFileOriginal(const wstring &fileName, LPVOID pvSaveData /*= NULL*/, DWORD dFileSize /*= 0*/, bool forceCleanSave /*= false*/, ESavePlatform plat /*= SAVE_FILE_PLATFORM_LOCAL*/)
{
InitializeCriticalSectionAndSpinCount(&m_lock,5120);
// One time initialise of static stuff required for our storage
if( pvHeap == NULL )
{
// Reserve a chunk of 64MB of virtual address space for our saves, using 64KB pages.
// We'll only be committing these as required to grow the storage we need, which will
// the storage to grow without having to use realloc.
// AP - The Vita doesn't have virtual memory so a pretend system has been implemented in PSVitaStubs.cpp.
// All access to the memory must be done via the access function as the pointer returned from VirtualAlloc
// can't be used directly.
pvHeap = VirtualAlloc(NULL, MAX_PAGE_COUNT * CSF_PAGE_SIZE, RESERVE_ALLOCATION, PAGE_READWRITE );
}
pvSaveMem = pvHeap;
m_fileName = fileName;
DWORD fileSize = dFileSize;
// Load a save from the game rules
bool bLevelGenBaseSave = false;
LevelGenerationOptions *levelGen = app.getLevelGenerationOptions();
if( pvSaveData == NULL && levelGen != NULL && levelGen->requiresBaseSave())
{
pvSaveData = levelGen->getBaseSaveData(fileSize);
if(pvSaveData && fileSize != 0) bLevelGenBaseSave = true;
}
if( pvSaveData == NULL || fileSize == 0)
fileSize = StorageManager.GetSaveSize();
if( forceCleanSave )
fileSize = 0;
DWORD heapSize = max( fileSize, (DWORD)(1024 * 1024 * 2)); // 4J Stu - Our files are going to be bigger than 2MB so allocate high to start with
// Initially committ enough room to store headSize bytes (using CSF_PAGE_SIZE pages, so rounding up here). We should only ever have one save file at a time,
// and the pages should be decommitted in the dtor, so pages committed should always be zero at this point.
if( pagesCommitted != 0 )
{
#ifndef _CONTENT_PACKAGE
__debugbreak();
#endif
}
unsigned int pagesRequired = ( heapSize + (CSF_PAGE_SIZE - 1 ) ) / CSF_PAGE_SIZE;
void *pvRet = VirtualAlloc(pvHeap, pagesRequired * CSF_PAGE_SIZE, COMMIT_ALLOCATION, PAGE_READWRITE);
if( pvRet == NULL )
{
#ifndef _CONTENT_PACKAGE
// Out of physical memory
__debugbreak();
#endif
}
pagesCommitted = pagesRequired;
if( fileSize > 0)
{
bool AllocData = false;
if(pvSaveData != NULL)
{
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyTo(pvSaveMem, pvSaveData, fileSize);
#else
memcpy(pvSaveMem, pvSaveData, fileSize);
if(bLevelGenBaseSave)
{
levelGen->deleteBaseSaveData();
}
#endif
}
else
{
unsigned int storageLength;
#ifdef __PSVITA__
// create a buffer to hold the compressed data
pvSaveData = malloc(fileSize);
AllocData = true;
StorageManager.GetSaveData( pvSaveData, &storageLength );
#else
StorageManager.GetSaveData( pvSaveMem, &storageLength );
#endif
#ifdef __PS3__
StorageManager.FreeSaveData();
#endif
app.DebugPrintf("Filesize - %d, Adjusted size - %d\n",fileSize,storageLength);
fileSize = storageLength;
}
#ifdef __PSVITA__
if(plat == SAVE_FILE_PLATFORM_PSVITA)
{
// AP - decompress via the access function. This uses a special RLE format
VirtualDecompress((unsigned char *)pvSaveData+8, fileSize-8 );
if( AllocData )
{
// free the compressed data buffer if required
free( pvSaveData );
}
else if(bLevelGenBaseSave)
{
levelGen->deleteBaseSaveData();
}
}
else
#endif
{
#ifdef __PSVITA__
void* pvSourceData = pvSaveData;
#else
void* pvSourceData = pvSaveMem;
#endif
int compressed = *(int*)pvSourceData;
if( compressed == 0 )
{
unsigned int decompSize = *( (int*)pvSourceData+1 );
if(isLocalEndianDifferent(plat)) System::ReverseULONG(&decompSize);
// An invalid save, so clear the memory and start from scratch
if(decompSize == 0)
{
// 4J Stu - Saves created between 2/12/2011 and 7/12/2011 will have this problem
app.DebugPrintf("Invalid save data format\n");
ZeroMemory( pvSourceData, fileSize );
// Clear the first 8 bytes that reference the header
header.WriteHeader( pvSourceData );
}
else
{
unsigned char *buf = new unsigned char[decompSize];
#ifndef _XBOX
if(plat == SAVE_FILE_PLATFORM_PSVITA)
{
Compression::VitaVirtualDecompress(buf, &decompSize, (unsigned char *)pvSourceData+8, fileSize-8 );
}
else
#endif
{
Compression::getCompression()->SetDecompressionType(plat); // if this save is from another platform, set the correct decompression type
Compression::getCompression()->Decompress(buf, &decompSize, (unsigned char *)pvSourceData+8, fileSize-8 );
Compression::getCompression()->SetDecompressionType(SAVE_FILE_PLATFORM_LOCAL); // and then set the decompression back to the local machine's standard type
}
// Only ReAlloc if we need to (we might already have enough) and align to 512 byte boundaries
DWORD currentHeapSize = pagesCommitted * CSF_PAGE_SIZE;
DWORD desiredSize = decompSize;
if( desiredSize > currentHeapSize )
{
unsigned int pagesRequired = ( desiredSize + (CSF_PAGE_SIZE - 1 ) ) / CSF_PAGE_SIZE;
void *pvRet = VirtualAlloc(pvHeap, pagesRequired * CSF_PAGE_SIZE, COMMIT_ALLOCATION, PAGE_READWRITE);
if( pvRet == NULL )
{
// Out of physical memory
__debugbreak();
}
pagesCommitted = pagesRequired;
}
#ifdef __PSVITA__
VirtualCopyTo(pvSaveMem, buf, decompSize);
#else
memcpy(pvSaveMem, buf, decompSize);
#endif
delete[] buf;
}
}
}
header.ReadHeader( pvSaveMem, plat );
}
else
{
// Clear the first 8 bytes that reference the header
header.WriteHeader( pvSaveMem );
}
}
ConsoleSaveFileOriginal::~ConsoleSaveFileOriginal()
{
VirtualFree( pvHeap, MAX_PAGE_COUNT * CSF_PAGE_SIZE, MEM_DECOMMIT );
pagesCommitted = 0;
// Make sure we don't have any thumbnail data still waiting round - we can't need it now we've destroyed the save file anyway
#if defined _XBOX
app.GetSaveThumbnail(NULL,NULL);
#elif defined __PS3__
app.GetSaveThumbnail(NULL,NULL, NULL,NULL);
#endif
DeleteCriticalSection(&m_lock);
}
// Add the file to our table of internal files if not already there
// Open our actual save file ready for reading/writing, and the set the file pointer to the start of this file
FileEntry *ConsoleSaveFileOriginal::createFile( const ConsoleSavePath &fileName )
{
LockSaveAccess();
FileEntry *file = header.AddFile( fileName.getName() );
ReleaseSaveAccess();
return file;
}
void ConsoleSaveFileOriginal::deleteFile( FileEntry *file )
{
if( file == NULL ) return;
LockSaveAccess();
DWORD numberOfBytesRead = 0;
DWORD numberOfBytesWritten = 0;
const int bufferSize = 4096;
int amountToRead = bufferSize;
byte buffer[bufferSize];
DWORD bufferDataSize = 0;
char *readStartOffset = (char *)pvSaveMem + file->data.startOffset + file->getFileSize();
char *writeStartOffset = (char *)pvSaveMem + file->data.startOffset;
char *endOfDataOffset = (char *)pvSaveMem + header.GetStartOfNextData();
while(true)
{
// Fill buffer from file
if( readStartOffset + bufferSize > endOfDataOffset )
{
amountToRead = (int)(endOfDataOffset - readStartOffset);
}
else
{
amountToRead = bufferSize;
}
if( amountToRead == 0 )
break;
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyFrom( buffer, readStartOffset, amountToRead );
#else
memcpy( buffer, readStartOffset, amountToRead );
#endif
numberOfBytesRead = amountToRead;
bufferDataSize = amountToRead;
readStartOffset += numberOfBytesRead;
// Write buffer to file
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyTo( (void *)writeStartOffset, buffer, bufferDataSize );
#else
memcpy( (void *)writeStartOffset, buffer, bufferDataSize );
#endif
numberOfBytesWritten = bufferDataSize;
writeStartOffset += numberOfBytesWritten;
}
header.RemoveFile( file );
finalizeWrite();
ReleaseSaveAccess();
}
void ConsoleSaveFileOriginal::setFilePointer(FileEntry *file,LONG lDistanceToMove,PLONG lpDistanceToMoveHigh,DWORD dwMoveMethod)
{
LockSaveAccess();
file->currentFilePointer = file->data.startOffset + lDistanceToMove;
if( dwMoveMethod == FILE_END)
{
file->currentFilePointer += file->getFileSize();
}
ReleaseSaveAccess();
}
// If this file needs to grow, move the data after along
void ConsoleSaveFileOriginal::PrepareForWrite( FileEntry *file, DWORD nNumberOfBytesToWrite )
{
int bytesToGrowBy = ( (file->currentFilePointer - file->data.startOffset) + nNumberOfBytesToWrite) - file->getFileSize();
if( bytesToGrowBy <= 0 )
return;
// 4J Stu - Not forcing a minimum size, it is up to the caller to write data in sensible amounts
// This lets us keep some of the smaller files small
//if( bytesToGrowBy < 1024 )
// bytesToGrowBy = 1024;
// Move all the data beyond us
MoveDataBeyond(file, bytesToGrowBy);
// Update our length
if( file->data.length < 0 )
file->data.length = 0;
file->data.length += bytesToGrowBy;
// Write the header with the updated data
finalizeWrite();
}
BOOL ConsoleSaveFileOriginal::writeFile(FileEntry *file,LPCVOID lpBuffer, DWORD nNumberOfBytesToWrite, LPDWORD lpNumberOfBytesWritten)
{
assert( pvSaveMem != NULL );
if( pvSaveMem == NULL )
{
return 0;
}
LockSaveAccess();
PrepareForWrite( file, nNumberOfBytesToWrite );
char *writeStartOffset = (char *)pvSaveMem + file->currentFilePointer;
//printf("Write: pvSaveMem = %0xd, currentFilePointer = %d, writeStartOffset = %0xd\n", pvSaveMem, file->currentFilePointer, writeStartOffset);
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyTo((void *)writeStartOffset, (void*)lpBuffer, nNumberOfBytesToWrite);
#else
memcpy( (void *)writeStartOffset, lpBuffer, nNumberOfBytesToWrite );
#endif
*lpNumberOfBytesWritten = nNumberOfBytesToWrite;
if(file->data.length < 0)
file->data.length = 0;
file->currentFilePointer += *lpNumberOfBytesWritten;
//wprintf(L"Wrote %d bytes to %s, new file pointer is %I64d\n", *lpNumberOfBytesWritten, file->data.filename, file->currentFilePointer);
file->updateLastModifiedTime();
ReleaseSaveAccess();
return 1;
}
BOOL ConsoleSaveFileOriginal::zeroFile(FileEntry *file, DWORD nNumberOfBytesToWrite, LPDWORD lpNumberOfBytesWritten)
{
assert( pvSaveMem != NULL );
if( pvSaveMem == NULL )
{
return 0;
}
LockSaveAccess();
PrepareForWrite( file, nNumberOfBytesToWrite );
char *writeStartOffset = (char *)pvSaveMem + file->currentFilePointer;
//printf("Write: pvSaveMem = %0xd, currentFilePointer = %d, writeStartOffset = %0xd\n", pvSaveMem, file->currentFilePointer, writeStartOffset);
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualMemset( (void *)writeStartOffset, 0, nNumberOfBytesToWrite );
#else
memset( (void *)writeStartOffset, 0, nNumberOfBytesToWrite );
#endif
*lpNumberOfBytesWritten = nNumberOfBytesToWrite;
if(file->data.length < 0)
file->data.length = 0;
file->currentFilePointer += *lpNumberOfBytesWritten;
//wprintf(L"Wrote %d bytes to %s, new file pointer is %I64d\n", *lpNumberOfBytesWritten, file->data.filename, file->currentFilePointer);
file->updateLastModifiedTime();
ReleaseSaveAccess();
return 1;
}
BOOL ConsoleSaveFileOriginal::readFile( FileEntry *file, LPVOID lpBuffer, DWORD nNumberOfBytesToRead, LPDWORD lpNumberOfBytesRead)
{
DWORD actualBytesToRead;
assert( pvSaveMem != NULL );
if( pvSaveMem == NULL )
{
return 0;
}
LockSaveAccess();
char *readStartOffset = (char *)pvSaveMem + file->currentFilePointer;
//printf("Read: pvSaveMem = %0xd, currentFilePointer = %d, readStartOffset = %0xd\n", pvSaveMem, file->currentFilePointer, readStartOffset);
assert( nNumberOfBytesToRead <= file->getFileSize() );
actualBytesToRead = nNumberOfBytesToRead;
if( file->currentFilePointer + nNumberOfBytesToRead > file->data.startOffset + file->data.length )
{
actualBytesToRead = (file->data.startOffset + file->data.length) - file->currentFilePointer;
}
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyFrom( lpBuffer, readStartOffset, actualBytesToRead );
#else
memcpy( lpBuffer, readStartOffset, actualBytesToRead );
#endif
*lpNumberOfBytesRead = actualBytesToRead;
file->currentFilePointer += *lpNumberOfBytesRead;
//wprintf(L"Read %d bytes from %s, new file pointer is %I64d\n", *lpNumberOfBytesRead, file->data.filename, file->currentFilePointer);
ReleaseSaveAccess();
return 1;
}
BOOL ConsoleSaveFileOriginal::closeHandle( FileEntry *file )
{
LockSaveAccess();
finalizeWrite();
ReleaseSaveAccess();
return TRUE;
}
void ConsoleSaveFileOriginal::finalizeWrite()
{
LockSaveAccess();
// Ensure buffer is large enough for the full file including header table.
// New file entries (e.g. from RegionFile creation) increase GetFileSize()
// without triggering MoveDataBeyond, so the committed pages may be short.
DWORD currentHeapSize = pagesCommitted * CSF_PAGE_SIZE;
DWORD desiredSize = header.GetFileSize();
if( desiredSize > currentHeapSize )
{
unsigned int pagesRequired = ( desiredSize + (CSF_PAGE_SIZE - 1 ) ) / CSF_PAGE_SIZE;
void *pvRet = VirtualAlloc(pvHeap, pagesRequired * CSF_PAGE_SIZE, COMMIT_ALLOCATION, PAGE_READWRITE);
if( pvRet == NULL )
{
__debugbreak();
}
pagesCommitted = pagesRequired;
}
header.WriteHeader( pvSaveMem );
ReleaseSaveAccess();
}
void ConsoleSaveFileOriginal::MoveDataBeyond(FileEntry *file, DWORD nNumberOfBytesToWrite)
{
DWORD numberOfBytesRead = 0;
DWORD numberOfBytesWritten = 0;
const DWORD bufferSize = 4096;
DWORD amountToRead = bufferSize;
//assert( nNumberOfBytesToWrite <= bufferSize );
static byte buffer1[bufferSize];
static byte buffer2[bufferSize];
DWORD buffer1Size = 0;
DWORD buffer2Size = 0;
// Only ReAlloc if we need to (we might already have enough) and align to 512 byte boundaries
DWORD currentHeapSize = pagesCommitted * CSF_PAGE_SIZE;
DWORD desiredSize = header.GetFileSize() + nNumberOfBytesToWrite;
if( desiredSize > currentHeapSize )
{
unsigned int pagesRequired = ( desiredSize + (CSF_PAGE_SIZE - 1 ) ) / CSF_PAGE_SIZE;
void *pvRet = VirtualAlloc(pvHeap, pagesRequired * CSF_PAGE_SIZE, COMMIT_ALLOCATION, PAGE_READWRITE);
if( pvRet == NULL )
{
// Out of physical memory
__debugbreak();
}
pagesCommitted = pagesRequired;
}
// This is the start of where we want the space to be, and the start of the data that we need to move
char *spaceStartOffset = (char *)pvSaveMem + file->data.startOffset + file->getFileSize();
// This is the end of where we want the space to be
char *spaceEndOffset = spaceStartOffset + nNumberOfBytesToWrite;
// This is the current end of the data that we want to move
char *beginEndOfDataOffset = (char *)pvSaveMem + header.GetStartOfNextData();
// This is where the end of the data is going to be
char *finishEndOfDataOffset = beginEndOfDataOffset + nNumberOfBytesToWrite;
// This is where we are going to read from (with the amount we want to read subtracted before we read)
char *readStartOffset = beginEndOfDataOffset;
// This is where we can safely write to (with the amount we want write subtracted before we write)
char *writeStartOffset = finishEndOfDataOffset;
//printf("\n******* MOVEDATABEYOND *******\n");
//printf("Space start: %d, space end: %d\n", spaceStartOffset - (char *)pvSaveMem, spaceEndOffset - (char *)pvSaveMem);
//printf("Current end of data: %d, new end of data: %d\n", beginEndOfDataOffset - (char *)pvSaveMem, finishEndOfDataOffset - (char *)pvSaveMem);
// Optimisation for things that are being moved in whole region file sector (4K chunks). We could generalise this a bit more but seems safest at the moment to identify this particular type
// of move and code explicitly for this situation
if( ( nNumberOfBytesToWrite & 4095 ) == 0 )
{
if( nNumberOfBytesToWrite > 0 )
{
// Get addresses for start & end of the region we are copying from as uintptr_t, for easier maths
uintptr_t uiFromStart = (uintptr_t)spaceStartOffset;
uintptr_t uiFromEnd = (uintptr_t)beginEndOfDataOffset;
// Round both of these values to get 4096 byte chunks that we will need to at least partially move
uintptr_t uiFromStartChunk = uiFromStart & ~((uintptr_t)4095);
uintptr_t uiFromEndChunk = (uiFromEnd - 1 ) & ~((uintptr_t)4095);
// Loop through all the affected source 4096 chunks, going backwards so we don't overwrite anything we'll need in the future
for( uintptr_t uiCurrentChunk = uiFromEndChunk; uiCurrentChunk >= uiFromStartChunk; uiCurrentChunk -= 4096 )
{
// Establish chunk we'll need to copy
uintptr_t uiCopyStart = uiCurrentChunk;
uintptr_t uiCopyEnd = uiCurrentChunk + 4096;
// Clamp chunk to the bounds of the full region we are trying to copy
if( uiCopyStart < uiFromStart )
{
// Needs to be clampged against the start of our region
uiCopyStart = uiFromStart;
}
if ( uiCopyEnd > uiFromEnd )
{
// Needs to be clamped to the end of our region
uiCopyEnd = uiFromEnd;
}
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualMove( (void *)(uiCopyStart + nNumberOfBytesToWrite), ( void *)uiCopyStart, uiCopyEnd - uiCopyStart);
#else
XMemCpy( (void *)(uiCopyStart + nNumberOfBytesToWrite), ( void *)uiCopyStart, uiCopyEnd - uiCopyStart );
#endif
}
}
}
else
{
while(true)
{
// Copy buffer 1 to buffer 2
memcpy( buffer2, buffer1, buffer1Size);
buffer2Size = buffer1Size;
// Fill buffer 1 from file
if( (readStartOffset - bufferSize) < spaceStartOffset )
{
amountToRead = (DWORD)(readStartOffset - spaceStartOffset);
}
else
{
amountToRead = bufferSize;
}
// Push the read point back by the amount of bytes that we are going to read
readStartOffset -= amountToRead;
//printf("About to read %u from %d\n", amountToRead, readStartOffset - (char *)pvSaveMem );
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyFrom(buffer1, readStartOffset, amountToRead);
#else
memcpy( buffer1, readStartOffset, amountToRead );
#endif
numberOfBytesRead = amountToRead;
buffer1Size = amountToRead;
// Move back the write pointer by the amount of bytes we are going to write
writeStartOffset -= buffer2Size;
// Write buffer 2 to file
if( (writeStartOffset + buffer2Size) <= finishEndOfDataOffset)
{
//printf("About to write %u to %d\n", buffer2Size, writeStartOffset - (char *)pvSaveMem );
#ifdef __PSVITA__
// AP - use this to access the virtual memory
VirtualCopyTo((void *)writeStartOffset, buffer2, buffer2Size);
#else
memcpy( (void *)writeStartOffset, buffer2, buffer2Size );
#endif
numberOfBytesWritten = buffer2Size;
}
else
{
assert((writeStartOffset + buffer2Size) <= finishEndOfDataOffset);
numberOfBytesWritten = 0;
}
if( numberOfBytesRead == 0 )
{
//printf("\n************** MOVE COMPLETED *************** \n\n");
assert( writeStartOffset == spaceEndOffset );
break;
}
}
}
header.AdjustStartOffsets( file, nNumberOfBytesToWrite );
}
bool ConsoleSaveFileOriginal::doesFileExist(ConsoleSavePath file)
{
LockSaveAccess();
bool exists = header.fileExists( file.getName() );
ReleaseSaveAccess();
return exists;
}
void ConsoleSaveFileOriginal::Flush(bool autosave, bool updateThumbnail )
{
LockSaveAccess();
#ifdef __PSVITA__
// On Vita we've had problems with saves being corrupted on rapid save/save-exiting so seems prudent to wait for idle
while( StorageManager.GetSaveState() != C4JStorage::ESaveGame_Idle )
{
app.DebugPrintf("Flush wait\n");
Sleep(10);
}
#endif
finalizeWrite();
// Get the frequency of the timer
LARGE_INTEGER qwTicksPerSec, qwTime, qwNewTime, qwDeltaTime;
float fElapsedTime = 0.0f;
QueryPerformanceFrequency( &qwTicksPerSec );
float fSecsPerTick = 1.0f / (float)qwTicksPerSec.QuadPart;
unsigned int fileSize = header.GetFileSize();
// Assume that the compression will make it smaller so initially attempt to allocate the current file size
// We add 4 bytes to the start so that we can signal compressed data
// And another 4 bytes to store the decompressed data size
unsigned int compLength = fileSize+8;
// 4J Stu - Added TU-1 interim
#ifdef __PS3__
// On PS3, don't compress the data as we can't really afford the extra memory this requires for the output buffer. Instead we'll be writing
// directly from the save data.
StorageManager.SetSaveData(pvSaveMem,fileSize);
byte *compData = (byte *)pvSaveMem;
#else
// Attempt to allocate the required memory
// We do not own this, it belongs to the StorageManager
byte *compData = (byte *)StorageManager.AllocateSaveData( compLength );
#ifdef __PSVITA__
// AP - make sure we always allocate just what is needed so it will only SAVE what is needed.
// If we don't do this the StorageManager will save a file of uncompressed size unnecessarily.
compData = NULL;
#endif
// If we failed to allocate then compData will be NULL
// Pre-calculate the compressed data size so that we can attempt to allocate a smaller buffer
if(compData == NULL)
{
// Length should be 0 here so that the compression call knows that we want to know the length back
compLength = 0;
// Pre-calculate the buffer size required for the compressed data
PIXBeginNamedEvent(0,"Pre-calc save compression");
// Save the start time
QueryPerformanceCounter( &qwTime );
#ifdef __PSVITA__
// AP - get the compressed size via the access function. This uses a special RLE format
VirtualCompress(NULL,&compLength,pvSaveMem,fileSize);
#else
Compression::getCompression()->Compress(NULL,&compLength,pvSaveMem,fileSize);
#endif
QueryPerformanceCounter( &qwNewTime );
qwDeltaTime.QuadPart = qwNewTime.QuadPart - qwTime.QuadPart;
fElapsedTime = fSecsPerTick * ((FLOAT)(qwDeltaTime.QuadPart));
app.DebugPrintf("Check buffer size: Elapsed time %f\n", fElapsedTime);
PIXEndNamedEvent();
// We add 4 bytes to the start so that we can signal compressed data
// And another 4 bytes to store the decompressed data size
compLength = compLength+8;
// Attempt to allocate the required memory
compData = (byte *)StorageManager.AllocateSaveData( compLength );
}
#endif
if(compData != NULL)
{
// No compression on PS3 - see comment above
#ifndef __PS3__
// Re-compress all save data before we save it to disk
PIXBeginNamedEvent(0,"Actual save compression");
// Save the start time
QueryPerformanceCounter( &qwTime );
#ifdef __PSVITA__
// AP - compress via the access function. This uses a special RLE format
VirtualCompress(compData+8,&compLength,pvSaveMem,fileSize);
#else
Compression::getCompression()->Compress(compData+8,&compLength,pvSaveMem,fileSize);
#endif
QueryPerformanceCounter( &qwNewTime );
qwDeltaTime.QuadPart = qwNewTime.QuadPart - qwTime.QuadPart;
fElapsedTime = fSecsPerTick * ((FLOAT)(qwDeltaTime.QuadPart));
app.DebugPrintf("Compress: Elapsed time %f\n", fElapsedTime);
PIXEndNamedEvent();
ZeroMemory(compData,8);
int saveVer = 0;
memcpy( compData, &saveVer, sizeof(int) );
memcpy( compData+4, &fileSize, sizeof(int) );
app.DebugPrintf("Save data compressed from %d to %d\n", fileSize, compLength);
#endif
PBYTE pbThumbnailData=NULL;
DWORD dwThumbnailDataSize=0;
PBYTE pbDataSaveImage=NULL;
DWORD dwDataSizeSaveImage=0;
#if ( defined _XBOX || defined _DURANGO || defined _WINDOWS64 )
app.GetSaveThumbnail(&pbThumbnailData,&dwThumbnailDataSize);
#elif ( defined __PS3__ || defined __ORBIS__ || defined __PSVITA__ )
app.GetSaveThumbnail(&pbThumbnailData,&dwThumbnailDataSize,&pbDataSaveImage,&dwDataSizeSaveImage);
#endif
BYTE bTextMetadata[88];
ZeroMemory(bTextMetadata,88);
__int64 seed = 0;
bool hasSeed = false;
if(MinecraftServer::getInstance()!= NULL && MinecraftServer::getInstance()->levels[0]!=NULL)
{
seed = MinecraftServer::getInstance()->levels[0]->getLevelData()->getSeed();
hasSeed = true;
}
int iTextMetadataBytes = app.CreateImageTextData(bTextMetadata, seed, hasSeed, app.GetGameHostOption(eGameHostOption_All), Minecraft::GetInstance()->getCurrentTexturePackId());
INT saveOrCheckpointId = 0;
bool validSave = StorageManager.GetSaveUniqueNumber(&saveOrCheckpointId);
TelemetryManager->RecordLevelSaveOrCheckpoint(ProfileManager.GetPrimaryPad(), saveOrCheckpointId, compLength+8);
#ifdef _XBOX
StorageManager.SaveSaveData( compLength+8,pbThumbnailData,dwThumbnailDataSize,bTextMetadata,iTextMetadataBytes );
delete [] pbThumbnailData;
#ifndef _CONTENT_PACKAGE
if( app.DebugSettingsOn())
{
if(app.GetWriteSavesToFolderEnabled() )
{
DebugFlushToFile(compData, compLength+8);
}
}
#endif
}
else
{
// We have failed to allocate the memory required to save this file. Now what?
}
ReleaseSaveAccess();
#elif (defined __PS3__ || defined __ORBIS__ || defined __PSVITA__ || defined _DURANGO || defined _WINDOWS64)
// set the icon and save image
StorageManager.SetSaveImages(pbThumbnailData,dwThumbnailDataSize,pbDataSaveImage,dwDataSizeSaveImage,bTextMetadata,iTextMetadataBytes);
app.DebugPrintf("Save thumbnail size %d\n",dwThumbnailDataSize);
// save the data
StorageManager.SaveSaveData( &ConsoleSaveFileOriginal::SaveSaveDataCallback, this );
#ifndef _CONTENT_PACKAGE
if( app.DebugSettingsOn())
{
if(app.GetWriteSavesToFolderEnabled() )
{
DebugFlushToFile(compData, compLength+8);
}
}
#endif
ReleaseSaveAccess();
}
#else
}
ReleaseSaveAccess();
#endif
}
#if (defined __PS3__ || defined __ORBIS__ || defined __PSVITA__ || defined _DURANGO || defined _WINDOWS64)
int ConsoleSaveFileOriginal::SaveSaveDataCallback(LPVOID lpParam,bool bRes)
{
ConsoleSaveFile *pClass=(ConsoleSaveFile *)lpParam;
return 0;
}
#endif
#ifndef _CONTENT_PACKAGE
void ConsoleSaveFileOriginal::DebugFlushToFile(void *compressedData /*= NULL*/, unsigned int compressedDataSize /*= 0*/)
{
LockSaveAccess();
finalizeWrite();
unsigned int fileSize = header.GetFileSize();
DWORD numberOfBytesWritten = 0;
#ifdef _XBOX
File targetFileDir(L"GAME:\\Saves");
#else
File targetFileDir(L"Saves");
#endif // _XBOX
if(!targetFileDir.exists())
targetFileDir.mkdir();
wchar_t *fileName = new wchar_t[XCONTENT_MAX_FILENAME_LENGTH+1];
SYSTEMTIME t;
GetSystemTime( &t );
//14 chars for the digits
//11 chars for the separators + suffix
//25 chars total
wstring cutFileName = m_fileName;
if(m_fileName.length() > XCONTENT_MAX_FILENAME_LENGTH - 25)
{
cutFileName = m_fileName.substr(0, XCONTENT_MAX_FILENAME_LENGTH - 25);
}
swprintf(fileName, XCONTENT_MAX_FILENAME_LENGTH+1, L"\\v%04d-%ls%02d.%02d.%02d.%02d.%02d.mcs",VER_PRODUCTBUILD,cutFileName.c_str(), t.wMonth, t.wDay, t.wHour, t.wMinute, t.wSecond);
#ifdef _UNICODE
wstring wtemp = targetFileDir.getPath() + wstring(fileName);
LPCWSTR lpFileName = wtemp.c_str();
#else
LPCSTR lpFileName = wstringtofilename( targetFileDir.getPath() + wstring(fileName) );
#endif
#ifndef __PSVITA__
HANDLE hSaveFile = CreateFile( lpFileName, GENERIC_WRITE, 0, NULL, OPEN_ALWAYS, FILE_FLAG_RANDOM_ACCESS, NULL);
#endif
if(compressedData != NULL && compressedDataSize > 0)
{
#ifdef __PSVITA__
// AP - Use the access function to save
VirtualWriteFile( lpFileName, compressedData, compressedDataSize, &numberOfBytesWritten, NULL);
#else
WriteFile( hSaveFile,compressedData,compressedDataSize,&numberOfBytesWritten,NULL);
#endif
assert(numberOfBytesWritten == compressedDataSize);
}
else
{
#ifdef __PSVITA__
// AP - Use the access function to save
VirtualWriteFile( lpFileName, compressedData, compressedDataSize, &numberOfBytesWritten, NULL);
#else
WriteFile(hSaveFile,pvSaveMem,fileSize,&numberOfBytesWritten,NULL);
#endif
assert(numberOfBytesWritten == fileSize);
}
#ifndef __PSVITA__
CloseHandle( hSaveFile );
#endif
delete[] fileName;
ReleaseSaveAccess();
}
#endif
unsigned int ConsoleSaveFileOriginal::getSizeOnDisk()
{
return header.GetFileSize();
}
wstring ConsoleSaveFileOriginal::getFilename()
{
return m_fileName;
}
vector<FileEntry *> *ConsoleSaveFileOriginal::getFilesWithPrefix(const wstring &prefix)
{
return header.getFilesWithPrefix( prefix );
}
vector<FileEntry *> *ConsoleSaveFileOriginal::getRegionFilesByDimension(unsigned int dimensionIndex)
{
return NULL;
}
#if defined(__PS3__) || defined(__ORBIS__) || defined(__PSVITA__)
wstring ConsoleSaveFileOriginal::getPlayerDataFilenameForLoad(const PlayerUID& pUID)
{
return header.getPlayerDataFilenameForLoad( pUID );
}
wstring ConsoleSaveFileOriginal::getPlayerDataFilenameForSave(const PlayerUID& pUID)
{
return header.getPlayerDataFilenameForSave( pUID );
}
vector<FileEntry *> *ConsoleSaveFileOriginal::getValidPlayerDatFiles()
{
return header.getValidPlayerDatFiles();
}
#endif
int ConsoleSaveFileOriginal::getSaveVersion()
{
return header.getSaveVersion();
}
int ConsoleSaveFileOriginal::getOriginalSaveVersion()
{
return header.getOriginalSaveVersion();
}
void ConsoleSaveFileOriginal::LockSaveAccess()
{
EnterCriticalSection(&m_lock);
}
void ConsoleSaveFileOriginal::ReleaseSaveAccess()
{
LeaveCriticalSection(&m_lock);
}
ESavePlatform ConsoleSaveFileOriginal::getSavePlatform()
{
return header.getSavePlatform();
}
bool ConsoleSaveFileOriginal::isSaveEndianDifferent()
{
return header.isSaveEndianDifferent();
}
void ConsoleSaveFileOriginal::setLocalPlatform()
{
header.setLocalPlatform();
}
void ConsoleSaveFileOriginal::setPlatform(ESavePlatform plat)
{
header.setPlatform(plat);
}
ByteOrder ConsoleSaveFileOriginal::getSaveEndian()
{
return header.getSaveEndian();
}
ByteOrder ConsoleSaveFileOriginal::getLocalEndian()
{
return header.getLocalEndian();
}
void ConsoleSaveFileOriginal::setEndian(ByteOrder endian)
{
header.setEndian(endian);
}
bool ConsoleSaveFileOriginal::isLocalEndianDifferent( ESavePlatform plat )
{
return getLocalEndian() != header.getEndian(plat);
}
void ConsoleSaveFileOriginal::ConvertRegionFile(File sourceFile)
{
DWORD numberOfBytesWritten = 0;
DWORD numberOfBytesRead = 0;
RegionFile sourceRegionFile(this, &sourceFile);
for(unsigned int x = 0; x < 32; ++x)
{
for(unsigned int z = 0; z < 32; ++z)
{
DataInputStream *dis = sourceRegionFile.getChunkDataInputStream(x,z);
if(dis)
{
byteArray inData(1024*1024);
int read = dis->read(inData);
dis->close();
dis->deleteChildStream();
delete dis;
DataOutputStream *dos = sourceRegionFile.getChunkDataOutputStream(x,z);
dos->write(inData, 0, read);
dos->close();
dos->deleteChildStream();
delete dos;
delete inData.data;
}
}
}
sourceRegionFile.writeAllOffsets(); // saves all the endian swapped offsets back out to the file (not all of these are written in the above processing).
}
void ConsoleSaveFileOriginal::ConvertToLocalPlatform()
{
if(getSavePlatform() == SAVE_FILE_PLATFORM_LOCAL)
{
// already in the correct format
return;
}
// convert each of the region files to the local platform
vector<FileEntry *> *allFilesInSave = getFilesWithPrefix(wstring(L""));
if ( allFilesInSave )
{
for (FileEntry* fe : *allFilesInSave)
{
wstring fName(fe->data.filename);
wstring suffix(L".mcr");
if (fName.compare(fName.length() - suffix.length(), suffix.length(), suffix) == 0)
{
app.DebugPrintf("Processing a region file: %ls\n", fName.c_str());
ConvertRegionFile(File(fe->data.filename));
}
else
{
app.DebugPrintf("%ls is not a region file, ignoring\n", fName.c_str());
}
}
}
setLocalPlatform(); // set the platform of this save to the local platform, now that it's been coverted
}
void *ConsoleSaveFileOriginal::getWritePointer(FileEntry *file)
{
return (char *)pvSaveMem + file->currentFilePointer;;
}