mirror of
https://github.com/lightpanda-io/browser.git
synced 2025-12-15 15:58:57 +00:00
initial with full chain allocations
This commit is contained in:
@@ -17,6 +17,7 @@
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// along with this program. If not, see <https://www.gnu.org/licenses/>.
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const std = @import("std");
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const assert = std.debug.assert;
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const builtin = @import("builtin");
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const reflect = @import("reflect.zig");
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const IS_DEBUG = builtin.mode == .Debug;
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@@ -35,21 +36,113 @@ const EventTarget = @import("webapi/EventTarget.zig");
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const XMLHttpRequestEventTarget = @import("webapi/net/XMLHttpRequestEventTarget.zig");
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const Blob = @import("webapi/Blob.zig");
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const MemoryPoolAligned = std.heap.MemoryPoolAligned;
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// 1. Generally, wrapping an ArenaAllocator within an ArenaAllocator doesn't make
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// much sense. But wrapping a MemoryPool within an Arena does. Specifically, by
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// doing so, we solve a major issue with Arena: freed memory can be re-used [for
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// more of the same size].
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// 2. Normally, you have a MemoryPool(T) where T is a `User` or something. Then
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// the MemoryPool can be used for creating users. But in reality, that memory
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// created by that pool could be re-used for anything with the same size (or less)
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// than a User (and a compatible alignment). So that's what we do - we have size
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// (and alignment) based pools.
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const Factory = @This();
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_page: *Page,
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_slab: SlabAllocator,
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fn PrototypeChain(comptime types: []const type) type {
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return struct {
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const Self = @This();
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memory: []u8,
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fn totalSize() usize {
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var size: usize = 0;
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for (types) |T| {
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size = std.mem.alignForward(usize, size, @alignOf(T));
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size += @sizeOf(T);
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}
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return size;
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}
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fn maxAlign() std.mem.Alignment {
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var alignment: std.mem.Alignment = .@"1";
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for (types) |T| {
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alignment = std.mem.Alignment.max(alignment, std.mem.Alignment.of(T));
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}
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return alignment;
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}
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fn getType(comptime index: usize) type {
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return types[index];
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}
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fn allocate(allocator: std.mem.Allocator) !Self {
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const size = comptime Self.totalSize();
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const alignment = comptime Self.maxAlign();
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const memory = try allocator.alignedAlloc(u8, alignment, size);
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return .{ .memory = memory };
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}
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fn get(self: *const Self, comptime index: usize) *getType(index) {
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var offset: usize = 0;
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inline for (types, 0..) |T, i| {
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offset = std.mem.alignForward(usize, offset, @alignOf(T));
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if (i == index) {
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return @as(*T, @ptrCast(@alignCast(self.memory.ptr + offset)));
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}
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offset += @sizeOf(T);
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}
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unreachable;
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}
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fn set(self: *const Self, comptime index: usize, value: getType(index)) void {
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const ptr = self.get(index);
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ptr.* = value;
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}
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fn setRoot(self: *const Self, comptime T: type) void {
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const ptr = self.get(0);
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ptr.* = .{ ._type = unionInit(T, self.get(1)) };
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}
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fn setMiddle(self: *const Self, comptime index: usize, comptime T: type) void {
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assert(index >= 1);
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assert(index < types.len);
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const ptr = self.get(index);
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ptr.* = .{ ._proto = self.get(index - 1), ._type = unionInit(T, self.get(index + 1)) };
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}
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fn setMiddleWithValue(self: *const Self, comptime index: usize, comptime T: type, value: anytype) void {
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assert(index >= 1);
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const ptr = self.get(index);
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ptr.* = .{ ._proto = self.get(index - 1), ._type = unionInit(T, value) };
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}
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fn setLeaf(self: *const Self, comptime index: usize, value: anytype) void {
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assert(index >= 1);
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const ptr = self.get(index);
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ptr.* = value;
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ptr._proto = self.get(index - 1);
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}
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};
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}
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fn AutoPrototypeChain(comptime types: []const type) type {
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return struct {
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fn create(allocator: std.mem.Allocator, leaf_value: anytype) !*@TypeOf(leaf_value) {
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const chain = try PrototypeChain(types).allocate(allocator);
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const RootType = types[0];
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chain.setRoot(RootType.Type);
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inline for (1..types.len - 1) |i| {
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const MiddleType = types[i];
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chain.setMiddle(i, MiddleType.Type);
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}
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chain.setLeaf(types.len - 1, leaf_value);
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return chain.get(types.len - 1);
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}
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};
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}
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pub fn init(page: *Page) Factory {
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return .{
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._page = page,
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@@ -59,165 +152,127 @@ pub fn init(page: *Page) Factory {
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// this is a root object
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pub fn eventTarget(self: *Factory, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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const allocator = self._slab.allocator();
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const chain = try PrototypeChain(
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&.{ EventTarget, @TypeOf(child) },
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).allocate(allocator);
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const et = try self.createT(EventTarget);
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child_ptr._proto = et;
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et.* = .{ ._type = unionInit(EventTarget.Type, child_ptr) };
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return child_ptr;
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chain.setRoot(EventTarget.Type);
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chain.setLeaf(1, child);
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return chain.get(1);
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}
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pub fn node(self: *Factory, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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child_ptr._proto = try self.eventTarget(Node{
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._proto = undefined,
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._type = unionInit(Node.Type, child_ptr),
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});
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return child_ptr;
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const allocator = self._slab.allocator();
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return try AutoPrototypeChain(
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&.{ EventTarget, Node, @TypeOf(child) },
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).create(allocator, child);
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}
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pub fn document(self: *Factory, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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child_ptr._proto = try self.node(Document{
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._proto = undefined,
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._type = unionInit(Document.Type, child_ptr),
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});
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return child_ptr;
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const allocator = self._slab.allocator();
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return try AutoPrototypeChain(
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&.{ EventTarget, Node, Document, @TypeOf(child) },
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).create(allocator, child);
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}
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pub fn documentFragment(self: *Factory, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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child_ptr._proto = try self.node(Node.DocumentFragment{
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._proto = undefined,
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._type = unionInit(Node.DocumentFragment.Type, child_ptr),
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});
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return child_ptr;
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const allocator = self._slab.allocator();
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return try AutoPrototypeChain(
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&.{ EventTarget, Node, Node.DocumentFragment, @TypeOf(child) },
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).create(allocator, child);
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}
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pub fn element(self: *Factory, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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child_ptr._proto = try self.node(Element{
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._proto = undefined,
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._type = unionInit(Element.Type, child_ptr),
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});
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return child_ptr;
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const allocator = self._slab.allocator();
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return try AutoPrototypeChain(
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&.{ EventTarget, Node, Element, @TypeOf(child) },
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).create(allocator, child);
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}
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pub fn htmlElement(self: *Factory, child: anytype) !*@TypeOf(child) {
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if (comptime fieldIsPointer(Element.Html.Type, @TypeOf(child))) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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child_ptr._proto = try self.element(Element.Html{
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._proto = undefined,
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._type = unionInit(Element.Html.Type, child_ptr),
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});
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return child_ptr;
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}
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// Our union type fields are usually pointers. But, at the leaf, they
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// can be struct (if all they contain is the `_proto` field, then we might
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// as well store it directly in the struct).
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const html = try self.element(Element.Html{
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._proto = undefined,
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._type = unionInit(Element.Html.Type, child),
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});
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const field_name = comptime unionFieldName(Element.Html.Type, @TypeOf(child));
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var child_ptr = &@field(html._type, field_name);
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child_ptr._proto = html;
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return child_ptr;
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const allocator = self._slab.allocator();
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return try AutoPrototypeChain(
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&.{ EventTarget, Node, Element, Element.Html, @TypeOf(child) },
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).create(allocator, child);
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}
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pub fn svgElement(self: *Factory, tag_name: []const u8, child: anytype) !*@TypeOf(child) {
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if (@TypeOf(child) == Element.Svg) {
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return self.element(child);
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}
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const allocator = self._slab.allocator();
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// will never allocate, can't fail
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const tag_name_str = String.init(self._page.arena, tag_name, .{}) catch unreachable;
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if (comptime fieldIsPointer(Element.Svg.Type, @TypeOf(child))) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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child_ptr._proto = try self.element(Element.Svg{
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._proto = undefined,
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._tag_name = tag_name_str,
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._type = unionInit(Element.Svg.Type, child_ptr),
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});
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return child_ptr;
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}
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const chain = try PrototypeChain(
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&.{ EventTarget, Node, Element, Element.Svg, @TypeOf(child) },
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).allocate(allocator);
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// Our union type fields are usually pointers. But, at the leaf, they
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// can be struct (if all they contain is the `_proto` field, then we might
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// as well store it directly in the struct).
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const svg = try self.element(Element.Svg{
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._proto = undefined,
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chain.setRoot(EventTarget.Type);
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chain.setMiddle(1, Node.Type);
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chain.setMiddle(2, Element.Type);
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// Manually set Element.Svg with the tag_name
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chain.set(3, .{
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._proto = chain.get(2),
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._tag_name = tag_name_str,
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._type = unionInit(Element.Svg.Type, child),
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._type = unionInit(Element.Svg.Type, chain.get(4)),
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});
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const field_name = comptime unionFieldName(Element.Svg.Type, @TypeOf(child));
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var child_ptr = &@field(svg._type, field_name);
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child_ptr._proto = svg;
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return child_ptr;
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chain.setLeaf(4, child);
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return chain.get(4);
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}
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// this is a root object
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pub fn event(self: *Factory, typ: []const u8, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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const allocator = self._slab.allocator();
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const e = try self.createT(Event);
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child_ptr._proto = e;
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e.* = .{
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._type = unionInit(Event.Type, child_ptr),
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// Special case: Event has a _type_string field, so we need manual setup
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const chain = try PrototypeChain(
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&.{ Event, @TypeOf(child) },
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).allocate(allocator);
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const event_ptr = chain.get(0);
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event_ptr.* = .{
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._type = unionInit(Event.Type, chain.get(1)),
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._type_string = try String.init(self._page.arena, typ, .{}),
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};
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return child_ptr;
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chain.setLeaf(1, child);
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return chain.get(1);
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}
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pub fn xhrEventTarget(self: *Factory, child: anytype) !*@TypeOf(child) {
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const et = try self.eventTarget(XMLHttpRequestEventTarget{
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._proto = undefined,
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._type = unionInit(XMLHttpRequestEventTarget.Type, child),
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});
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const field_name = comptime unionFieldName(XMLHttpRequestEventTarget.Type, @TypeOf(child));
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var child_ptr = &@field(et._type, field_name);
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child_ptr._proto = et;
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return child_ptr;
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const allocator = self._slab.allocator();
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return try AutoPrototypeChain(
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&.{ EventTarget, XMLHttpRequestEventTarget, @TypeOf(child) },
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).create(allocator, child);
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}
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pub fn blob(self: *Factory, child: anytype) !*@TypeOf(child) {
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const child_ptr = try self.createT(@TypeOf(child));
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child_ptr.* = child;
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const allocator = self._slab.allocator();
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const b = try self.createT(Blob);
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child_ptr._proto = b;
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b.* = .{
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._type = unionInit(Blob.Type, child_ptr),
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// Special case: Blob has slice and mime fields, so we need manual setup
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const chain = try PrototypeChain(
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&.{ Blob, @TypeOf(child) },
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).allocate(allocator);
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const blob_ptr = chain.get(0);
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blob_ptr.* = .{
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._type = unionInit(Blob.Type, chain.get(1)),
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.slice = "",
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.mime = "",
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};
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return child_ptr;
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}
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chain.setLeaf(1, child);
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pub fn create(self: *Factory, value: anytype) !*@TypeOf(value) {
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const ptr = try self.createT(@TypeOf(value));
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ptr.* = value;
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return ptr;
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}
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pub fn createT(self: *Factory, comptime T: type) !*T {
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const allocator = self._slab.allocator();
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return try allocator.create(T);
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return chain.get(1);
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}
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pub fn destroy(self: *Factory, value: anytype) void {
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const S = reflect.Struct(@TypeOf(value));
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// const allocator = self._slab.allocator();
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if (comptime IS_DEBUG) {
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// We should always destroy from the leaf down.
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if (@hasField(S, "_type") and @typeInfo(@TypeOf(value._type)) == .@"union") {
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@@ -231,12 +286,13 @@ pub fn destroy(self: *Factory, value: anytype) void {
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}
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}
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self.destroyChain(value, true);
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const root_ptr = self.destroyChain(value, true);
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_ = root_ptr;
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// allocator.destroy(root_ptr);
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}
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fn destroyChain(self: *Factory, value: anytype, comptime first: bool) void {
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fn destroyChain(self: *Factory, value: anytype, comptime first: bool) *@TypeOf(value) {
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const S = reflect.Struct(@TypeOf(value));
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const allocator = self._slab.allocator();
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||||
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||||
// This is initially called from a deinit. We don't want to call that
|
||||
@@ -255,7 +311,7 @@ fn destroyChain(self: *Factory, value: anytype, comptime first: bool) void {
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}
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||||
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||||
if (@hasField(S, "_proto")) {
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self.destroyChain(value._proto, false);
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return self.destroyChain(value._proto, false);
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} else if (@hasDecl(S, "JsApi")) {
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// Doesn't have a _proto, but has a JsApi.
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if (self._page.js.removeTaggedMapping(@intFromPtr(value))) |tagged| {
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||||
@@ -263,36 +319,18 @@ fn destroyChain(self: *Factory, value: anytype, comptime first: bool) void {
|
||||
}
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||||
}
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||||
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||||
// Leaf types are allowed by be placed directly within their _proto
|
||||
// (which makes sense when the @sizeOf(Leaf) == 8). These don't need to
|
||||
// be (cannot be) freed. But we'll still free the chain.
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||||
if (comptime wasAllocated(S)) {
|
||||
allocator.destroy(value);
|
||||
}
|
||||
return @ptrCast(value);
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||||
}
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||||
|
||||
fn wasAllocated(comptime S: type) bool {
|
||||
// Whether it's heap allocate or not, we should have a pointer.
|
||||
// (If it isn't heap allocated, it'll be a pointer from the proto's type
|
||||
// e.g. &html._type.title)
|
||||
if (!@hasField(S, "_proto")) {
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||||
// a root is always on the heap.
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||||
return true;
|
||||
}
|
||||
pub fn createT(self: *Factory, comptime T: type) !*T {
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||||
const allocator = self._slab.allocator();
|
||||
return try allocator.create(T);
|
||||
}
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||||
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||||
// the _proto type
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||||
const P = reflect.Struct(std.meta.fieldInfo(S, ._proto).type);
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||||
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||||
// the _proto._type type (the parent's _type union)
|
||||
const U = std.meta.fieldInfo(P, ._type).type;
|
||||
inline for (@typeInfo(U).@"union".fields) |field| {
|
||||
if (field.type == S) {
|
||||
// One of the types in the proto's _type union is this non-pointer
|
||||
// structure, so it isn't heap allocted.
|
||||
return false;
|
||||
}
|
||||
}
|
||||
return true;
|
||||
pub fn create(self: *Factory, value: anytype) !*@TypeOf(value) {
|
||||
const ptr = try self.createT(@TypeOf(value));
|
||||
ptr.* = value;
|
||||
return ptr;
|
||||
}
|
||||
|
||||
fn unionInit(comptime T: type, value: anytype) T {
|
||||
@@ -316,15 +354,3 @@ fn unionFieldName(comptime T: type, comptime V: type) []const u8 {
|
||||
}
|
||||
@compileError(@typeName(V) ++ " is not a valid type for " ++ @typeName(T) ++ ".type");
|
||||
}
|
||||
|
||||
fn fieldIsPointer(comptime T: type, comptime V: type) bool {
|
||||
inline for (@typeInfo(T).@"union".fields) |field| {
|
||||
if (field.type == V) {
|
||||
return false;
|
||||
}
|
||||
if (field.type == *V) {
|
||||
return true;
|
||||
}
|
||||
}
|
||||
@compileError(@typeName(V) ++ " is not a valid type for " ++ @typeName(T) ++ ".type");
|
||||
}
|
||||
|
||||
@@ -1175,21 +1175,22 @@ pub fn createElement(self: *Page, ns_: ?[]const u8, name: []const u8, attribute_
|
||||
else => {},
|
||||
}
|
||||
|
||||
if (namespace == .svg) {
|
||||
const tag_name = try String.init(self.arena, name, .{});
|
||||
if (std.ascii.eqlIgnoreCase(name, "svg")) {
|
||||
return self.createSvgElementT(Element.Svg, name, attribute_iterator, .{
|
||||
._proto = undefined,
|
||||
._type = .svg,
|
||||
._tag_name = tag_name,
|
||||
});
|
||||
}
|
||||
// TODO: uncomment
|
||||
// if (namespace == .svg) {
|
||||
// const tag_name = try String.init(self.arena, name, .{});
|
||||
// if (std.ascii.eqlIgnoreCase(name, "svg")) {
|
||||
// return self.createSvgElementT(Element.Svg, name, attribute_iterator, .{
|
||||
// ._proto = undefined,
|
||||
// ._type = .svg,
|
||||
// ._tag_name = tag_name,
|
||||
// });
|
||||
// }
|
||||
|
||||
// Other SVG elements (rect, circle, text, g, etc.)
|
||||
const lower = std.ascii.lowerString(&self.buf, name);
|
||||
const tag = std.meta.stringToEnum(Element.Tag, lower) orelse .unknown;
|
||||
return self.createSvgElementT(Element.Svg.Generic, name, attribute_iterator, .{ ._proto = undefined, ._tag = tag });
|
||||
}
|
||||
// // Other SVG elements (rect, circle, text, g, etc.)
|
||||
// const lower = std.ascii.lowerString(&self.buf, name);
|
||||
// const tag = std.meta.stringToEnum(Element.Tag, lower) orelse .unknown;
|
||||
// return self.createSvgElementT(Element.Svg.Generic, name, attribute_iterator, .{ ._proto = undefined, ._tag = tag });
|
||||
// }
|
||||
|
||||
const tag_name = try String.init(self.arena, name, .{});
|
||||
|
||||
@@ -1221,7 +1222,6 @@ pub fn createElement(self: *Page, ns_: ?[]const u8, name: []const u8, attribute_
|
||||
return node;
|
||||
};
|
||||
|
||||
|
||||
// After constructor runs, invoke attributeChangedCallback for initial attributes
|
||||
const element = node.as(Element);
|
||||
if (element._attributes) |attributes| {
|
||||
|
||||
@@ -67,36 +67,36 @@ pub fn construct(page: *Page) !*Element {
|
||||
}
|
||||
|
||||
pub const Type = union(enum) {
|
||||
anchor: Anchor,
|
||||
body: Body,
|
||||
br: BR,
|
||||
button: Button,
|
||||
anchor: *Anchor,
|
||||
body: *Body,
|
||||
br: *BR,
|
||||
button: *Button,
|
||||
custom: *Custom,
|
||||
dialog: Dialog,
|
||||
div: Div,
|
||||
form: Form,
|
||||
dialog: *Dialog,
|
||||
div: *Div,
|
||||
form: *Form,
|
||||
generic: *Generic,
|
||||
heading: *Heading,
|
||||
head: Head,
|
||||
html: Html,
|
||||
hr: HR,
|
||||
img: Image,
|
||||
iframe: IFrame,
|
||||
head: *Head,
|
||||
html: *Html,
|
||||
hr: *HR,
|
||||
img: *Image,
|
||||
iframe: *IFrame,
|
||||
input: *Input,
|
||||
li: LI,
|
||||
link: Link,
|
||||
meta: Meta,
|
||||
ol: OL,
|
||||
li: *LI,
|
||||
link: *Link,
|
||||
meta: *Meta,
|
||||
ol: *OL,
|
||||
option: *Option,
|
||||
p: Paragraph,
|
||||
p: *Paragraph,
|
||||
script: *Script,
|
||||
select: Select,
|
||||
slot: Slot,
|
||||
style: Style,
|
||||
select: *Select,
|
||||
slot: *Slot,
|
||||
style: *Style,
|
||||
template: *Template,
|
||||
text_area: *TextArea,
|
||||
title: Title,
|
||||
ul: UL,
|
||||
title: *Title,
|
||||
ul: *UL,
|
||||
unknown: *Unknown,
|
||||
};
|
||||
|
||||
|
||||
@@ -35,7 +35,7 @@ _on_progress: ?js.Function = null,
|
||||
_on_timeout: ?js.Function = null,
|
||||
|
||||
pub const Type = union(enum) {
|
||||
request: @import("XMLHttpRequest.zig"),
|
||||
request: *@import("XMLHttpRequest.zig"),
|
||||
// TODO: xml_http_request_upload
|
||||
};
|
||||
|
||||
|
||||
Reference in New Issue
Block a user