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14 commits
0dd8dec490 ... c98baaa1d3

Author SHA1 Message Date
Ali Mohammad Pur
c98baaa1d3
Merge e383f52d04 into 7f989765f5 2024-11-21 08:00:13 -05:00
Psychpsyo
7f989765f5 LibWeb: Fix MouseEvent position values 
The clientX and clientY values are, as per the spec, the offset from
the viewport.
This makes them actually be that and also fixes up the calculations
for offsetX, offsetY, pageX and pageY.
I assume all of these got messed up in some sort of refactor in the
past.

The spec comment from the now-removed
compute_mouse_event_client_offset() function sadly has no convenient
place to be anymore so, for now, it is just gone as well.
Personally, I think it'd make sense to refactor a lot of this file so
that not every mouse event repeats a large chunk of (almost) identical
code. That way there'd be a nice place to put the comment without
repeating it all over the file.
But that is out of the scope of this PR.

Also: I know, offsetX and Y are not fully fixed yet, they still
don't ignore the element's CSS transforms but I am working on that
in a new PR.
 2024-11-21 13:22:22 +01:00
Aliaksandr Kalenik
41c172c663 LibWeb: Allow custom properties in getPropertyPriority() 2024-11-21 13:16:08 +01:00
Aliaksandr Kalenik
ac5699c8fc LibWeb: Allow custom properties in CSSStyleDeclaration.removeProperty() 2024-11-21 13:16:08 +01:00
Aliaksandr Kalenik
ce26e5d757 LibWeb: Allow custom properties in CSSStyleDeclaration.getPropertyValue 2024-11-21 13:16:08 +01:00
Aliaksandr Kalenik
3a2cc1aa20 LibWeb: Allow custom properties in CSSStyleDeclaration.setProperty() 
This change fixes unhoverable toolbar on https://excalidraw.com/
The problem was that React.js uses setProperty() to add style properties
specified in the "style" attribute in the virtual DOM, and we were
failing to add the CSS variable used to set the "pointer-events" value
to "all".
 2024-11-21 13:16:08 +01:00
Aliaksandr Kalenik
0448d4d609 LibWeb: Update property_id_from_string() generator to handle ::Custom 2024-11-21 13:16:08 +01:00
Lucas CHOLLET
a1687854ab LibWeb/CSS: Use double in CSSHWB::to_color() 
See previous the commit description for more details about the floating
points operations.

The hwb test cases in `css-color-functions` are now rendered identically
to what firefox does (I haven't checked the others tests, but they
aren't affected by this commit).
 2024-11-21 11:59:44 +00:00
Lucas CHOLLET
d1120e1809 LibWeb: Make CSSColorValue resolvers return a double 
Without this change the math in `CSSHWB::to_color()` is lacking some
precision to generate the correct value to hand to `Color::from_hsv()`.

More precisely, when converting `hwb(120 20 30)`, the HSV's value would
be calculated as `1 - .3`. However, it turns out that `1 - .3f != .7f`
and `1 - .3f` gives bad results down the road in `Color::from_hsv()`.

This example actually only requires `resolve_with_reference_value()` to
return a double. I changed the two others for symmetry.
 2024-11-21 11:59:44 +00:00
Lucas CHOLLET
248e4bb517 LibGfx: Round values in Color::with_opacity() 
`svg-gradient-userSpaceOnUse` is now rendered to something closer to
what firefox does, so it is at least some progress.
 2024-11-21 11:59:44 +00:00
Lucas CHOLLET
b4ba65c6e5 LibGfx: Round values in Color::from_hsv() 2024-11-21 11:59:44 +00:00
devgianlu
009f328308 LibWeb: Implement ECDH.generateKey 2024-11-21 11:45:22 +01:00
Pavel Shliak
d55caff227 LibFileSystem: Fix Windows build 
This reverts part of  b3c253e50f
 2024-11-21 11:15:49 +01:00
Feng Yu
570c5f8df2 Documentation: Fix broken link in README 2024-11-21 10:42:45 +01:00
34 changed files with 1671 additions and 112 deletions
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2
Documentation/README.md
View file

@ -35,5 +35,5 @@ you are welcome to ask on [Discord](../README.md#get-in-touch-and-participate).
* [LibWeb: From Loading to Painting](LibWebFromLoadingToPainting.md)
* [LibWeb: Browsing Contexts and Navigables](BrowsingContextsAndNavigables.md)
* [How to Add an IDL File](AddNewIDLFile.md)
* [LibWeb Code Style & Patterns](Browser/Patterns.md)
* [LibWeb Code Style & Patterns](LibWebPatterns.md)
* [CSS Generated Files](CSSGeneratedFiles.md)

2
Libraries/LibFileSystem/FileSystem.cpp
View file

@ -15,6 +15,8 @@
# include <sys/disk.h>
#elif defined(AK_OS_LINUX)
# include <linux/fs.h>
#elif defined(AK_OS_WINDOWS)
# include <dirent.h>
#endif
// On Linux distros that use glibc `basename` is defined as a macro that expands to `__xpg_basename`, so we undefine it

9
Libraries/LibGfx/Color.h
View file

@ -400,7 +400,8 @@ public:
constexpr Color with_opacity(float opacity) const
{
return with_alpha(alpha() * opacity);
VERIFY(opacity >= 0 && opacity <= 1);
return with_alpha(static_cast<u8>(round(alpha() * opacity)));
}
constexpr Color darkened(float amount = 0.5f) const
@ -549,9 +550,9 @@ public:
break;
}
u8 out_r = (u8)(r * 255);
u8 out_g = (u8)(g * 255);
u8 out_b = (u8)(b * 255);
auto out_r = static_cast<u8>(round(r * 255));
auto out_g = static_cast<u8>(round(g * 255));
auto out_b = static_cast<u8>(round(b * 255));
return Color(out_r, out_g, out_b);
}

63
Libraries/LibWeb/CSS/CSSStyleDeclaration.cpp
View file

@ -102,8 +102,13 @@ Optional<StyleProperty> PropertyOwningCSSStyleDeclaration::property(PropertyID p
}
// https://drafts.csswg.org/cssom/#dom-cssstyledeclaration-setproperty
WebIDL::ExceptionOr<void> PropertyOwningCSSStyleDeclaration::set_property(PropertyID property_id, StringView value, StringView priority)
WebIDL::ExceptionOr<void> PropertyOwningCSSStyleDeclaration::set_property(StringView property_name, StringView value, StringView priority)
{
auto maybe_property_id = property_id_from_string(property_name);
if (!maybe_property_id.has_value())
return {};
auto property_id = maybe_property_id.value();
// 1. If the computed flag is set, then throw a NoModificationAllowedError exception.
// NOTE: This is handled by the virtual override in ResolvedCSSStyleDeclaration.
@ -114,7 +119,7 @@ WebIDL::ExceptionOr<void> PropertyOwningCSSStyleDeclaration::set_property(Proper
// 3. If value is the empty string, invoke removeProperty() with property as argument and return.
if (value.is_empty()) {
MUST(remove_property(property_id));
MUST(remove_property(property_name));
return {};
}
@ -146,11 +151,23 @@ WebIDL::ExceptionOr<void> PropertyOwningCSSStyleDeclaration::set_property(Proper
}
// 9. Otherwise,
else {
if (property_id == PropertyID::Custom) {
auto custom_name = FlyString::from_utf8_without_validation(property_name.bytes());
StyleProperty style_property {
.important = !priority.is_empty() ? Important::Yes : Important::No,
.property_id = property_id,
.value = component_value_list.release_nonnull(),
.custom_name = custom_name,
};
m_custom_properties.set(custom_name, style_property);
updated = true;
} else {
// let updated be the result of set the CSS declaration property with value component value list,
// with the important flag set if priority is not the empty string, and unset otherwise,
// and with the list of declarations being the declarations.
updated = set_a_css_declaration(property_id, *component_value_list, !priority.is_empty() ? Important::Yes : Important::No);
}
}
// 10. If updated is true, update style attribute for the CSS declaration block.
if (updated)
@ -160,8 +177,12 @@ WebIDL::ExceptionOr<void> PropertyOwningCSSStyleDeclaration::set_property(Proper
}
// https://drafts.csswg.org/cssom/#dom-cssstyledeclaration-removeproperty
WebIDL::ExceptionOr<String> PropertyOwningCSSStyleDeclaration::remove_property(PropertyID property_id)
WebIDL::ExceptionOr<String> PropertyOwningCSSStyleDeclaration::remove_property(StringView property_name)
{
auto property_id = property_id_from_string(property_name);
if (!property_id.has_value())
return String {};
// 1. If the computed flag is set, then throw a NoModificationAllowedError exception.
// NOTE: This is handled by the virtual override in ResolvedCSSStyleDeclaration.
@ -169,8 +190,7 @@ WebIDL::ExceptionOr<String> PropertyOwningCSSStyleDeclaration::remove_property(P
// NOTE: We've already converted it to a PropertyID enum value.
// 3. Let value be the return value of invoking getPropertyValue() with property as argument.
// FIXME: The trip through string_from_property_id() here is silly.
auto value = get_property_value(string_from_property_id(property_id));
auto value = get_property_value(property_name);
// 4. Let removed be false.
bool removed = false;
@ -180,7 +200,12 @@ WebIDL::ExceptionOr<String> PropertyOwningCSSStyleDeclaration::remove_property(P
// 2. Remove that CSS declaration and let removed be true.
// 6. Otherwise, if property is a case-sensitive match for a property name of a CSS declaration in the declarations, remove that CSS declaration and let removed be true.
if (property_id == PropertyID::Custom) {
auto custom_name = FlyString::from_utf8_without_validation(property_name.bytes());
removed = m_custom_properties.remove(custom_name);
} else {
removed = m_properties.remove_first_matching([&](auto& entry) { return entry.property_id == property_id; });
}
// 7. If removed is true, Update style attribute for the CSS declaration block.
if (removed)
@ -241,6 +266,14 @@ String CSSStyleDeclaration::get_property_value(StringView property_name) const
if (!property_id.has_value())
return {};
if (property_id.value() == PropertyID::Custom) {
auto maybe_custom_property = custom_property(FlyString::from_utf8_without_validation(property_name.bytes()));
if (maybe_custom_property.has_value()) {
return maybe_custom_property.value().value->to_string();
}
return {};
}
// 2. If property is a shorthand property, then follow these substeps:
if (property_is_shorthand(property_id.value())) {
// 1. Let list be a new empty array.
@ -285,26 +318,26 @@ StringView CSSStyleDeclaration::get_property_priority(StringView property_name)
auto property_id = property_id_from_string(property_name);
if (!property_id.has_value())
return {};
if (property_id.value() == PropertyID::Custom) {
auto maybe_custom_property = custom_property(FlyString::from_utf8_without_validation(property_name.bytes()));
if (!maybe_custom_property.has_value())
return {};
return maybe_custom_property.value().important == Important::Yes ? "important"sv : ""sv;
}
auto maybe_property = property(property_id.value());
if (!maybe_property.has_value())
return {};
return maybe_property->important == Important::Yes ? "important"sv : ""sv;
}
WebIDL::ExceptionOr<void> CSSStyleDeclaration::set_property(StringView property_name, StringView css_text, StringView priority)
WebIDL::ExceptionOr<void> CSSStyleDeclaration::set_property(PropertyID property_id, StringView css_text, StringView priority)
{
auto property_id = property_id_from_string(property_name);
if (!property_id.has_value())
return {};
return set_property(property_id.value(), css_text, priority);
return set_property(string_from_property_id(property_id), css_text, priority);
}
WebIDL::ExceptionOr<String> CSSStyleDeclaration::remove_property(StringView property_name)
WebIDL::ExceptionOr<String> CSSStyleDeclaration::remove_property(PropertyID property_name)
{
auto property_id = property_id_from_string(property_name);
if (!property_id.has_value())
return String {};
return remove_property(property_id.value());
return remove_property(string_from_property_id(property_name));
}
// https://drafts.csswg.org/cssom/#dom-cssstyledeclaration-csstext

17
Libraries/LibWeb/CSS/CSSStyleDeclaration.h
View file

@ -29,12 +29,13 @@ public:
virtual String item(size_t index) const = 0;
virtual Optional<StyleProperty> property(PropertyID) const = 0;
virtual Optional<StyleProperty> custom_property(FlyString const& custom_property_name) const = 0;
virtual WebIDL::ExceptionOr<void> set_property(PropertyID, StringView css_text, StringView priority = ""sv) = 0;
virtual WebIDL::ExceptionOr<String> remove_property(PropertyID) = 0;
virtual WebIDL::ExceptionOr<void> set_property(PropertyID, StringView css_text, StringView priority = ""sv);
virtual WebIDL::ExceptionOr<String> remove_property(PropertyID);
virtual WebIDL::ExceptionOr<void> set_property(StringView property_name, StringView css_text, StringView priority);
virtual WebIDL::ExceptionOr<String> remove_property(StringView property_name);
virtual WebIDL::ExceptionOr<void> set_property(StringView property_name, StringView css_text, StringView priority) = 0;
virtual WebIDL::ExceptionOr<String> remove_property(StringView property_name) = 0;
String get_property_value(StringView property) const;
StringView get_property_priority(StringView property) const;
@ -75,13 +76,13 @@ public:
virtual String item(size_t index) const override;
virtual Optional<StyleProperty> property(PropertyID) const override;
virtual Optional<StyleProperty> custom_property(FlyString const& custom_property_name) const override { return m_custom_properties.get(custom_property_name); }
virtual WebIDL::ExceptionOr<void> set_property(PropertyID, StringView css_text, StringView priority) override;
virtual WebIDL::ExceptionOr<String> remove_property(PropertyID) override;
virtual WebIDL::ExceptionOr<void> set_property(StringView property_name, StringView css_text, StringView priority) override;
virtual WebIDL::ExceptionOr<String> remove_property(StringView property_name) override;
Vector<StyleProperty> const& properties() const { return m_properties; }
HashMap<FlyString, StyleProperty> const& custom_properties() const { return m_custom_properties; }
Optional<StyleProperty> custom_property(FlyString const& custom_property_name) const { return m_custom_properties.get(custom_property_name); }
size_t custom_property_count() const { return m_custom_properties.size(); }
virtual String serialized() const final override;

6
Libraries/LibWeb/CSS/ResolvedCSSStyleDeclaration.cpp
View file

@ -601,6 +601,12 @@ Optional<StyleProperty> ResolvedCSSStyleDeclaration::property(PropertyID propert
};
}
Optional<StyleProperty> ResolvedCSSStyleDeclaration::custom_property(FlyString const&) const
{
dbgln("FIXME: ResolvedCSSStyleDeclaration::custom_property is not implemented");
return {};
}
static WebIDL::ExceptionOr<void> cannot_modify_computed_property_error(JS::Realm& realm)
{
return WebIDL::NoModificationAllowedError::create(realm, "Cannot modify properties in result of getComputedStyle()"_string);

1
Libraries/LibWeb/CSS/ResolvedCSSStyleDeclaration.h
View file

@ -24,6 +24,7 @@ public:
virtual String item(size_t index) const override;
virtual Optional<StyleProperty> property(PropertyID) const override;
virtual Optional<StyleProperty> custom_property(FlyString const& custom_property_name) const override;
virtual WebIDL::ExceptionOr<void> set_property(PropertyID, StringView css_text, StringView priority) override;
virtual WebIDL::ExceptionOr<void> set_property(StringView property_name, StringView css_text, StringView priority) override;
virtual WebIDL::ExceptionOr<String> remove_property(PropertyID) override;

8
Libraries/LibWeb/CSS/StyleValues/CSSColorValue.cpp
View file

@ -45,7 +45,7 @@ ValueComparingNonnullRefPtr<CSSColorValue> CSSColorValue::create_from_color(Colo
return make_rgb_color(color);
}
Optional<float> CSSColorValue::resolve_hue(CSSStyleValue const& style_value)
Optional<double> CSSColorValue::resolve_hue(CSSStyleValue const& style_value)
{
// <number> | <angle> | none
auto normalized = [](double number) {
@ -67,11 +67,11 @@ Optional<float> CSSColorValue::resolve_hue(CSSStyleValue const& style_value)
return {};
}
Optional<float> CSSColorValue::resolve_with_reference_value(CSSStyleValue const& style_value, float one_hundred_percent_value)
Optional<double> CSSColorValue::resolve_with_reference_value(CSSStyleValue const& style_value, float one_hundred_percent_value)
{
// <percentage> | <number> | none
auto normalize_percentage = [one_hundred_percent_value](Percentage const& percentage) {
return static_cast<float>(percentage.as_fraction()) * one_hundred_percent_value;
return percentage.as_fraction() * one_hundred_percent_value;
};
if (style_value.is_percentage())
@ -94,7 +94,7 @@ Optional<float> CSSColorValue::resolve_with_reference_value(CSSStyleValue const&
return {};
}
Optional<float> CSSColorValue::resolve_alpha(CSSStyleValue const& style_value)
Optional<double> CSSColorValue::resolve_alpha(CSSStyleValue const& style_value)
{
// <number> | <percentage> | none
auto normalized = [](double number) {

6
Libraries/LibWeb/CSS/StyleValues/CSSColorValue.h
View file

@ -48,9 +48,9 @@ protected:
{
}
static Optional<float> resolve_hue(CSSStyleValue const&);
static Optional<float> resolve_with_reference_value(CSSStyleValue const&, float one_hundred_percent_value);
static Optional<float> resolve_alpha(CSSStyleValue const&);
static Optional<double> resolve_hue(CSSStyleValue const&);
static Optional<double> resolve_with_reference_value(CSSStyleValue const&, float one_hundred_percent_value);
static Optional<double> resolve_alpha(CSSStyleValue const&);
private:
ColorType m_color_type;

4
Libraries/LibWeb/CSS/StyleValues/CSSHWB.cpp
View file

@ -25,8 +25,8 @@ Color CSSHWB::to_color(Optional<Layout::NodeWithStyle const&>) const
return Color(gray, gray, gray, to_byte(alpha_val));
}
float value = 1 - b_val;
float saturation = 1 - (w_val / value);
auto value = 1 - b_val;
auto saturation = 1 - (w_val / value);
return Color::from_hsv(h_val, saturation, value).with_opacity(alpha_val);
}

100
Libraries/LibWeb/Crypto/CryptoAlgorithms.cpp
View file

@ -2526,6 +2526,106 @@ WebIDL::ExceptionOr<JS::Value> ECDSA::verify(AlgorithmParams const& params, GC::
return JS::Value(result);
}
// https://w3c.github.io/webcrypto/#ecdh-operations
WebIDL::ExceptionOr<Variant<GC::Ref<CryptoKey>, GC::Ref<CryptoKeyPair>>> ECDH::generate_key(AlgorithmParams const& params, bool extractable, Vector<Bindings::KeyUsage> const& key_usages)
{
// 1. If usages contains an entry which is not "deriveKey" or "deriveBits" then throw a SyntaxError.
for (auto const& usage : key_usages) {
if (usage != Bindings::KeyUsage::Derivekey && usage != Bindings::KeyUsage::Derivebits) {
return WebIDL::SyntaxError::create(m_realm, MUST(String::formatted("Invalid key usage '{}'", idl_enum_to_string(usage))));
}
}
auto const& normalized_algorithm = static_cast<EcKeyGenParams const&>(params);
// 2. If the namedCurve member of normalizedAlgorithm is "P-256", "P-384" or "P-521":
// Generate an Elliptic Curve key pair, as defined in [RFC6090]
// with domain parameters for the curve identified by the namedCurve member of normalizedAlgorithm.
Variant<Empty, ::Crypto::Curves::SECP256r1, ::Crypto::Curves::SECP384r1> curve;
if (normalized_algorithm.named_curve.is_one_of("P-256"sv, "P-384"sv, "P-521"sv)) {
if (normalized_algorithm.named_curve.equals_ignoring_ascii_case("P-256"sv))
curve = ::Crypto::Curves::SECP256r1 {};
if (normalized_algorithm.named_curve.equals_ignoring_ascii_case("P-384"sv))
curve = ::Crypto::Curves::SECP384r1 {};
// FIXME: Support P-521
if (normalized_algorithm.named_curve.equals_ignoring_ascii_case("P-521"sv))
return WebIDL::NotSupportedError::create(m_realm, "'P-521' is not supported yet"_string);
} else {
// If the namedCurve member of normalizedAlgorithm is a value specified in an applicable specification
// that specifies the use of that value with ECDH:
// Perform the ECDH generation steps specified in that specification,
// passing in normalizedAlgorithm and resulting in an elliptic curve key pair.
// Otherwise: throw a NotSupportedError
return WebIDL::NotSupportedError::create(m_realm, "Only 'P-256', 'P-384' and 'P-521' is supported"_string);
}
// 3. If performing the operation results in an error, then throw a OperationError.
auto maybe_private_key_data = curve.visit(
[](Empty const&) -> ErrorOr<ByteBuffer> { return Error::from_string_literal("noop error"); },
[](auto instance) { return instance.generate_private_key(); });
if (maybe_private_key_data.is_error())
return WebIDL::OperationError::create(m_realm, "Failed to create valid crypto instance"_string);
auto private_key_data = maybe_private_key_data.release_value();
auto maybe_public_key_data = curve.visit(
[](Empty const&) -> ErrorOr<ByteBuffer> { return Error::from_string_literal("noop error"); },
[&](auto instance) { return instance.generate_public_key(private_key_data); });
if (maybe_public_key_data.is_error())
return WebIDL::OperationError::create(m_realm, "Failed to create valid crypto instance"_string);
auto public_key_data = maybe_public_key_data.release_value();
// 4. Let algorithm be a new EcKeyAlgorithm object.
auto algorithm = EcKeyAlgorithm::create(m_realm);
// 5. Set the name attribute of algorithm to "ECDH".
algorithm->set_name("ECDH"_string);
// 6. Set the namedCurve attribute of algorithm to equal the namedCurve member of normalizedAlgorithm.
algorithm->set_named_curve(normalized_algorithm.named_curve);
// 7. Let publicKey be a new CryptoKey representing the public key of the generated key pair.
auto public_key = CryptoKey::create(m_realm, CryptoKey::InternalKeyData { public_key_data });
// 8. Set the [[type]] internal slot of publicKey to "public"
public_key->set_type(Bindings::KeyType::Public);
// 9. Set the [[algorithm]] internal slot of publicKey to algorithm.
public_key->set_algorithm(algorithm);
// 10. Set the [[extractable]] internal slot of publicKey to true.
public_key->set_extractable(true);
// 11. Set the [[usages]] internal slot of publicKey to be the empty list.
public_key->set_usages({});
// 12. Let privateKey be a new CryptoKey representing the private key of the generated key pair.
auto private_key = CryptoKey::create(m_realm, CryptoKey::InternalKeyData { private_key_data });
// 13. Set the [[type]] internal slot of privateKey to "private"
private_key->set_type(Bindings::KeyType::Private);
// 14. Set the [[algorithm]] internal slot of privateKey to algorithm.
private_key->set_algorithm(algorithm);
// 15. Set the [[extractable]] internal slot of privateKey to extractable.
private_key->set_extractable(extractable);
// 16. Set the [[usages]] internal slot of privateKey to be the usage intersection of usages and [ "deriveKey", "deriveBits" ].
private_key->set_usages(usage_intersection(key_usages, { { Bindings::KeyUsage::Derivekey, Bindings::KeyUsage::Derivebits } }));
// 17. Let result be a new CryptoKeyPair dictionary.
// 18. Set the publicKey attribute of result to be publicKey.
// 19. Set the privateKey attribute of result to be privateKey.
// 20. Return the result of converting result to an ECMAScript Object, as defined by [WebIDL].
return Variant<GC::Ref<CryptoKey>, GC::Ref<CryptoKeyPair>> { CryptoKeyPair::create(m_realm, public_key, private_key) };
}
// https://wicg.github.io/webcrypto-secure-curves/#ed25519-operations
WebIDL::ExceptionOr<Variant<GC::Ref<CryptoKey>, GC::Ref<CryptoKeyPair>>> ED25519::generate_key([[maybe_unused]] AlgorithmParams const& params, bool extractable, Vector<Bindings::KeyUsage> const& key_usages)
{

16
Libraries/LibWeb/Crypto/CryptoAlgorithms.h
View file

@ -493,6 +493,22 @@ private:
}
};
class ECDH : public AlgorithmMethods {
public:
virtual WebIDL::ExceptionOr<Variant<GC::Ref<CryptoKey>, GC::Ref<CryptoKeyPair>>> generate_key(AlgorithmParams const&, bool, Vector<Bindings::KeyUsage> const&) override;
// TODO: virtual WebIDL::ExceptionOr<GC::Ref<JS::ArrayBuffer>> derive_bits(AlgorithmParams const&, GC::Ref<CryptoKey>, Optional<u32>) override;
// TODO: virtual WebIDL::ExceptionOr<GC::Ref<CryptoKey>> import_key(AlgorithmParams const&, Bindings::KeyFormat, CryptoKey::InternalKeyData, bool, Vector<Bindings::KeyUsage> const&) override;
// TODO: virtual WebIDL::ExceptionOr<GC::Ref<JS::Object>> export_key(Bindings::KeyFormat, GC::Ref<CryptoKey>) override;
static NonnullOwnPtr<AlgorithmMethods> create(JS::Realm& realm) { return adopt_own(*new ECDH(realm)); }
private:
explicit ECDH(JS::Realm& realm)
: AlgorithmMethods(realm)
{
}
};
class ED25519 : public AlgorithmMethods {
public:
virtual WebIDL::ExceptionOr<GC::Ref<JS::ArrayBuffer>> sign(AlgorithmParams const&, GC::Ref<CryptoKey>, ByteBuffer const&) override;

2
Libraries/LibWeb/Crypto/SubtleCrypto.cpp
View file

@ -801,10 +801,10 @@ SupportedAlgorithmsMap supported_algorithms()
// FIXME: define_an_algorithm<ECDSA>("exportKey"_string, "ECDSA"_string);
// https://w3c.github.io/webcrypto/#ecdh-registration
// FIXME: define_an_algorithm<ECDH, EcKeyGenParams>("generateKey"_string, "ECDH"_string);
// FIXME: define_an_algorithm<ECDH, EcdhKeyDerivePrams>("deriveBits"_string, "ECDH"_string);
// FIXME: define_an_algorithm<ECDH, EcKeyImportParams>("importKey"_string, "ECDH"_string);
// FIXME: define_an_algorithm<ECDH>("exportKey"_string, "ECDH"_string);
define_an_algorithm<ECDH, EcKeyGenParams>("generateKey"_string, "ECDH"_string);
// https://w3c.github.io/webcrypto/#aes-ctr-registration
define_an_algorithm<AesCtr, AesCtrParams>("encrypt"_string, "AES-CTR"_string);

112
Libraries/LibWeb/Page/EventHandler.cpp
View file

@ -177,8 +177,6 @@ EventResult EventHandler::handle_mousewheel(CSSPixelPoint viewport_position, CSS
if (!m_navigable->active_document()->is_fully_active())
return EventResult::Dropped;
auto position = viewport_position;
m_navigable->active_document()->update_layout();
if (!paint_root())
@ -190,20 +188,20 @@ EventResult EventHandler::handle_mousewheel(CSSPixelPoint viewport_position, CSS
auto handled_event = EventResult::Dropped;
GC::Ptr<Painting::Paintable> paintable;
if (auto result = target_for_mouse_position(position); result.has_value())
if (auto result = target_for_mouse_position(viewport_position); result.has_value())
paintable = result->paintable;
if (paintable) {
auto* containing_block = paintable->containing_block();
while (containing_block) {
auto handled_scroll_event = containing_block->handle_mousewheel({}, position, buttons, modifiers, wheel_delta_x, wheel_delta_y);
auto handled_scroll_event = containing_block->handle_mousewheel({}, viewport_position, buttons, modifiers, wheel_delta_x, wheel_delta_y);
if (handled_scroll_event)
return EventResult::Handled;
containing_block = containing_block->containing_block();
}
if (paintable->handle_mousewheel({}, position, buttons, modifiers, wheel_delta_x, wheel_delta_y))
if (paintable->handle_mousewheel({}, viewport_position, buttons, modifiers, wheel_delta_x, wheel_delta_y))
return EventResult::Handled;
auto node = dom_node_for_event_dispatch(*paintable);
@ -212,7 +210,7 @@ EventResult EventHandler::handle_mousewheel(CSSPixelPoint viewport_position, CSS
// FIXME: Support wheel events in nested browsing contexts.
if (is<HTML::HTMLIFrameElement>(*node)) {
auto& iframe = static_cast<HTML::HTMLIFrameElement&>(*node);
auto position_in_iframe = position.translated(compute_mouse_event_offset({}, paintable->layout_node()));
auto position_in_iframe = viewport_position.translated(compute_mouse_event_offset({}, paintable->layout_node()));
iframe.content_navigable()->event_handler().handle_mousewheel(position_in_iframe, screen_position, button, buttons, modifiers, wheel_delta_x, wheel_delta_y);
return EventResult::Dropped;
}
@ -222,10 +220,9 @@ EventResult EventHandler::handle_mousewheel(CSSPixelPoint viewport_position, CSS
if (!parent_element_for_event_dispatch(*paintable, node, layout_node))
return EventResult::Dropped;
auto offset = compute_mouse_event_offset(position, *layout_node);
auto client_offset = compute_mouse_event_client_offset(position);
auto page_offset = compute_mouse_event_page_offset(client_offset);
if (node->dispatch_event(UIEvents::WheelEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::wheel, screen_position, page_offset, client_offset, offset, wheel_delta_x, wheel_delta_y, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors())) {
auto page_offset = compute_mouse_event_page_offset(viewport_position);
auto offset = compute_mouse_event_offset(page_offset, *layout_node);
if (node->dispatch_event(UIEvents::WheelEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::wheel, screen_position, page_offset, viewport_position, offset, wheel_delta_x, wheel_delta_y, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors())) {
m_navigable->active_window()->scroll_by(wheel_delta_x, wheel_delta_y);
}
@ -246,26 +243,24 @@ EventResult EventHandler::handle_mouseup(CSSPixelPoint viewport_position, CSSPix
if (!m_navigable->active_document()->is_fully_active())
return EventResult::Dropped;
auto position = viewport_position;
m_navigable->active_document()->update_layout();
if (!paint_root())
return EventResult::Dropped;
GC::Ptr<Painting::Paintable> paintable;
if (auto result = target_for_mouse_position(position); result.has_value())
if (auto result = target_for_mouse_position(viewport_position); result.has_value())
paintable = result->paintable;
if (paintable && paintable->wants_mouse_events()) {
if (paintable->handle_mouseup({}, position, button, modifiers) == Painting::Paintable::DispatchEventOfSameName::No)
if (paintable->handle_mouseup({}, viewport_position, button, modifiers) == Painting::Paintable::DispatchEventOfSameName::No)
return EventResult::Cancelled;
// Things may have changed as a consequence of Layout::Node::handle_mouseup(). Hit test again.
if (!paint_root())
return EventResult::Handled;
if (auto result = paint_root()->hit_test(position, Painting::HitTestType::Exact); result.has_value())
if (auto result = paint_root()->hit_test(viewport_position, Painting::HitTestType::Exact); result.has_value())
paintable = result->paintable;
}
@ -277,7 +272,7 @@ EventResult EventHandler::handle_mouseup(CSSPixelPoint viewport_position, CSSPix
if (node) {
if (is<HTML::HTMLIFrameElement>(*node)) {
if (auto content_navigable = static_cast<HTML::HTMLIFrameElement&>(*node).content_navigable())
return content_navigable->event_handler().handle_mouseup(position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, button, buttons, modifiers);
return content_navigable->event_handler().handle_mouseup(viewport_position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, button, buttons, modifiers);
return EventResult::Dropped;
}
@ -290,22 +285,21 @@ EventResult EventHandler::handle_mouseup(CSSPixelPoint viewport_position, CSSPix
goto after_node_use;
}
auto offset = compute_mouse_event_offset(position, *layout_node);
auto client_offset = compute_mouse_event_client_offset(position);
auto page_offset = compute_mouse_event_page_offset(client_offset);
node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::mouseup, screen_position, page_offset, client_offset, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
auto page_offset = compute_mouse_event_page_offset(viewport_position);
auto offset = compute_mouse_event_offset(page_offset, *layout_node);
node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::mouseup, screen_position, page_offset, viewport_position, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
handled_event = EventResult::Handled;
bool run_activation_behavior = false;
if (node.ptr() == m_mousedown_target) {
if (button == UIEvents::MouseButton::Primary) {
run_activation_behavior = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::click, screen_position, page_offset, client_offset, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
run_activation_behavior = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::click, screen_position, page_offset, viewport_position, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
} else if (button == UIEvents::MouseButton::Middle) {
run_activation_behavior = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::auxclick, screen_position, page_offset, client_offset, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
run_activation_behavior = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::auxclick, screen_position, page_offset, viewport_position, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
} else if (button == UIEvents::MouseButton::Secondary) {
// Allow the user to bypass custom context menus by holding shift, like Firefox.
if ((modifiers & UIEvents::Mod_Shift) == 0)
run_activation_behavior = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::contextmenu, screen_position, page_offset, client_offset, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
run_activation_behavior = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::contextmenu, screen_position, page_offset, viewport_position, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
else
run_activation_behavior = true;
}
@ -378,8 +372,6 @@ EventResult EventHandler::handle_mousedown(CSSPixelPoint viewport_position, CSSP
if (!m_navigable->active_document()->is_fully_active())
return EventResult::Dropped;
auto position = viewport_position;
m_navigable->active_document()->update_layout();
if (!paint_root())
@ -390,7 +382,7 @@ EventResult EventHandler::handle_mousedown(CSSPixelPoint viewport_position, CSSP
{
GC::Ptr<Painting::Paintable> paintable;
if (auto result = target_for_mouse_position(position); result.has_value())
if (auto result = target_for_mouse_position(viewport_position); result.has_value())
paintable = result->paintable;
else
return EventResult::Dropped;
@ -403,7 +395,7 @@ EventResult EventHandler::handle_mousedown(CSSPixelPoint viewport_position, CSSP
document->set_hovered_node(node);
if (paintable->wants_mouse_events()) {
if (paintable->handle_mousedown({}, position, button, modifiers) == Painting::Paintable::DispatchEventOfSameName::No)
if (paintable->handle_mousedown({}, viewport_position, button, modifiers) == Painting::Paintable::DispatchEventOfSameName::No)
return EventResult::Cancelled;
}
@ -412,7 +404,7 @@ EventResult EventHandler::handle_mousedown(CSSPixelPoint viewport_position, CSSP
if (is<HTML::HTMLIFrameElement>(*node)) {
if (auto content_navigable = static_cast<HTML::HTMLIFrameElement&>(*node).content_navigable())
return content_navigable->event_handler().handle_mousedown(position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, button, buttons, modifiers);
return content_navigable->event_handler().handle_mousedown(viewport_position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, button, buttons, modifiers);
return EventResult::Dropped;
}
@ -426,10 +418,9 @@ EventResult EventHandler::handle_mousedown(CSSPixelPoint viewport_position, CSSP
return EventResult::Dropped;
m_mousedown_target = node.ptr();
auto offset = compute_mouse_event_offset(position, *layout_node);
auto client_offset = compute_mouse_event_client_offset(position);
auto page_offset = compute_mouse_event_page_offset(client_offset);
node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::mousedown, screen_position, page_offset, client_offset, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
auto page_offset = compute_mouse_event_page_offset(viewport_position);
auto offset = compute_mouse_event_offset(page_offset, *layout_node);
node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::mousedown, screen_position, page_offset, viewport_position, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
}
// NOTE: Dispatching an event may have disturbed the world.
@ -437,7 +428,7 @@ EventResult EventHandler::handle_mousedown(CSSPixelPoint viewport_position, CSSP
return EventResult::Accepted;
if (button == UIEvents::MouseButton::Primary) {
if (auto result = paint_root()->hit_test(position, Painting::HitTestType::TextCursor); result.has_value()) {
if (auto result = paint_root()->hit_test(viewport_position, Painting::HitTestType::TextCursor); result.has_value()) {
auto paintable = result->paintable;
auto dom_node = paintable->dom_node();
if (dom_node) {
@ -494,8 +485,6 @@ EventResult EventHandler::handle_mousemove(CSSPixelPoint viewport_position, CSSP
if (!m_navigable->active_document()->is_fully_active())
return EventResult::Dropped;
auto position = viewport_position;
m_navigable->active_document()->update_layout();
if (!paint_root())
@ -510,7 +499,7 @@ EventResult EventHandler::handle_mousemove(CSSPixelPoint viewport_position, CSSP
GC::Ptr<Painting::Paintable> paintable;
Optional<int> start_index;
if (auto result = target_for_mouse_position(position); result.has_value()) {
if (auto result = target_for_mouse_position(viewport_position); result.has_value()) {
paintable = result->paintable;
start_index = result->index_in_node;
}
@ -519,7 +508,7 @@ EventResult EventHandler::handle_mousemove(CSSPixelPoint viewport_position, CSSP
if (paintable) {
if (paintable->wants_mouse_events()) {
document.set_hovered_node(paintable->dom_node());
if (paintable->handle_mousemove({}, position, buttons, modifiers) == Painting::Paintable::DispatchEventOfSameName::No)
if (paintable->handle_mousemove({}, viewport_position, buttons, modifiers) == Painting::Paintable::DispatchEventOfSameName::No)
return EventResult::Cancelled;
// FIXME: It feels a bit aggressive to always update the cursor like this.
@ -530,7 +519,7 @@ EventResult EventHandler::handle_mousemove(CSSPixelPoint viewport_position, CSSP
if (node && is<HTML::HTMLIFrameElement>(*node)) {
if (auto content_navigable = static_cast<HTML::HTMLIFrameElement&>(*node).content_navigable())
return content_navigable->event_handler().handle_mousemove(position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, buttons, modifiers);
return content_navigable->event_handler().handle_mousemove(viewport_position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, buttons, modifiers);
return EventResult::Dropped;
}
@ -563,14 +552,13 @@ EventResult EventHandler::handle_mousemove(CSSPixelPoint viewport_position, CSSP
hovered_node_cursor = cursor_css_to_gfx(cursor);
}
auto offset = compute_mouse_event_offset(position, *layout_node);
auto client_offset = compute_mouse_event_client_offset(position);
auto page_offset = compute_mouse_event_page_offset(client_offset);
auto page_offset = compute_mouse_event_page_offset(viewport_position);
auto offset = compute_mouse_event_offset(page_offset, *layout_node);
auto movement = compute_mouse_event_movement(screen_position);
m_mousemove_previous_screen_position = screen_position;
bool continue_ = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::mousemove, screen_position, page_offset, client_offset, offset, movement, UIEvents::MouseButton::Primary, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
bool continue_ = node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::mousemove, screen_position, page_offset, viewport_position, offset, movement, UIEvents::MouseButton::Primary, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
if (!continue_)
return EventResult::Cancelled;
@ -580,7 +568,7 @@ EventResult EventHandler::handle_mousemove(CSSPixelPoint viewport_position, CSSP
}
if (m_in_mouse_selection) {
auto hit = paint_root()->hit_test(position, Painting::HitTestType::TextCursor);
auto hit = paint_root()->hit_test(viewport_position, Painting::HitTestType::TextCursor);
if (m_mouse_selection_target) {
if (hit.has_value()) {
m_mouse_selection_target->set_selection_focus(*hit->paintable->dom_node(), hit->index_in_node);
@ -635,16 +623,13 @@ EventResult EventHandler::handle_doubleclick(CSSPixelPoint viewport_position, CS
auto& document = *m_navigable->active_document();
auto scroll_offset = document.navigable()->viewport_scroll_offset();
auto position = viewport_position.translated(scroll_offset);
document.update_layout();
if (!paint_root())
return EventResult::Dropped;
GC::Ptr<Painting::Paintable> paintable;
if (auto result = target_for_mouse_position(position); result.has_value())
if (auto result = target_for_mouse_position(viewport_position); result.has_value())
paintable = result->paintable;
else
return EventResult::Dropped;
@ -665,7 +650,7 @@ EventResult EventHandler::handle_doubleclick(CSSPixelPoint viewport_position, CS
if (is<HTML::HTMLIFrameElement>(*node)) {
if (auto content_navigable = static_cast<HTML::HTMLIFrameElement&>(*node).content_navigable())
return content_navigable->event_handler().handle_doubleclick(position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, button, buttons, modifiers);
return content_navigable->event_handler().handle_doubleclick(viewport_position.translated(compute_mouse_event_offset({}, paintable->layout_node())), screen_position, button, buttons, modifiers);
return EventResult::Dropped;
}
@ -675,17 +660,16 @@ EventResult EventHandler::handle_doubleclick(CSSPixelPoint viewport_position, CS
if (!parent_element_for_event_dispatch(*paintable, node, layout_node))
return EventResult::Dropped;
auto offset = compute_mouse_event_offset(position, *layout_node);
auto client_offset = compute_mouse_event_client_offset(position);
auto page_offset = compute_mouse_event_page_offset(client_offset);
node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::dblclick, screen_position, page_offset, client_offset, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
auto page_offset = compute_mouse_event_page_offset(viewport_position);
auto offset = compute_mouse_event_offset(page_offset, *layout_node);
node->dispatch_event(UIEvents::MouseEvent::create_from_platform_event(node->realm(), UIEvents::EventNames::dblclick, screen_position, page_offset, viewport_position, offset, {}, button, buttons, modifiers).release_value_but_fixme_should_propagate_errors());
// NOTE: Dispatching an event may have disturbed the world.
if (!paint_root() || paint_root() != node->document().paintable_box())
return EventResult::Accepted;
if (button == UIEvents::MouseButton::Primary) {
if (auto result = paint_root()->hit_test(position, Painting::HitTestType::TextCursor); result.has_value()) {
if (auto result = paint_root()->hit_test(viewport_position, Painting::HitTestType::TextCursor); result.has_value()) {
if (!result->paintable->dom_node())
return EventResult::Accepted;
if (!is<Painting::TextPaintable>(*result->paintable))
@ -738,19 +722,18 @@ EventResult EventHandler::handle_drag_and_drop_event(DragEvent::Type type, CSSPi
return EventResult::Dropped;
}
auto offset = compute_mouse_event_offset(viewport_position, paintable->layout_node());
auto client_offset = compute_mouse_event_client_offset(viewport_position);
auto page_offset = compute_mouse_event_page_offset(client_offset);
auto page_offset = compute_mouse_event_page_offset(viewport_position);
auto offset = compute_mouse_event_offset(page_offset, paintable->layout_node());
switch (type) {
case DragEvent::Type::DragStart:
return m_drag_and_drop_event_handler->handle_drag_start(document.realm(), screen_position, page_offset, client_offset, offset, button, buttons, modifiers, move(files));
return m_drag_and_drop_event_handler->handle_drag_start(document.realm(), screen_position, page_offset, viewport_position, offset, button, buttons, modifiers, move(files));
case DragEvent::Type::DragMove:
return m_drag_and_drop_event_handler->handle_drag_move(document.realm(), document, *node, screen_position, page_offset, client_offset, offset, button, buttons, modifiers);
return m_drag_and_drop_event_handler->handle_drag_move(document.realm(), document, *node, screen_position, page_offset, viewport_position, offset, button, buttons, modifiers);
case DragEvent::Type::DragEnd:
return m_drag_and_drop_event_handler->handle_drag_leave(document.realm(), screen_position, page_offset, client_offset, offset, button, buttons, modifiers);
return m_drag_and_drop_event_handler->handle_drag_leave(document.realm(), screen_position, page_offset, viewport_position, offset, button, buttons, modifiers);
case DragEvent::Type::Drop:
return m_drag_and_drop_event_handler->handle_drop(document.realm(), screen_position, page_offset, client_offset, offset, button, buttons, modifiers);
return m_drag_and_drop_event_handler->handle_drop(document.realm(), screen_position, page_offset, viewport_position, offset, button, buttons, modifiers);
}
VERIFY_NOT_REACHED();
@ -1113,15 +1096,6 @@ void EventHandler::set_mouse_event_tracking_paintable(Painting::Paintable* paint
m_mouse_event_tracking_paintable = paintable;
}
CSSPixelPoint EventHandler::compute_mouse_event_client_offset(CSSPixelPoint event_page_position) const
{
// https://w3c.github.io/csswg-drafts/cssom-view/#dom-mouseevent-clientx
// The clientX attribute must return the x-coordinate of the position where the event occurred relative to the origin of the viewport.
auto scroll_offset = m_navigable->active_document()->navigable()->viewport_scroll_offset();
return event_page_position.translated(-scroll_offset);
}
CSSPixelPoint EventHandler::compute_mouse_event_page_offset(CSSPixelPoint event_client_offset) const
{
// https://w3c.github.io/csswg-drafts/cssom-view/#dom-mouseevent-pagex

4
Meta/Lagom/Tools/CodeGenerators/LibWeb/GenerateCSSPropertyID.cpp
View file

@ -402,6 +402,7 @@ ErrorOr<void> generate_implementation_file(JsonObject& properties, Core::File& f
#include <LibWeb/CSS/Enums.h>
#include <LibWeb/CSS/Parser/Parser.h>
#include <LibWeb/CSS/PropertyID.h>
#include <LibWeb/CSS/PropertyName.h>
#include <LibWeb/CSS/CSSStyleValue.h>
#include <LibWeb/CSS/StyleValues/PercentageStyleValue.h>
#include <LibWeb/CSS/StyleValues/TimeStyleValue.h>
@ -436,6 +437,9 @@ Optional<PropertyID> property_id_from_camel_case_string(StringView string)
Optional<PropertyID> property_id_from_string(StringView string)
{
if (is_a_custom_property_name_string(string))
return PropertyID::Custom;
if (Infra::is_ascii_case_insensitive_match(string, "all"sv))
return PropertyID::All;
)~~~");

7
Tests/LibGfx/TestColor.cpp
View file

@ -21,3 +21,10 @@ TEST_CASE(all_green)
EXPECT_EQ(Color(Color::NamedColor::Green), Color::from_xyz50(0.385152, 0.716887, 0.097081));
EXPECT_EQ(Color(Color::NamedColor::Green), Color::from_xyz65(0.357584, 0.715169, 0.119195));
}
TEST_CASE(hsv)
{
EXPECT_EQ(Color(51, 179, 51), Color::from_hsv(120, 0.714285714, .7));
EXPECT_EQ(Color(51, 179, 51, 128), Color::from_hsv(120, 0.714285714, .7).with_opacity(0.5));
EXPECT_EQ(Color(87, 128, 77), Color::from_hsv(108, 0.4, .5));
}

10
Tests/LibWeb/Ref/expected/wpt-import/css/css-color/hwb-004-ref.html Normal file
View file

@ -0,0 +1,10 @@
<!DOCTYPE html>
<meta charset="utf-8">
<title>CSS Color 4: CSS Color 4: hwb</title>
<style>
.test { background-color: rgb(20% 70% 20%); width: 12em; height: 12em; } /* hwb(120 20% 30%) converted to sRGB */
</style>
<body>
<p>Test passes if you see a single square, and not two rectangles of different colors.</p>
<div class="test"></div>
</body>

17
Tests/LibWeb/Ref/input/wpt-import/css/css-color/hwb-004.html Normal file
View file

@ -0,0 +1,17 @@
<!DOCTYPE html>
<meta charset="utf-8">
<title>CSS Color 4: hwb</title>
<link rel="author" title="Sam Weinig" href="mailto:weinig@apple.com">
<link rel="help" href="https://drafts.csswg.org/css-color-4/#the-hwb-notation">
<link rel="match" href="../../../../expected/wpt-import/css/css-color/hwb-004-ref.html">
<meta name="assert" content="hwb with no alpha">
<style>
.test { background-color: red; width: 12em; height: 6em; margin-top: 0; }
.ref { background-color: rgb(20% 70% 20%); width: 12em; height: 6em; margin-bottom: 0; } /* hwb(120 20% 30%) converted to sRGB */
.test { background-color: hwb(120 20% 30%); }
</style>
<body>
<p>Test passes if you see a single square, and not two rectangles of different colors.</p>
<div class="ref"></div>
<div class="test"></div>
</body>

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10
Tests/LibWeb/Text/expected/CSSOMView/mouse-event-x-y-values.txt Normal file
View file

@ -0,0 +1,10 @@
x: 50
y: 50
screenX: 50
screenY: 50
clientX: 50
clientY: 50
pageX: 50
pageY: 60
offsetX: 42
offsetY: 52

4
Tests/LibWeb/Text/expected/css/CSSStyleDeclaration-custom-properties.txt Normal file
View file

@ -0,0 +1,4 @@
style.getPropertyValue(--redcolor)=red
style.getPropertyPriority(--redcolor)=
rgb(255, 0, 0)
rgba(0, 0, 0, 0)

487
Tests/LibWeb/Text/expected/wpt-import/WebCryptoAPI/generateKey/failures_ECDH.https.any.txt Normal file
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Summary
Harness status: OK
Rerun
Found 476 tests
410 Pass
66 Fail
Details
Result Test Name MessagePass Bad algorithm: generateKey(AES, false, [decrypt])
Pass Bad algorithm: generateKey(AES, true, [decrypt])
Pass Bad algorithm: generateKey(AES, RED, [decrypt])
Pass Bad algorithm: generateKey(AES, 7, [decrypt])
Pass Bad algorithm: generateKey(AES, false, [sign, decrypt])
Pass Bad algorithm: generateKey(AES, true, [sign, decrypt])
Pass Bad algorithm: generateKey(AES, RED, [sign, decrypt])
Pass Bad algorithm: generateKey(AES, 7, [sign, decrypt])
Pass Bad algorithm: generateKey(AES, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey(AES, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey(AES, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey(AES, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey(AES, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey(AES, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey(AES, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey(AES, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey(AES, false, [sign])
Pass Bad algorithm: generateKey(AES, true, [sign])
Pass Bad algorithm: generateKey(AES, RED, [sign])
Pass Bad algorithm: generateKey(AES, 7, [sign])
Pass Bad algorithm: generateKey(AES, false, [deriveBits, sign])
Pass Bad algorithm: generateKey(AES, true, [deriveBits, sign])
Pass Bad algorithm: generateKey(AES, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey(AES, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey(AES, false, [deriveBits])
Pass Bad algorithm: generateKey(AES, true, [deriveBits])
Pass Bad algorithm: generateKey(AES, RED, [deriveBits])
Pass Bad algorithm: generateKey(AES, 7, [deriveBits])
Pass Bad algorithm: generateKey(AES, false, [])
Pass Bad algorithm: generateKey(AES, true, [])
Pass Bad algorithm: generateKey(AES, RED, [])
Pass Bad algorithm: generateKey(AES, 7, [])
Pass Bad algorithm: generateKey(AES, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey(AES, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey(AES, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey(AES, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: AES}, false, [decrypt])
Pass Bad algorithm: generateKey({name: AES}, true, [decrypt])
Pass Bad algorithm: generateKey({name: AES}, RED, [decrypt])
Pass Bad algorithm: generateKey({name: AES}, 7, [decrypt])
Pass Bad algorithm: generateKey({name: AES}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: AES}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: AES}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: AES}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: AES}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: AES}, false, [sign])
Pass Bad algorithm: generateKey({name: AES}, true, [sign])
Pass Bad algorithm: generateKey({name: AES}, RED, [sign])
Pass Bad algorithm: generateKey({name: AES}, 7, [sign])
Pass Bad algorithm: generateKey({name: AES}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: AES}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: AES}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: AES}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: AES}, false, [deriveBits])
Pass Bad algorithm: generateKey({name: AES}, true, [deriveBits])
Pass Bad algorithm: generateKey({name: AES}, RED, [deriveBits])
Pass Bad algorithm: generateKey({name: AES}, 7, [deriveBits])
Pass Bad algorithm: generateKey({name: AES}, false, [])
Pass Bad algorithm: generateKey({name: AES}, true, [])
Pass Bad algorithm: generateKey({name: AES}, RED, [])
Pass Bad algorithm: generateKey({name: AES}, 7, [])
Pass Bad algorithm: generateKey({name: AES}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: AES}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: AES}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: AES}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [])
Pass Bad algorithm: generateKey({length: 128, name: AES}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CMAC}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({length: 128, name: AES-CFB}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [deriveBits, sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [deriveBits, sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [deriveBits, sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [deriveBits, sign, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [deriveBits, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [deriveBits, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [deriveBits, decrypt])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [sign])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [sign])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [sign])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [sign])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [deriveBits, sign])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [deriveBits, sign])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [deriveBits, sign])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [deriveBits, sign])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [deriveBits])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [])
Pass Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Bad algorithm: generateKey({hash: MD5, name: HMAC}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA-256, modulusLength: 2048, name: RSA, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({hash: SHA, modulusLength: 2048, name: RSA-PSS, publicExponent: {0: 1, 1: 0, 2: 1}}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [deriveBits, sign, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [deriveBits, decrypt])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [deriveBits, sign])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad algorithm: generateKey({name: EC, namedCurve: P521}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Empty algorithm: generateKey({}, false, [decrypt])
Fail Empty algorithm: generateKey({}, true, [decrypt])
Fail Empty algorithm: generateKey({}, RED, [decrypt])
Fail Empty algorithm: generateKey({}, 7, [decrypt])
Fail Empty algorithm: generateKey({}, false, [sign, decrypt])
Fail Empty algorithm: generateKey({}, true, [sign, decrypt])
Fail Empty algorithm: generateKey({}, RED, [sign, decrypt])
Fail Empty algorithm: generateKey({}, 7, [sign, decrypt])
Fail Empty algorithm: generateKey({}, false, [deriveBits, sign, decrypt])
Fail Empty algorithm: generateKey({}, true, [deriveBits, sign, decrypt])
Fail Empty algorithm: generateKey({}, RED, [deriveBits, sign, decrypt])
Fail Empty algorithm: generateKey({}, 7, [deriveBits, sign, decrypt])
Fail Empty algorithm: generateKey({}, false, [deriveBits, decrypt])
Fail Empty algorithm: generateKey({}, true, [deriveBits, decrypt])
Fail Empty algorithm: generateKey({}, RED, [deriveBits, decrypt])
Fail Empty algorithm: generateKey({}, 7, [deriveBits, decrypt])
Fail Empty algorithm: generateKey({}, false, [sign])
Fail Empty algorithm: generateKey({}, true, [sign])
Fail Empty algorithm: generateKey({}, RED, [sign])
Fail Empty algorithm: generateKey({}, 7, [sign])
Fail Empty algorithm: generateKey({}, false, [deriveBits, sign])
Fail Empty algorithm: generateKey({}, true, [deriveBits, sign])
Fail Empty algorithm: generateKey({}, RED, [deriveBits, sign])
Fail Empty algorithm: generateKey({}, 7, [deriveBits, sign])
Fail Empty algorithm: generateKey({}, false, [deriveBits])
Fail Empty algorithm: generateKey({}, true, [deriveBits])
Fail Empty algorithm: generateKey({}, RED, [deriveBits])
Fail Empty algorithm: generateKey({}, 7, [deriveBits])
Fail Empty algorithm: generateKey({}, false, [])
Fail Empty algorithm: generateKey({}, true, [])
Fail Empty algorithm: generateKey({}, RED, [])
Fail Empty algorithm: generateKey({}, 7, [])
Fail Empty algorithm: generateKey({}, false, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Empty algorithm: generateKey({}, true, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Empty algorithm: generateKey({}, RED, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Fail Empty algorithm: generateKey({}, 7, [decrypt, sign, deriveBits, decrypt, sign, deriveBits])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, encrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, decrypt])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, sign])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, verify])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, wrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, unwrapKey])
Pass Bad usages: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits, unwrapKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, false, [deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, true, [deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, false, [deriveBits, deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, true, [deriveBits, deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, false, [deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, true, [deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, false, [])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, true, [])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: P-512}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, false, [deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, true, [deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, false, [deriveBits, deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, true, [deriveBits, deriveKey])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, false, [deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, true, [deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, false, [])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, true, [])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Pass Bad algorithm property: generateKey({name: ECDH, namedCurve: Curve25519}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Pass Empty usages: generateKey({name: ECDH, namedCurve: P-256}, false, [])
Pass Empty usages: generateKey({name: ECDH, namedCurve: P-256}, true, [])
Pass Empty usages: generateKey({name: ECDH, namedCurve: P-384}, false, [])
Pass Empty usages: generateKey({name: ECDH, namedCurve: P-384}, true, [])
Fail Empty usages: generateKey({name: ECDH, namedCurve: P-521}, false, [])
Fail Empty usages: generateKey({name: ECDH, namedCurve: P-521}, true, [])

82
Tests/LibWeb/Text/expected/wpt-import/WebCryptoAPI/generateKey/successes_ECDH.https.any.txt Normal file
View file

@ -0,0 +1,82 @@
Summary
Harness status: OK
Rerun
Found 72 tests
72 Fail
Details
Result Test Name MessageFail Success: generateKey({name: ECDH, namedCurve: P-256}, false, [deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, false, [deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, false, [deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, false, [deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, false, [deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, false, [deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ECDH, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, false, [deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, true, [deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, false, [deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, true, [deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, false, [deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, true, [deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, false, [deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, true, [deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, false, [deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, true, [deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, false, [deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, true, [deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: ecdh, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, false, [deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, true, [deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, false, [deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, true, [deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-256}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, false, [deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, true, [deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, false, [deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, true, [deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-384}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, false, [deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, true, [deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, false, [deriveBits, deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, true, [deriveBits, deriveKey])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, false, [deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, true, [deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, false, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])
Fail Success: generateKey({name: Ecdh, namedCurve: P-521}, true, [deriveKey, deriveBits, deriveKey, deriveBits, deriveKey, deriveBits])

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<!DOCTYPE html>
<style>
div {
width: 100px;
height: 100px;
background-color: gray;
}
body {
height: 200vh;
}
</style>
<div onClick="
println(`x: ${event.x}`);
println(`y: ${event.y}`);
println(`screenX: ${event.screenX}`);
println(`screenY: ${event.screenY}`);
println(`clientX: ${event.clientX}`);
println(`clientY: ${event.clientY}`);
println(`pageX: ${event.pageX}`);
println(`pageY: ${event.pageY}`);
println(`offsetX: ${event.offsetX}`);
println(`offsetY: ${event.offsetY}`);
"></div>
<script src="../include.js"></script>
<script>
test(() => {
window.scrollBy(0, 10)
internals.click(50, 50);
});
</script>

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<!DOCTYPE html>
<script src="../include.js"></script>
<body></body>
<script>
test(() => {
const div = document.createElement('div');
div.style.setProperty("--redcolor", "red");
println(`style.getPropertyValue(--redcolor)=${div.style.getPropertyValue("--redcolor")}`);
println(`style.getPropertyPriority(--redcolor)=${div.style.getPropertyPriority("--redcolor")}`);
const nested = document.createElement('div');
nested.style["backgroundColor"] = "var(--redcolor)";
nested.style["width"] = "100px";
nested.style["height"] = "100px";
div.appendChild(nested);
document.body.appendChild(div);
println(getComputedStyle(nested).backgroundColor);
div.style.removeProperty("--redcolor");
println(getComputedStyle(nested).backgroundColor);
});
</script>

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function run_test(algorithmNames) {
var subtle = crypto.subtle; // Change to test prefixed implementations
setup({explicit_timeout: true});
// These tests check that generateKey throws an error, and that
// the error is of the right type, for a wide set of incorrect parameters.
//
// Error testing occurs by setting the parameter that should trigger the
// error to an invalid value, then combining that with all valid
// parameters that should be checked earlier by generateKey, and all
// valid and invalid parameters that should be checked later by
// generateKey.
//
// There are a lot of combinations of possible parameters for both
// success and failure modes, resulting in a very large number of tests
// performed.
// Setup: define the correct behaviors that should be sought, and create
// helper functions that generate all possible test parameters for
// different situations.
var allTestVectors = [ // Parameters that should work for generateKey
{name: "AES-CTR", resultType: CryptoKey, usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "AES-CBC", resultType: CryptoKey, usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "AES-GCM", resultType: CryptoKey, usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "AES-KW", resultType: CryptoKey, usages: ["wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "HMAC", resultType: CryptoKey, usages: ["sign", "verify"], mandatoryUsages: []},
{name: "RSASSA-PKCS1-v1_5", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "RSA-PSS", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "RSA-OAEP", resultType: "CryptoKeyPair", usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: ["decrypt", "unwrapKey"]},
{name: "ECDSA", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "ECDH", resultType: "CryptoKeyPair", usages: ["deriveKey", "deriveBits"], mandatoryUsages: ["deriveKey", "deriveBits"]},
{name: "Ed25519", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "Ed448", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "X25519", resultType: "CryptoKeyPair", usages: ["deriveKey", "deriveBits"], mandatoryUsages: ["deriveKey", "deriveBits"]},
{name: "X448", resultType: "CryptoKeyPair", usages: ["deriveKey", "deriveBits"], mandatoryUsages: ["deriveKey", "deriveBits"]},
];
var testVectors = [];
if (algorithmNames && !Array.isArray(algorithmNames)) {
algorithmNames = [algorithmNames];
};
allTestVectors.forEach(function(vector) {
if (!algorithmNames || algorithmNames.includes(vector.name)) {
testVectors.push(vector);
}
});
function parameterString(algorithm, extractable, usages) {
if (typeof algorithm !== "object" && typeof algorithm !== "string") {
alert(algorithm);
}
var result = "(" +
objectToString(algorithm) + ", " +
objectToString(extractable) + ", " +
objectToString(usages) +
")";
return result;
}
// Test that a given combination of parameters results in an error,
// AND that it is the correct kind of error.
//
// Expected error is either a number, tested against the error code,
// or a string, tested against the error name.
function testError(algorithm, extractable, usages, expectedError, testTag) {
promise_test(function(test) {
return crypto.subtle.generateKey(algorithm, extractable, usages)
.then(function(result) {
assert_unreached("Operation succeeded, but should not have");
}, function(err) {
if (typeof expectedError === "number") {
assert_equals(err.code, expectedError, testTag + " not supported");
} else {
assert_equals(err.name, expectedError, testTag + " not supported");
}
});
}, testTag + ": generateKey" + parameterString(algorithm, extractable, usages));
}
// Given an algorithm name, create several invalid parameters.
function badAlgorithmPropertySpecifiersFor(algorithmName) {
var results = [];
if (algorithmName.toUpperCase().substring(0, 3) === "AES") {
// Specifier properties are name and length
[64, 127, 129, 255, 257, 512].forEach(function(length) {
results.push({name: algorithmName, length: length});
});
} else if (algorithmName.toUpperCase().substring(0, 3) === "RSA") {
[new Uint8Array([1]), new Uint8Array([1,0,0])].forEach(function(publicExponent) {
results.push({name: algorithmName, hash: "SHA-256", modulusLength: 1024, publicExponent: publicExponent});
});
} else if (algorithmName.toUpperCase().substring(0, 2) === "EC") {
["P-512", "Curve25519"].forEach(function(curveName) {
results.push({name: algorithmName, namedCurve: curveName});
});
}
return results;
}
// Don't create an exhaustive list of all invalid usages,
// because there would usually be nearly 2**8 of them,
// way too many to test. Instead, create every singleton
// of an illegal usage, and "poison" every valid usage
// with an illegal one.
function invalidUsages(validUsages, mandatoryUsages) {
var results = [];
var illegalUsages = [];
["encrypt", "decrypt", "sign", "verify", "wrapKey", "unwrapKey", "deriveKey", "deriveBits"].forEach(function(usage) {
if (!validUsages.includes(usage)) {
illegalUsages.push(usage);
}
});
var goodUsageCombinations = allValidUsages(validUsages, false, mandatoryUsages);
illegalUsages.forEach(function(illegalUsage) {
results.push([illegalUsage]);
goodUsageCombinations.forEach(function(usageCombination) {
results.push(usageCombination.concat([illegalUsage]));
});
});
return results;
}
// Now test for properly handling errors
// - Unsupported algorithm
// - Bad usages for algorithm
// - Bad key lengths
// Algorithm normalization should fail with "Not supported"
var badAlgorithmNames = [
"AES",
{name: "AES"},
{name: "AES", length: 128},
{name: "AES-CMAC", length: 128}, // Removed after CR
{name: "AES-CFB", length: 128}, // Removed after CR
{name: "HMAC", hash: "MD5"},
{name: "RSA", hash: "SHA-256", modulusLength: 2048, publicExponent: new Uint8Array([1,0,1])},
{name: "RSA-PSS", hash: "SHA", modulusLength: 2048, publicExponent: new Uint8Array([1,0,1])},
{name: "EC", namedCurve: "P521"}
];
// Algorithm normalization failures should be found first
// - all other parameters can be good or bad, should fail
// due to NotSupportedError.
badAlgorithmNames.forEach(function(algorithm) {
allValidUsages(["decrypt", "sign", "deriveBits"], true, []) // Small search space, shouldn't matter because should fail before used
.forEach(function(usages) {
[false, true, "RED", 7].forEach(function(extractable){
testError(algorithm, extractable, usages, "NotSupportedError", "Bad algorithm");
});
});
});
// Empty algorithm should fail with TypeError
allValidUsages(["decrypt", "sign", "deriveBits"], true, []) // Small search space, shouldn't matter because should fail before used
.forEach(function(usages) {
[false, true, "RED", 7].forEach(function(extractable){
testError({}, extractable, usages, "TypeError", "Empty algorithm");
});
});
// Algorithms normalize okay, but usages bad (though not empty).
// It shouldn't matter what other extractable is. Should fail
// due to SyntaxError
testVectors.forEach(function(vector) {
var name = vector.name;
allAlgorithmSpecifiersFor(name).forEach(function(algorithm) {
invalidUsages(vector.usages, vector.mandatoryUsages).forEach(function(usages) {
[true].forEach(function(extractable) {
testError(algorithm, extractable, usages, "SyntaxError", "Bad usages");
});
});
});
});
// Other algorithm properties should be checked next, so try good
// algorithm names and usages, but bad algorithm properties next.
// - Special case: normally bad usage [] isn't checked until after properties,
// so it's included in this test case. It should NOT cause an error.
testVectors.forEach(function(vector) {
var name = vector.name;
badAlgorithmPropertySpecifiersFor(name).forEach(function(algorithm) {
allValidUsages(vector.usages, true, vector.mandatoryUsages)
.forEach(function(usages) {
[false, true].forEach(function(extractable) {
if (name.substring(0,2) === "EC") {
testError(algorithm, extractable, usages, "NotSupportedError", "Bad algorithm property");
} else {
testError(algorithm, extractable, usages, "OperationError", "Bad algorithm property");
}
});
});
});
});
// The last thing that should be checked is empty usages (disallowed for secret and private keys).
testVectors.forEach(function(vector) {
var name = vector.name;
allAlgorithmSpecifiersFor(name).forEach(function(algorithm) {
var usages = [];
[false, true].forEach(function(extractable) {
testError(algorithm, extractable, usages, "SyntaxError", "Empty usages");
});
});
});
}

17
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<!doctype html>
<meta charset=utf-8>
<title>WebCryptoAPI: generateKey() for Failures</title>
<meta name="timeout" content="long">
<script>
self.GLOBAL = {
isWindow: function() { return true; },
isWorker: function() { return false; },
isShadowRealm: function() { return false; },
};
</script>
<script src="../../resources/testharness.js"></script>
<script src="../../resources/testharnessreport.js"></script>
<script src="../util/helpers.js"></script>
<script src="failures.js"></script>
<div id=log></div>
<script src="../../WebCryptoAPI/generateKey/failures_ECDH.https.any.js"></script>

5
Tests/LibWeb/Text/input/wpt-import/WebCryptoAPI/generateKey/failures_ECDH.https.any.js Normal file
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// META: title=WebCryptoAPI: generateKey() for Failures
// META: timeout=long
// META: script=../util/helpers.js
// META: script=failures.js
run_test(["ECDH"]);

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function run_test(algorithmNames, slowTest) {
var subtle = crypto.subtle; // Change to test prefixed implementations
setup({explicit_timeout: true});
// These tests check that generateKey successfully creates keys
// when provided any of a wide set of correct parameters
// and that they can be exported afterwards.
//
// There are a lot of combinations of possible parameters,
// resulting in a very large number of tests
// performed.
// Setup: define the correct behaviors that should be sought, and create
// helper functions that generate all possible test parameters for
// different situations.
var allTestVectors = [ // Parameters that should work for generateKey
{name: "AES-CTR", resultType: CryptoKey, usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "AES-CBC", resultType: CryptoKey, usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "AES-GCM", resultType: CryptoKey, usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "AES-KW", resultType: CryptoKey, usages: ["wrapKey", "unwrapKey"], mandatoryUsages: []},
{name: "HMAC", resultType: CryptoKey, usages: ["sign", "verify"], mandatoryUsages: []},
{name: "RSASSA-PKCS1-v1_5", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "RSA-PSS", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "RSA-OAEP", resultType: "CryptoKeyPair", usages: ["encrypt", "decrypt", "wrapKey", "unwrapKey"], mandatoryUsages: ["decrypt", "unwrapKey"]},
{name: "ECDSA", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "ECDH", resultType: "CryptoKeyPair", usages: ["deriveKey", "deriveBits"], mandatoryUsages: ["deriveKey", "deriveBits"]},
{name: "Ed25519", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "Ed448", resultType: "CryptoKeyPair", usages: ["sign", "verify"], mandatoryUsages: ["sign"]},
{name: "X25519", resultType: "CryptoKeyPair", usages: ["deriveKey", "deriveBits"], mandatoryUsages: ["deriveKey", "deriveBits"]},
{name: "X448", resultType: "CryptoKeyPair", usages: ["deriveKey", "deriveBits"], mandatoryUsages: ["deriveKey", "deriveBits"]},
];
var testVectors = [];
if (algorithmNames && !Array.isArray(algorithmNames)) {
algorithmNames = [algorithmNames];
};
allTestVectors.forEach(function(vector) {
if (!algorithmNames || algorithmNames.includes(vector.name)) {
testVectors.push(vector);
}
});
function parameterString(algorithm, extractable, usages) {
var result = "(" +
objectToString(algorithm) + ", " +
objectToString(extractable) + ", " +
objectToString(usages) +
")";
return result;
}
// Test that a given combination of parameters is successful
function testSuccess(algorithm, extractable, usages, resultType, testTag) {
// algorithm, extractable, and usages are the generateKey parameters
// resultType is the expected result, either the CryptoKey object or "CryptoKeyPair"
// testTag is a string to prepend to the test name.
promise_test(function(test) {
return subtle.generateKey(algorithm, extractable, usages)
.then(function(result) {
if (resultType === "CryptoKeyPair") {
assert_goodCryptoKey(result.privateKey, algorithm, extractable, usages, "private");
assert_goodCryptoKey(result.publicKey, algorithm, true, usages, "public");
} else {
assert_goodCryptoKey(result, algorithm, extractable, usages, "secret");
}
return result;
}, function(err) {
assert_unreached("generateKey threw an unexpected error: " + err.toString());
})
.then(async function (result) {
if (resultType === "CryptoKeyPair") {
await Promise.all([
subtle.exportKey('jwk', result.publicKey),
subtle.exportKey('spki', result.publicKey),
result.publicKey.algorithm.name.startsWith('RSA') ? undefined : subtle.exportKey('raw', result.publicKey),
...(extractable ? [
subtle.exportKey('jwk', result.privateKey),
subtle.exportKey('pkcs8', result.privateKey),
] : [])
]);
} else {
if (extractable) {
await Promise.all([
subtle.exportKey('raw', result),
subtle.exportKey('jwk', result),
]);
}
}
}, function(err) {
assert_unreached("exportKey threw an unexpected error: " + err.toString());
})
}, testTag + ": generateKey" + parameterString(algorithm, extractable, usages));
}
// Test all valid sets of parameters for successful
// key generation.
testVectors.forEach(function(vector) {
allNameVariants(vector.name, slowTest).forEach(function(name) {
allAlgorithmSpecifiersFor(name).forEach(function(algorithm) {
allValidUsages(vector.usages, false, vector.mandatoryUsages).forEach(function(usages) {
[false, true].forEach(function(extractable) {
subsetTest(testSuccess, algorithm, extractable, usages, vector.resultType, "Success");
});
});
});
});
});
}

18
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<!doctype html>
<meta charset=utf-8>
<title>WebCryptoAPI: generateKey() Successful Calls</title>
<meta name="timeout" content="long">
<script>
self.GLOBAL = {
isWindow: function() { return true; },
isWorker: function() { return false; },
isShadowRealm: function() { return false; },
};
</script>
<script src="../../resources/testharness.js"></script>
<script src="../../resources/testharnessreport.js"></script>
<script src="../util/helpers.js"></script>
<script src="../../common/subset-tests.js"></script>
<script src="successes.js"></script>
<div id=log></div>
<script src="../../WebCryptoAPI/generateKey/successes_ECDH.https.any.js"></script>

6
Tests/LibWeb/Text/input/wpt-import/WebCryptoAPI/generateKey/successes_ECDH.https.any.js Normal file
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// META: title=WebCryptoAPI: generateKey() Successful Calls
// META: timeout=long
// META: script=../util/helpers.js
// META: script=/common/subset-tests.js
// META: script=successes.js
run_test(["ECDH"]);

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//
// helpers.js
//
// Helper functions used by several WebCryptoAPI tests
//
var registeredAlgorithmNames = [
"RSASSA-PKCS1-v1_5",
"RSA-PSS",
"RSA-OAEP",
"ECDSA",
"ECDH",
"AES-CTR",
"AES-CBC",
"AES-GCM",
"AES-KW",
"HMAC",
"SHA-1",
"SHA-256",
"SHA-384",
"SHA-512",
"HKDF",
"PBKDF2",
"Ed25519",
"Ed448",
"X25519",
"X448"
];
// Treats an array as a set, and generates an array of all non-empty
// subsets (which are themselves arrays).
//
// The order of members of the "subsets" is not guaranteed.
function allNonemptySubsetsOf(arr) {
var results = [];
var firstElement;
var remainingElements;
for(var i=0; i<arr.length; i++) {
firstElement = arr[i];
remainingElements = arr.slice(i+1);
results.push([firstElement]);
if (remainingElements.length > 0) {
allNonemptySubsetsOf(remainingElements).forEach(function(combination) {
combination.push(firstElement);
results.push(combination);
});
}
}
return results;
}
// Create a string representation of keyGeneration parameters for
// test names and labels.
function objectToString(obj) {
var keyValuePairs = [];
if (Array.isArray(obj)) {
return "[" + obj.map(function(elem){return objectToString(elem);}).join(", ") + "]";
} else if (typeof obj === "object") {
Object.keys(obj).sort().forEach(function(keyName) {
keyValuePairs.push(keyName + ": " + objectToString(obj[keyName]));
});
return "{" + keyValuePairs.join(", ") + "}";
} else if (typeof obj === "undefined") {
return "undefined";
} else {
return obj.toString();
}
var keyValuePairs = [];
Object.keys(obj).sort().forEach(function(keyName) {
var value = obj[keyName];
if (typeof value === "object") {
value = objectToString(value);
} else if (typeof value === "array") {
value = "[" + value.map(function(elem){return objectToString(elem);}).join(", ") + "]";
} else {
value = value.toString();
}
keyValuePairs.push(keyName + ": " + value);
});
return "{" + keyValuePairs.join(", ") + "}";
}
// Is key a CryptoKey object with correct algorithm, extractable, and usages?
// Is it a secret, private, or public kind of key?
function assert_goodCryptoKey(key, algorithm, extractable, usages, kind) {
var correctUsages = [];
var registeredAlgorithmName;
registeredAlgorithmNames.forEach(function(name) {
if (name.toUpperCase() === algorithm.name.toUpperCase()) {
registeredAlgorithmName = name;
}
});
assert_equals(key.constructor, CryptoKey, "Is a CryptoKey");
assert_equals(key.type, kind, "Is a " + kind + " key");
assert_equals(key.extractable, extractable, "Extractability is correct");
assert_equals(key.algorithm.name, registeredAlgorithmName, "Correct algorithm name");
if (key.algorithm.name.toUpperCase() === "HMAC" && algorithm.length === undefined) {
switch (key.algorithm.hash.name.toUpperCase()) {
case 'SHA-1':
case 'SHA-256':
assert_equals(key.algorithm.length, 512, "Correct length");
break;
case 'SHA-384':
case 'SHA-512':
assert_equals(key.algorithm.length, 1024, "Correct length");
break;
default:
assert_unreached("Unrecognized hash");
}
} else {
assert_equals(key.algorithm.length, algorithm.length, "Correct length");
}
if (["HMAC", "RSASSA-PKCS1-v1_5", "RSA-PSS"].includes(registeredAlgorithmName)) {
assert_equals(key.algorithm.hash.name.toUpperCase(), algorithm.hash.toUpperCase(), "Correct hash function");
}
if (/^(?:Ed|X)(?:25519|448)$/.test(key.algorithm.name)) {
assert_false('namedCurve' in key.algorithm, "Does not have a namedCurve property");
}
// usages is expected to be provided for a key pair, but we are checking
// only a single key. The publicKey and privateKey portions of a key pair
// recognize only some of the usages appropriate for a key pair.
if (key.type === "public") {
["encrypt", "verify", "wrapKey"].forEach(function(usage) {
if (usages.includes(usage)) {
correctUsages.push(usage);
}
});
} else if (key.type === "private") {
["decrypt", "sign", "unwrapKey", "deriveKey", "deriveBits"].forEach(function(usage) {
if (usages.includes(usage)) {
correctUsages.push(usage);
}
});
} else {
correctUsages = usages;
}
assert_equals((typeof key.usages), "object", key.type + " key.usages is an object");
assert_not_equals(key.usages, null, key.type + " key.usages isn't null");
// The usages parameter could have repeats, but the usages
// property of the result should not.
var usageCount = 0;
key.usages.forEach(function(usage) {
usageCount += 1;
assert_in_array(usage, correctUsages, "Has " + usage + " usage");
});
assert_equals(key.usages.length, usageCount, "usages property is correct");
assert_equals(key[Symbol.toStringTag], 'CryptoKey', "has the expected Symbol.toStringTag");
}
// The algorithm parameter is an object with a name and other
// properties. Given the name, generate all valid parameters.
function allAlgorithmSpecifiersFor(algorithmName) {
var results = [];
// RSA key generation is slow. Test a minimal set of parameters
var hashes = ["SHA-1", "SHA-256"];
// EC key generation is a lot faster. Check all curves in the spec
var curves = ["P-256", "P-384", "P-521"];
if (algorithmName.toUpperCase().substring(0, 3) === "AES") {
// Specifier properties are name and length
[128, 192, 256].forEach(function(length) {
results.push({name: algorithmName, length: length});
});
} else if (algorithmName.toUpperCase() === "HMAC") {
[
{hash: "SHA-1", length: 160},
{hash: "SHA-256", length: 256},
{hash: "SHA-384", length: 384},
{hash: "SHA-512", length: 512},
{hash: "SHA-1"},
{hash: "SHA-256"},
{hash: "SHA-384"},
{hash: "SHA-512"},
].forEach(function(hashAlgorithm) {
results.push({name: algorithmName, ...hashAlgorithm});
});
} else if (algorithmName.toUpperCase().substring(0, 3) === "RSA") {
hashes.forEach(function(hashName) {
results.push({name: algorithmName, hash: hashName, modulusLength: 2048, publicExponent: new Uint8Array([1,0,1])});
});
} else if (algorithmName.toUpperCase().substring(0, 2) === "EC") {
curves.forEach(function(curveName) {
results.push({name: algorithmName, namedCurve: curveName});
});
} else if (algorithmName.toUpperCase().substring(0, 1) === "X" || algorithmName.toUpperCase().substring(0, 2) === "ED") {
results.push({ name: algorithmName });
}
return results;
}
// Create every possible valid usages parameter, given legal
// usages. Note that an empty usages parameter is not always valid.
//
// There is an optional parameter - mandatoryUsages. If provided,
// it should be an array containing those usages of which one must be
// included.
function allValidUsages(validUsages, emptyIsValid, mandatoryUsages) {
if (typeof mandatoryUsages === "undefined") {
mandatoryUsages = [];
}
var okaySubsets = [];
allNonemptySubsetsOf(validUsages).forEach(function(subset) {
if (mandatoryUsages.length === 0) {
okaySubsets.push(subset);
} else {
for (var i=0; i<mandatoryUsages.length; i++) {
if (subset.includes(mandatoryUsages[i])) {
okaySubsets.push(subset);
return;
}
}
}
});
if (emptyIsValid && validUsages.length !== 0) {
okaySubsets.push([]);
}
okaySubsets.push(validUsages.concat(mandatoryUsages).concat(validUsages)); // Repeated values are allowed
return okaySubsets;
}
function unique(names) {
return [...new Set(names)];
}
// Algorithm name specifiers are case-insensitive. Generate several
// case variations of a given name.
function allNameVariants(name, slowTest) {
var upCaseName = name.toUpperCase();
var lowCaseName = name.toLowerCase();
var mixedCaseName = upCaseName.substring(0, 1) + lowCaseName.substring(1);
// for slow tests effectively cut the amount of work in third by only
// returning one variation
if (slowTest) return [mixedCaseName];
return unique([upCaseName, lowCaseName, mixedCaseName]);
}
// Builds a hex string representation for an array-like input.
// "bytes" can be an Array of bytes, an ArrayBuffer, or any TypedArray.
// The output looks like this:
// ab034c99
function bytesToHexString(bytes)
{
if (!bytes)
return null;
bytes = new Uint8Array(bytes);
var hexBytes = [];
for (var i = 0; i < bytes.length; ++i) {
var byteString = bytes[i].toString(16);
if (byteString.length < 2)
byteString = "0" + byteString;
hexBytes.push(byteString);
}
return hexBytes.join("");
}
function hexStringToUint8Array(hexString)
{
if (hexString.length % 2 != 0)
throw "Invalid hexString";
var arrayBuffer = new Uint8Array(hexString.length / 2);
for (var i = 0; i < hexString.length; i += 2) {
var byteValue = parseInt(hexString.substr(i, 2), 16);
if (byteValue == NaN)
throw "Invalid hexString";
arrayBuffer[i/2] = byteValue;
}
return arrayBuffer;
}

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(function() {
var subTestStart = 0;
var subTestEnd = Infinity;
var match;
if (location.search) {
match = /(?:^\?|&)(\d+)-(\d+|last)(?:&|$)/.exec(location.search);
if (match) {
subTestStart = parseInt(match[1], 10);
if (match[2] !== "last") {
subTestEnd = parseInt(match[2], 10);
}
}
// Below is utility code to generate <meta> for copy/paste into tests.
// Sample usage:
// test.html?split=1000
match = /(?:^\?|&)split=(\d+)(?:&|$)/.exec(location.search);
if (match) {
var testsPerVariant = parseInt(match[1], 10);
add_completion_callback(tests => {
var total = tests.length;
var template = '<meta name="variant" content="?%s-%s">';
var metas = [];
for (var i = 1; i < total - testsPerVariant; i = i + testsPerVariant) {
metas.push(template.replace("%s", i).replace("%s", i + testsPerVariant - 1));
}
metas.push(template.replace("%s", i).replace("%s", "last"));
var pre = document.createElement('pre');
pre.textContent = metas.join('\n');
document.body.insertBefore(pre, document.body.firstChild);
document.getSelection().selectAllChildren(pre);
});
}
}
/**
* Check if `currentSubTest` is in the subset specified in the URL.
* @param {number} currentSubTest
* @returns {boolean}
*/
function shouldRunSubTest(currentSubTest) {
return currentSubTest >= subTestStart && currentSubTest <= subTestEnd;
}
var currentSubTest = 0;
/**
* Only test a subset of tests with, e.g., `?1-10` in the URL.
* Can be used together with `<meta name="variant" content="...">`
* Sample usage:
* for (const test of tests) {
* subsetTest(async_test, test.fn, test.name);
* }
*/
function subsetTest(testFunc, ...args) {
currentSubTest++;
if (shouldRunSubTest(currentSubTest)) {
return testFunc(...args);
}
return null;
}
self.shouldRunSubTest = shouldRunSubTest;
self.subsetTest = subsetTest;
})();