// semantics, we never move keys within their bucket (if
// we did, keys might be returned 0 or 2 times).  When
// growing the table, iterators remain iterating through the
// old table and must check the new table if the bucket
// they are iterating through has been moved ("evacuated")
// to the new table.

// Picking loadFactor: too large and we have lots of overflow
// buckets, too small and we waste a lot of space. I wrote

	text-align: left;
}

table tr th,
table tr td {
	padding: 0.5625em 0.625em;
	font-size: inherit;
	color: var(--num-color);
}

table tr.even,
table tr.alt,
table tr:nth-of-type(even) {
	background: var(--nav-color);
}

table thead tr th,
table tfoot tr th,
table tbody tr td,
table tr td,
table tfoot tr td {
	display: table-cell;
	line-height: 1.6;
}

		frame.lr = 0
	} else if flag&abi.FuncFlagSPWrite != 0 && (!innermost || u.flags&(unwindPrintErrors|unwindSilentErrors) != 0) {
		// The function we are in does a write to SP that we don't know
		// how to encode in the spdelta table. Examples include context
		// switch routines like runtime.gogo but also any code that switches
		// to the g0 stack to run host C code.
		// We can't reliably unwind the SP (we might not even be on

		return true
	}

	// The same algorithm applies in both cases, but the
	// method tables for an interface type and a concrete type
	// are different, so the code is duplicated.
	// In both cases the algorithm is a linear scan over the two
	// lists - T's methods and V's methods - simultaneously.
	// Since method tables are stored in a unique sorted order
	// (alphabetical, with no duplicate method names), the scan

	run(t, func(t *testing.T, mode testMode) {
		testRedirectsByMethod(t, mode, "DELETE", deleteRedirectTests, want)
	})
}

func testRedirectsByMethod(t *testing.T, mode testMode, method string, table []redirectTest, want string) {
	var log struct {
		sync.Mutex
		bytes.Buffer
	}
	var ts *httptest.Server
	ts = newClientServerTest(t, mode, HandlerFunc(func(w ResponseWriter, r *Request) {
		log.Lock()

	q.start++
	return value, true
}

// makeEvent creates an Event from the provided information.
//
// It's just a convenience function; it's always OK to construct
// an Event manually if this isn't quite the right way to express
// the contents of the event.
func makeEvent(table *evTable, ctx schedCtx, typ event.Type, time Time, args ...uint64) Event {

//	    })
//	}
//
// # Subtests and Sub-benchmarks
//
// The Run methods of T and B allow defining subtests and sub-benchmarks,
// without having to define separate functions for each. This enables uses
// like table-driven benchmarks and creating hierarchical tests.
// It also provides a way to share common setup and tear-down code:
//
//	func TestFoo(t *testing.T) {
//	    // <setup code>

				// "Extensions in the Certificate message from the client MUST
				// correspond to extensions in the CertificateRequest message
				// from the server." and it appears in the table in Section 4.2.
				b.AddUint16(extensionSCT)
				b.AddUint16(0) // empty extension_data
			}
			if len(m.supportedSignatureAlgorithms) > 0 {
				b.AddUint16(extensionSignatureAlgorithms)

# only executabe on the RBE (x86) machine, so the strategy_regexp options are
# added to override and run the actions using remote strategy.
build:rbe_cross_compile_base_xla --strategy_regexp='Generating code from table.*=remote'
build:rbe_cross_compile_base_xla --strategy_regexp='Generating flatbuffer files.*=remote'
build:rbe_cross_compile_base_xla --strategy_regexp='Executing genrule @llvm-project.*=remote'

		HTTPStatusCode: http.StatusBadRequest,
	},
	ErrInvalidTableAlias: {
		Code:           "InvalidTableAlias",
		Description:    "The SQL expression contains an invalid table alias.",
		HTTPStatusCode: http.StatusBadRequest,
	},
	ErrMissingRequiredParameter: {
		Code:           "MissingRequiredParameter",