}


// -----

module {
  func.func @float_einsum(%arg0: tensor<?x64x32xf32>, %arg1: tensor<32x2x16xf32>) -> (tensor<?x64x2x16xf32>) {
    %0 = "tf.Einsum"(%arg0, %arg1) {equation = "abc,cde->abde"} : (tensor<?x64x32xf32>, tensor<32x2x16xf32>) -> tensor<?x64x2x16xf32>
    func.return %0 : tensor<?x64x2x16xf32>
  }

// CHECK-LABEL: func @float_einsum
// CHECK: -------- Quantization Summary --------

	ASRAI
	ALUI
	AAUIPC
	AADD
	ASLT
	ASLTU
	AAND
	AOR
	AXOR
	ASLL
	ASRL
	ASUB
	ASRA

	// 2.5: Control Transfer Instructions
	AJAL
	AJALR
	ABEQ
	ABNE
	ABLT
	ABLTU
	ABGE
	ABGEU

	// 2.6: Load and Store Instructions
	ALW
	ALWU
	ALH
	ALHU
	ALB
	ALBU
	ASW
	ASH
	ASB

	// 2.7: Memory Ordering Instructions
	AFENCE

	AANDCC
	AANDN
	AANDNCC
	AANDISCC
	ABC
	ABCL
	ABEQ
	ABGE // not LT = G/E/U
	ABGT
	ABLE // not GT = L/E/U
	ABLT
	ABNE  // not EQ = L/G/U
	ABVC  // Branch if float not unordered (also branch on not summary overflow)
	ABVS  // Branch if float unordered (also branch on summary overflow)
	ABDNZ // Decrement CTR, and branch if CTR != 0
	ABDZ  // Decrement CTR, and branch if CTR == 0
	ACMP
	ACMPU
	ACMPEQB

	AANDSW
	AANDW
	AASR
	AASRW
	AAT
	ABCC
	ABCS
	ABEQ
	ABFI
	ABFIW
	ABFM
	ABFMW
	ABFXIL
	ABFXILW
	ABGE
	ABGT
	ABHI
	ABHS
	ABIC
	ABICS
	ABICSW
	ABICW
	ABLE
	ABLO
	ABLS
	ABLT
	ABMI
	ABNE
	ABPL
	ABRK
	ABVC
	ABVS
	ACASAD
	ACASALB
	ACASALD
	ACASALH
	ACASALW
	ACASAW
	ACASB
	ACASD
	ACASH

    assertEquals("", Strings.commonPrefix("abc", ""));
    assertEquals("", Strings.commonPrefix("", "abc"));
    assertEquals("", Strings.commonPrefix("abcde", "xyz"));
    assertEquals("", Strings.commonPrefix("xyz", "abcde"));
    assertEquals("", Strings.commonPrefix("xyz", "abcxyz"));
    assertEquals("a", Strings.commonPrefix("abc", "aaaaa"));
    assertEquals("aa", Strings.commonPrefix("aa", "aaaaa"));

	MOVD  16(R9), R17     // R17 = y[i+1]
	MOVD  24(R9), R18     // R18 = y[i+2]
	MOVDU 32(R9), R19     // R19 = y[i+3]
	ADDE  R11, R16, R20   // R20 = x[i] + y[i] + CA
	ADDE  R12, R17, R21   // R21 = x[i+1] + y[i+1] + CA
	ADDE  R14, R18, R22   // R22 = x[i+2] + y[i+2] + CA
	ADDE  R15, R19, R23   // R23 = x[i+3] + y[i+3] + CA
	MOVD  R20, 8(R10)     // z[i]
	MOVD  R21, 16(R10)    // z[i+1]
	MOVD  R22, 24(R10)    // z[i+2]

    tags = [
        "no_cuda_asan",  # TODO(b/181771536)
        "no_windows",  # TODO(b/155444728)
    ],
    # We must ensure that the dependencies can be dynamically linked since
    # the shared library must be able to use core:framework.
    deps = [
        ":c_api",
        ":c_api_internal",
        ":c_test_util",
        ":test_op_kernel",
        ":tf_buffer",
        ":tf_buffer_internal",

			q = p
			p.Mark |= LEAF

		case ABL, ABCL:
			q = p
			c.cursym.Func().Text.Mark &^= LEAF
			fallthrough

		case ABC,
			ABRC,
			ABEQ,
			ABGE,
			ABGT,
			ABLE,
			ABLT,
			ABLEU,
			ABLTU,
			ABNE,
			ABR,
			ABVC,
			ABVS,
			ACRJ,
			ACGRJ,
			ACLRJ,
			ACLGRJ,
			ACIJ,
			ACGIJ,
			ACLIJ,
			ACLGIJ,
			ACMPBEQ,
			ACMPBGE,

</div>

!!! tip
    With `passlib`, you could even configure it to be able to read passwords created by **Django**, a **Flask** security plug-in or many others.

    So, you would be able to, for example, share the same data from a Django application in a database with a FastAPI application. Or gradually migrate a Django application using the same database.

    And your users would be able to login from your Django app or from your **FastAPI** app, at the same time.

			// The controller needs to be able to set a service's finalizers to be able to create an EndpointSlice
			// resource that is owned by the service and sets blockOwnerDeletion=true in its ownerRef.
			rbacv1helpers.NewRule("update").Groups(legacyGroup).Resources("services/finalizers").RuleOrDie(),
			// The controller needs to be able to set a service's finalizers to be able to create an EndpointSlice