assert

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Constants

This section is empty.

Variables

This section is empty.

Functions

func CallerInfo 

func CallerInfo() []string

CallerInfo returns an array of strings containing the file and line number of each stack frame leading from the current test to the assert call that failed.

func Contains 

func Contains(t TestingT, s, contains interface{}, msgAndArgs ...interface{}) bool

Contains asserts that the specified string, list(array, slice...) or map contains the specified substring or element. 

assert.Contains(t, "Hello World", "World")
assert.Contains(t, ["Hello", "World"], "World")
assert.Contains(t, {"Hello": "World"}, "Hello")

func Containsf 

func Containsf(t TestingT, s interface{}, contains interface{}, msg string, args ...interface{}) bool

Containsf asserts that the specified string, list(array, slice...) or map contains the specified substring or element. 

assert.Containsf(t, "Hello World", "World", "error message %s", "formatted")
assert.Containsf(t, ["Hello", "World"], "World", "error message %s", "formatted")
assert.Containsf(t, {"Hello": "World"}, "Hello", "error message %s", "formatted")

func DifferentAddressRanges 

func DifferentAddressRanges(t TestingT, a, b []byte) (ok bool)

DifferentAddressRanges asserts that two byte slices reference distinct memory address ranges, meaning they reference different underlying byte arrays.

func ElementsMatch 

func ElementsMatch(t TestingT, listA, listB interface{}, msgAndArgs ...interface{}) (ok bool)

ElementsMatch asserts that the specified listA(array, slice...) is equal to specified listB(array, slice...) ignoring the order of the elements. If there are duplicate elements, the number of appearances of each of them in both lists should match.

assert.ElementsMatch(t, [1, 3, 2, 3], [1, 3, 3, 2])

func ElementsMatchf 

func ElementsMatchf(t TestingT, listA interface{}, listB interface{}, msg string, args ...interface{}) bool

ElementsMatchf asserts that the specified listA(array, slice...) is equal to specified listB(array, slice...) ignoring the order of the elements. If there are duplicate elements, the number of appearances of each of them in both lists should match.

assert.ElementsMatchf(t, [1, 3, 2, 3], [1, 3, 3, 2], "error message %s", "formatted")

func Equal 

func Equal(t TestingT, expected, actual interface{}, msgAndArgs ...interface{}) bool

Equal asserts that two objects are equal. 

assert.Equal(t, 123, 123)

Pointer variable equality is determined based on the equality of the referenced values (as opposed to the memory addresses). Function equality cannot be determined and will always fail.

func EqualBSON 

func EqualBSON(t TestingT, expected, actual interface{}) bool

EqualBSON asserts that the expected and actual BSON binary values are equal. If the values are not equal, it prints both the binary and Extended JSON diff of the BSON values. The provided BSON value types must implement the fmt.Stringer interface.

func EqualError 

func EqualError(t TestingT, theError error, errString string, msgAndArgs ...interface{}) bool

EqualError asserts that a function returned an error (i.e. not `nil`) and that it is equal to the provided error. 

actualObj, err := SomeFunction()
assert.EqualError(t, err,  expectedErrorString)

func EqualErrorf 

func EqualErrorf(t TestingT, theError error, errString string, msg string, args ...interface{}) bool

EqualErrorf asserts that a function returned an error (i.e. not `nil`) and that it is equal to the provided error. 

actualObj, err := SomeFunction()
assert.EqualErrorf(t, err,  expectedErrorString, "error message %s", "formatted")

func EqualValues 

func EqualValues(t TestingT, expected, actual interface{}, msgAndArgs ...interface{}) bool

EqualValues asserts that two objects are equal or convertible to the same types and equal. 

assert.EqualValues(t, uint32(123), int32(123))

func EqualValuesf 

func EqualValuesf(t TestingT, expected interface{}, actual interface{}, msg string, args ...interface{}) bool

EqualValuesf asserts that two objects are equal or convertible to the same types and equal. 

assert.EqualValuesf(t, uint32(123), int32(123), "error message %s", "formatted")

func Equalf 

func Equalf(t TestingT, expected interface{}, actual interface{}, msg string, args ...interface{}) bool

Equalf asserts that two objects are equal. 

assert.Equalf(t, 123, 123, "error message %s", "formatted")

Pointer variable equality is determined based on the equality of the referenced values (as opposed to the memory addresses). Function equality cannot be determined and will always fail.

func Error 

func Error(t TestingT, err error, msgAndArgs ...interface{}) bool

Error asserts that a function returned an error (i.e. not `nil`). 

  actualObj, err := SomeFunction()
  if assert.Error(t, err) {
	   assert.Equal(t, expectedError, err)
  }

func ErrorContains 

func ErrorContains(t TestingT, theError error, contains string, msgAndArgs ...interface{}) bool

ErrorContains asserts that a function returned an error (i.e. not `nil`) and that the error contains the specified substring. 

actualObj, err := SomeFunction()
assert.ErrorContains(t, err,  expectedErrorSubString)

func ErrorContainsf 

func ErrorContainsf(t TestingT, theError error, contains string, msg string, args ...interface{}) bool

ErrorContainsf asserts that a function returned an error (i.e. not `nil`) and that the error contains the specified substring. 

actualObj, err := SomeFunction()
assert.ErrorContainsf(t, err,  expectedErrorSubString, "error message %s", "formatted")

func ErrorIs added in v1.13.0 

func ErrorIs(t TestingT, err, target error, msgAndArgs ...interface{}) bool

ErrorIs asserts that at least one of the errors in err's chain matches target. This is a wrapper for errors.Is.

func Errorf 

func Errorf(t TestingT, err error, msg string, args ...interface{}) bool

Errorf asserts that a function returned an error (i.e. not `nil`). 

  actualObj, err := SomeFunction()
  if assert.Errorf(t, err, "error message %s", "formatted") {
	   assert.Equal(t, expectedErrorf, err)
  }

func Eventually 

func Eventually(t TestingT, condition func() bool, waitFor time.Duration, tick time.Duration, msgAndArgs ...interface{}) bool

Eventually asserts that given condition will be met in waitFor time, periodically checking target function each tick. 

assert.Eventually(t, func() bool { return true; }, time.Second, 10*time.Millisecond)

func Eventuallyf 

func Eventuallyf(t TestingT, condition func() bool, waitFor time.Duration, tick time.Duration, msg string, args ...interface{}) bool

Eventuallyf asserts that given condition will be met in waitFor time, periodically checking target function each tick. 

assert.Eventuallyf(t, func() bool { return true; }, time.Second, 10*time.Millisecond, "error message %s", "formatted")

func Fail 

func Fail(t TestingT, failureMessage string, msgAndArgs ...interface{}) bool

Fail reports a failure through

func FailNow 

func FailNow(t TestingT, failureMessage string, msgAndArgs ...interface{}) bool

FailNow fails test

func FailNowf 

func FailNowf(t TestingT, failureMessage string, msg string, args ...interface{}) bool

FailNowf fails test

func Failf 

func Failf(t TestingT, failureMessage string, msg string, args ...interface{}) bool

Failf reports a failure through

func False 

func False(t TestingT, value bool, msgAndArgs ...interface{}) bool

False asserts that the specified value is false. 

assert.False(t, myBool)

func Falsef 

func Falsef(t TestingT, value bool, msg string, args ...interface{}) bool

Falsef asserts that the specified value is false. 

assert.Falsef(t, myBool, "error message %s", "formatted")

func GetContextDiffString 

func GetContextDiffString(diff ContextDiff) (string, error)

GetContextDiffString is like WriteContextDiff but returns the diff as a string.

func GetUnifiedDiffString 

func GetUnifiedDiffString(diff UnifiedDiff) (string, error)

GetUnifiedDiffString is like WriteUnifiedDiff but returns the diff as a string.

func Greater 

func Greater(t TestingT, e1 interface{}, e2 interface{}, msgAndArgs ...interface{}) bool

Greater asserts that the first element is greater than the second 

assert.Greater(t, 2, 1)
assert.Greater(t, float64(2), float64(1))
assert.Greater(t, "b", "a")

func GreaterOrEqual 

func GreaterOrEqual(t TestingT, e1 interface{}, e2 interface{}, msgAndArgs ...interface{}) bool

GreaterOrEqual asserts that the first element is greater than or equal to the second 

assert.GreaterOrEqual(t, 2, 1)
assert.GreaterOrEqual(t, 2, 2)
assert.GreaterOrEqual(t, "b", "a")
assert.GreaterOrEqual(t, "b", "b")

func GreaterOrEqualf 

func GreaterOrEqualf(t TestingT, e1 interface{}, e2 interface{}, msg string, args ...interface{}) bool

GreaterOrEqualf asserts that the first element is greater than or equal to the second 

assert.GreaterOrEqualf(t, 2, 1, "error message %s", "formatted")
assert.GreaterOrEqualf(t, 2, 2, "error message %s", "formatted")
assert.GreaterOrEqualf(t, "b", "a", "error message %s", "formatted")
assert.GreaterOrEqualf(t, "b", "b", "error message %s", "formatted")

func Greaterf 

func Greaterf(t TestingT, e1 interface{}, e2 interface{}, msg string, args ...interface{}) bool

Greaterf asserts that the first element is greater than the second 

assert.Greaterf(t, 2, 1, "error message %s", "formatted")
assert.Greaterf(t, float64(2), float64(1), "error message %s", "formatted")
assert.Greaterf(t, "b", "a", "error message %s", "formatted")

func InDelta 

func InDelta(t TestingT, expected, actual interface{}, delta float64, msgAndArgs ...interface{}) bool

InDelta asserts that the two numerals are within delta of each other. 

assert.InDelta(t, math.Pi, 22/7.0, 0.01)

func InDeltaf 

func InDeltaf(t TestingT, expected interface{}, actual interface{}, delta float64, msg string, args ...interface{}) bool

InDeltaf asserts that the two numerals are within delta of each other. 

assert.InDeltaf(t, math.Pi, 22/7.0, 0.01, "error message %s", "formatted")

func IsType 

func IsType(t TestingT, expectedType interface{}, object interface{}, msgAndArgs ...interface{}) bool

IsType asserts that the specified objects are of the same type.

func IsTypef 

func IsTypef(t TestingT, expectedType interface{}, object interface{}, msg string, args ...interface{}) bool

IsTypef asserts that the specified objects are of the same type.

func Len 

func Len(t TestingT, object interface{}, length int, msgAndArgs ...interface{}) bool

Len asserts that the specified object has specific length. Len also fails if the object has a type that len() not accept. 

assert.Len(t, mySlice, 3)

func Lenf 

func Lenf(t TestingT, object interface{}, length int, msg string, args ...interface{}) bool

Lenf asserts that the specified object has specific length. Lenf also fails if the object has a type that len() not accept. 

assert.Lenf(t, mySlice, 3, "error message %s", "formatted")

func Less 

func Less(t TestingT, e1 interface{}, e2 interface{}, msgAndArgs ...interface{}) bool

Less asserts that the first element is less than the second 

assert.Less(t, 1, 2)
assert.Less(t, float64(1), float64(2))
assert.Less(t, "a", "b")

func LessOrEqual 

func LessOrEqual(t TestingT, e1 interface{}, e2 interface{}, msgAndArgs ...interface{}) bool

LessOrEqual asserts that the first element is less than or equal to the second 

assert.LessOrEqual(t, 1, 2)
assert.LessOrEqual(t, 2, 2)
assert.LessOrEqual(t, "a", "b")
assert.LessOrEqual(t, "b", "b")

func LessOrEqualf 

func LessOrEqualf(t TestingT, e1 interface{}, e2 interface{}, msg string, args ...interface{}) bool

LessOrEqualf asserts that the first element is less than or equal to the second 

assert.LessOrEqualf(t, 1, 2, "error message %s", "formatted")
assert.LessOrEqualf(t, 2, 2, "error message %s", "formatted")
assert.LessOrEqualf(t, "a", "b", "error message %s", "formatted")
assert.LessOrEqualf(t, "b", "b", "error message %s", "formatted")

func Lessf 

func Lessf(t TestingT, e1 interface{}, e2 interface{}, msg string, args ...interface{}) bool

Lessf asserts that the first element is less than the second 

assert.Lessf(t, 1, 2, "error message %s", "formatted")
assert.Lessf(t, float64(1), float64(2), "error message %s", "formatted")
assert.Lessf(t, "a", "b", "error message %s", "formatted")

func Negative 

func Negative(t TestingT, e interface{}, msgAndArgs ...interface{}) bool

Negative asserts that the specified element is negative 

assert.Negative(t, -1)
assert.Negative(t, -1.23)

func Negativef 

func Negativef(t TestingT, e interface{}, msg string, args ...interface{}) bool

Negativef asserts that the specified element is negative 

assert.Negativef(t, -1, "error message %s", "formatted")
assert.Negativef(t, -1.23, "error message %s", "formatted")

func Nil 

func Nil(t TestingT, object interface{}, msgAndArgs ...interface{}) bool

Nil asserts that the specified object is nil. 

assert.Nil(t, err)

func Nilf 

func Nilf(t TestingT, object interface{}, msg string, args ...interface{}) bool

Nilf asserts that the specified object is nil. 

assert.Nilf(t, err, "error message %s", "formatted")

func NoError 

func NoError(t TestingT, err error, msgAndArgs ...interface{}) bool

NoError asserts that a function returned no error (i.e. `nil`). 

  actualObj, err := SomeFunction()
  if assert.NoError(t, err) {
	   assert.Equal(t, expectedObj, actualObj)
  }

func NoErrorf 

func NoErrorf(t TestingT, err error, msg string, args ...interface{}) bool

NoErrorf asserts that a function returned no error (i.e. `nil`). 

  actualObj, err := SomeFunction()
  if assert.NoErrorf(t, err, "error message %s", "formatted") {
	   assert.Equal(t, expectedObj, actualObj)
  }

func NotContains 

func NotContains(t TestingT, s, contains interface{}, msgAndArgs ...interface{}) bool

NotContains asserts that the specified string, list(array, slice...) or map does NOT contain the specified substring or element. 

assert.NotContains(t, "Hello World", "Earth")
assert.NotContains(t, ["Hello", "World"], "Earth")
assert.NotContains(t, {"Hello": "World"}, "Earth")

func NotContainsf 

func NotContainsf(t TestingT, s interface{}, contains interface{}, msg string, args ...interface{}) bool

NotContainsf asserts that the specified string, list(array, slice...) or map does NOT contain the specified substring or element. 

assert.NotContainsf(t, "Hello World", "Earth", "error message %s", "formatted")
assert.NotContainsf(t, ["Hello", "World"], "Earth", "error message %s", "formatted")
assert.NotContainsf(t, {"Hello": "World"}, "Earth", "error message %s", "formatted")

func NotEqual 

func NotEqual(t TestingT, expected, actual interface{}, msgAndArgs ...interface{}) bool

NotEqual asserts that the specified values are NOT equal. 

assert.NotEqual(t, obj1, obj2)

Pointer variable equality is determined based on the equality of the referenced values (as opposed to the memory addresses).

func NotEqualValues 

func NotEqualValues(t TestingT, expected, actual interface{}, msgAndArgs ...interface{}) bool

NotEqualValues asserts that two objects are not equal even when converted to the same type 

assert.NotEqualValues(t, obj1, obj2)

func NotEqualValuesf 

func NotEqualValuesf(t TestingT, expected interface{}, actual interface{}, msg string, args ...interface{}) bool

NotEqualValuesf asserts that two objects are not equal even when converted to the same type 

assert.NotEqualValuesf(t, obj1, obj2, "error message %s", "formatted")

func NotEqualf 

func NotEqualf(t TestingT, expected interface{}, actual interface{}, msg string, args ...interface{}) bool

NotEqualf asserts that the specified values are NOT equal. 

assert.NotEqualf(t, obj1, obj2, "error message %s", "formatted")

Pointer variable equality is determined based on the equality of the referenced values (as opposed to the memory addresses).

func NotNil 

func NotNil(t TestingT, object interface{}, msgAndArgs ...interface{}) bool

NotNil asserts that the specified object is not nil. 

assert.NotNil(t, err)

func NotNilf 

func NotNilf(t TestingT, object interface{}, msg string, args ...interface{}) bool

NotNilf asserts that the specified object is not nil. 

assert.NotNilf(t, err, "error message %s", "formatted")

func ObjectsAreEqual 

func ObjectsAreEqual(expected, actual interface{}) bool

ObjectsAreEqual determines if two objects are considered equal.

This function does no assertion of any kind.

func ObjectsAreEqualValues 

func ObjectsAreEqualValues(expected, actual interface{}) bool

ObjectsAreEqualValues gets whether two objects are equal, or if their values are equal.

func Positive 

func Positive(t TestingT, e interface{}, msgAndArgs ...interface{}) bool

Positive asserts that the specified element is positive 

assert.Positive(t, 1)
assert.Positive(t, 1.23)

func Positivef 

func Positivef(t TestingT, e interface{}, msg string, args ...interface{}) bool

Positivef asserts that the specified element is positive 

assert.Positivef(t, 1, "error message %s", "formatted")
assert.Positivef(t, 1.23, "error message %s", "formatted")

func Soon deprecated added in v1.12.2 

func Soon(t TestingT, callback func(ctx context.Context), timeout time.Duration)

Soon runs the provided callback and fails the passed-in test if the callback does not complete within timeout. The provided callback should respect the passed-in context and cease execution when it has expired.

Deprecated: This function will be removed with GODRIVER-2667, use assert.Eventually instead.

func SplitLines 

func SplitLines(s string) []string

SplitLines splits a string on "\n" while preserving them. The output can be used as input for UnifiedDiff and ContextDiff structures.

func True 

func True(t TestingT, value bool, msgAndArgs ...interface{}) bool

True asserts that the specified value is true. 

assert.True(t, myBool)

func Truef 

func Truef(t TestingT, value bool, msg string, args ...interface{}) bool

Truef asserts that the specified value is true. 

assert.Truef(t, myBool, "error message %s", "formatted")

func WithinDuration 

func WithinDuration(t TestingT, expected, actual time.Time, delta time.Duration, msgAndArgs ...interface{}) bool

WithinDuration asserts that the two times are within duration delta of each other. 

assert.WithinDuration(t, time.Now(), time.Now(), 10*time.Second)

func WithinDurationf 

func WithinDurationf(t TestingT, expected time.Time, actual time.Time, delta time.Duration, msg string, args ...interface{}) bool

WithinDurationf asserts that the two times are within duration delta of each other. 

assert.WithinDurationf(t, time.Now(), time.Now(), 10*time.Second, "error message %s", "formatted")

func WriteContextDiff 

func WriteContextDiff(writer io.Writer, diff ContextDiff) error

WriteContextDiff compares two sequences of lines; generates the delta as a context diff.

Context diffs are a compact way of showing line changes and a few lines of context. The number of context lines is set by diff.Context which defaults to three.

By default, the diff control lines (those with *** or ---) are created with a trailing newline.

For inputs that do not have trailing newlines, set the diff.Eol argument to "" so that the output will be uniformly newline free.

The context diff format normally has a header for filenames and modification times. Any or all of these may be specified using strings for diff.FromFile, diff.ToFile, diff.FromDate, diff.ToDate. The modification times are normally expressed in the ISO 8601 format. If not specified, the strings default to blanks.

func WriteUnifiedDiff 

func WriteUnifiedDiff(writer io.Writer, diff UnifiedDiff) error

WriteUnifiedDiff compares two sequences of lines; generates the delta as a unified diff.

Unified diffs are a compact way of showing line changes and a few lines of context. The number of context lines is set by 'n' which defaults to three.

By default, the diff control lines (those with ---, +++, or @@) are created with a trailing newline. This is helpful so that inputs created from file.readlines() result in diffs that are suitable for file.writelines() since both the inputs and outputs have trailing newlines.

For inputs that do not have trailing newlines, set the lineterm argument to "" so that the output will be uniformly newline free.

The unidiff format normally has a header for filenames and modification times. Any or all of these may be specified using strings for 'fromfile', 'tofile', 'fromfiledate', and 'tofiledate'. The modification times are normally expressed in the ISO 8601 format.

Types

type CompareType 

type CompareType int

type ContextDiff 

type ContextDiff UnifiedDiff

type Match 

type Match struct {
	A    int
	B    int
	Size int
}

type OpCode 

type OpCode struct {
	Tag byte
	I1  int
	I2  int
	J1  int
	J2  int
}

type SequenceMatcher 

type SequenceMatcher struct {
	IsJunk func(string) bool
	// contains filtered or unexported fields
}

SequenceMatcher compares sequence of strings. The basic algorithm predates, and is a little fancier than, an algorithm published in the late 1980's by Ratcliff and Obershelp under the hyperbolic name "gestalt pattern matching". The basic idea is to find the longest contiguous matching subsequence that contains no "junk" elements (R-O doesn't address junk). The same idea is then applied recursively to the pieces of the sequences to the left and to the right of the matching subsequence. This does not yield minimal edit sequences, but does tend to yield matches that "look right" to people.

SequenceMatcher tries to compute a "human-friendly diff" between two sequences. Unlike e.g. UNIX(tm) diff, the fundamental notion is the longest *contiguous* & junk-free matching subsequence. That's what catches peoples' eyes. The Windows(tm) windiff has another interesting notion, pairing up elements that appear uniquely in each sequence. That, and the method here, appear to yield more intuitive difference reports than does diff. This method appears to be the least vulnerable to syncing up on blocks of "junk lines", though (like blank lines in ordinary text files, or maybe "<P>" lines in HTML files). That may be because this is the only method of the 3 that has a *concept* of "junk" <wink>.

Timing: Basic R-O is cubic time worst case and quadratic time expected case. SequenceMatcher is quadratic time for the worst case and has expected-case behavior dependent in a complicated way on how many elements the sequences have in common; best case time is linear.

func NewMatcher 

func NewMatcher(a, b []string) *SequenceMatcher

func NewMatcherWithJunk 

func NewMatcherWithJunk(a, b []string, autoJunk bool,
	isJunk func(string) bool) *SequenceMatcher

func (*SequenceMatcher) GetGroupedOpCodes 

func (m *SequenceMatcher) GetGroupedOpCodes(n int) [][]OpCode

GetGroupedOpCodes isolates change clusters by eliminating ranges with no changes.

Returns a generator of groups with up to n lines of context. Each group is in the same format as returned by GetOpCodes().

func (*SequenceMatcher) GetMatchingBlocks 

func (m *SequenceMatcher) GetMatchingBlocks() []Match

GetMatchingBlocks returns list of triples describing matching subsequences.

Each triple is of the form (i, j, n), and means that a[i:i+n] == b[j:j+n]. The triples are monotonically increasing in i and in j. It's also guaranteed that if (i, j, n) and (i', j', n') are adjacent triples in the list, and the second is not the last triple in the list, then i+n != i' or j+n != j'. IOW, adjacent triples never describe adjacent equal blocks.

The last triple is a dummy, (len(a), len(b), 0), and is the only triple with n==0.

func (*SequenceMatcher) GetOpCodes 

func (m *SequenceMatcher) GetOpCodes() []OpCode

GetOpCodes returns a list of 5-tuples describing how to turn a into b.

Each tuple is of the form (tag, i1, i2, j1, j2). The first tuple has i1 == j1 == 0, and remaining tuples have i1 == the i2 from the tuple preceding it, and likewise for j1 == the previous j2.

The tags are characters, with these meanings:

'r' (replace): a[i1:i2] should be replaced by b[j1:j2]

'd' (delete): a[i1:i2] should be deleted, j1==j2 in this case.

'i' (insert): b[j1:j2] should be inserted at a[i1:i1], i1==i2 in this case.

'e' (equal): a[i1:i2] == b[j1:j2]

func (*SequenceMatcher) QuickRatio 

func (m *SequenceMatcher) QuickRatio() float64

QuickRatio returns an upper bound on ratio() relatively quickly.

This isn't defined beyond that it is an upper bound on .Ratio(), and is faster to compute.

func (*SequenceMatcher) Ratio 

func (m *SequenceMatcher) Ratio() float64

Ratio returns a measure of the sequences' similarity (float in [0,1]).

Where T is the total number of elements in both sequences, and M is the number of matches, this is 2.0*M / T. Note that this is 1 if the sequences are identical, and 0 if they have nothing in common.

.Ratio() is expensive to compute if you haven't already computed .GetMatchingBlocks() or .GetOpCodes(), in which case you may want to try .QuickRatio() or .RealQuickRation() first to get an upper bound.

func (*SequenceMatcher) RealQuickRatio 

func (m *SequenceMatcher) RealQuickRatio() float64

RealQuickRatio returns an upper bound on ratio() very quickly.

This isn't defined beyond that it is an upper bound on .Ratio(), and is faster to compute than either .Ratio() or .QuickRatio().

func (*SequenceMatcher) SetSeq1 

func (m *SequenceMatcher) SetSeq1(a []string)

SetSeq1 sets the first sequence to be compared. The second sequence to be compared is not changed.

SequenceMatcher computes and caches detailed information about the second sequence, so if you want to compare one sequence S against many sequences, use .SetSeq2(s) once and call .SetSeq1(x) repeatedly for each of the other sequences.

See also SetSeqs() and SetSeq2().

func (*SequenceMatcher) SetSeq2 

func (m *SequenceMatcher) SetSeq2(b []string)

SetSeq2 sets the second sequence to be compared. The first sequence to be compared is not changed.

func (*SequenceMatcher) SetSeqs 

func (m *SequenceMatcher) SetSeqs(a, b []string)

SetSeqs sets the two sequences to be compared.

type TestingT 

type TestingT interface {
	Errorf(format string, args ...interface{})
}

TestingT is an interface wrapper around *testing.T

type UnifiedDiff 

type UnifiedDiff struct {
	A        []string // First sequence lines
	FromFile string   // First file name
	FromDate string   // First file time
	B        []string // Second sequence lines
	ToFile   string   // Second file name
	ToDate   string   // Second file time
	Eol      string   // Headers end of line, defaults to LF
	Context  int      // Number of context lines
}

UnifiedDiff represents the unified diff parameters.

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