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Add 2fa for authentification (#383)

Fix user tests

Add swagger docs

Fix lint

Add totp check when logging in

Make totp enrollment work

Add migration for totp table

go mod vendor

Add routes for totp routes

Add route handler for totp routes

Add basic implementation to enroll a user in totp

Co-authored-by: kolaente <k@knt.li>
Reviewed-on: https://kolaente.dev/vikunja/api/pulls/383
This commit is contained in:
konrad
2020-04-17 19:25:35 +00:00
parent 1dca8e96a7
commit 24904585a2
47 changed files with 3220 additions and 12 deletions

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// Package utils contain some utilities which are needed to create barcodes
package utils
import (
"image"
"image/color"
"github.com/boombuler/barcode"
)
type base1DCode struct {
*BitList
kind string
content string
}
type base1DCodeIntCS struct {
base1DCode
checksum int
}
func (c *base1DCode) Content() string {
return c.content
}
func (c *base1DCode) Metadata() barcode.Metadata {
return barcode.Metadata{c.kind, 1}
}
func (c *base1DCode) ColorModel() color.Model {
return color.Gray16Model
}
func (c *base1DCode) Bounds() image.Rectangle {
return image.Rect(0, 0, c.Len(), 1)
}
func (c *base1DCode) At(x, y int) color.Color {
if c.GetBit(x) {
return color.Black
}
return color.White
}
func (c *base1DCodeIntCS) CheckSum() int {
return c.checksum
}
// New1DCodeIntCheckSum creates a new 1D barcode where the bars are represented by the bits in the bars BitList
func New1DCodeIntCheckSum(codeKind, content string, bars *BitList, checksum int) barcode.BarcodeIntCS {
return &base1DCodeIntCS{base1DCode{bars, codeKind, content}, checksum}
}
// New1DCode creates a new 1D barcode where the bars are represented by the bits in the bars BitList
func New1DCode(codeKind, content string, bars *BitList) barcode.Barcode {
return &base1DCode{bars, codeKind, content}
}

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vendor/github.com/boombuler/barcode/utils/bitlist.go generated vendored Normal file
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package utils
// BitList is a list that contains bits
type BitList struct {
count int
data []int32
}
// NewBitList returns a new BitList with the given length
// all bits are initialize with false
func NewBitList(capacity int) *BitList {
bl := new(BitList)
bl.count = capacity
x := 0
if capacity%32 != 0 {
x = 1
}
bl.data = make([]int32, capacity/32+x)
return bl
}
// Len returns the number of contained bits
func (bl *BitList) Len() int {
return bl.count
}
func (bl *BitList) grow() {
growBy := len(bl.data)
if growBy < 128 {
growBy = 128
} else if growBy >= 1024 {
growBy = 1024
}
nd := make([]int32, len(bl.data)+growBy)
copy(nd, bl.data)
bl.data = nd
}
// AddBit appends the given bits to the end of the list
func (bl *BitList) AddBit(bits ...bool) {
for _, bit := range bits {
itmIndex := bl.count / 32
for itmIndex >= len(bl.data) {
bl.grow()
}
bl.SetBit(bl.count, bit)
bl.count++
}
}
// SetBit sets the bit at the given index to the given value
func (bl *BitList) SetBit(index int, value bool) {
itmIndex := index / 32
itmBitShift := 31 - (index % 32)
if value {
bl.data[itmIndex] = bl.data[itmIndex] | 1<<uint(itmBitShift)
} else {
bl.data[itmIndex] = bl.data[itmIndex] & ^(1 << uint(itmBitShift))
}
}
// GetBit returns the bit at the given index
func (bl *BitList) GetBit(index int) bool {
itmIndex := index / 32
itmBitShift := 31 - (index % 32)
return ((bl.data[itmIndex] >> uint(itmBitShift)) & 1) == 1
}
// AddByte appends all 8 bits of the given byte to the end of the list
func (bl *BitList) AddByte(b byte) {
for i := 7; i >= 0; i-- {
bl.AddBit(((b >> uint(i)) & 1) == 1)
}
}
// AddBits appends the last (LSB) 'count' bits of 'b' the the end of the list
func (bl *BitList) AddBits(b int, count byte) {
for i := int(count) - 1; i >= 0; i-- {
bl.AddBit(((b >> uint(i)) & 1) == 1)
}
}
// GetBytes returns all bits of the BitList as a []byte
func (bl *BitList) GetBytes() []byte {
len := bl.count >> 3
if (bl.count % 8) != 0 {
len++
}
result := make([]byte, len)
for i := 0; i < len; i++ {
shift := (3 - (i % 4)) * 8
result[i] = (byte)((bl.data[i/4] >> uint(shift)) & 0xFF)
}
return result
}
// IterateBytes iterates through all bytes contained in the BitList
func (bl *BitList) IterateBytes() <-chan byte {
res := make(chan byte)
go func() {
c := bl.count
shift := 24
i := 0
for c > 0 {
res <- byte((bl.data[i] >> uint(shift)) & 0xFF)
shift -= 8
if shift < 0 {
shift = 24
i++
}
c -= 8
}
close(res)
}()
return res
}

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package utils
// GaloisField encapsulates galois field arithmetics
type GaloisField struct {
Size int
Base int
ALogTbl []int
LogTbl []int
}
// NewGaloisField creates a new galois field
func NewGaloisField(pp, fieldSize, b int) *GaloisField {
result := new(GaloisField)
result.Size = fieldSize
result.Base = b
result.ALogTbl = make([]int, fieldSize)
result.LogTbl = make([]int, fieldSize)
x := 1
for i := 0; i < fieldSize; i++ {
result.ALogTbl[i] = x
x = x * 2
if x >= fieldSize {
x = (x ^ pp) & (fieldSize - 1)
}
}
for i := 0; i < fieldSize; i++ {
result.LogTbl[result.ALogTbl[i]] = int(i)
}
return result
}
func (gf *GaloisField) Zero() *GFPoly {
return NewGFPoly(gf, []int{0})
}
// AddOrSub add or substract two numbers
func (gf *GaloisField) AddOrSub(a, b int) int {
return a ^ b
}
// Multiply multiplys two numbers
func (gf *GaloisField) Multiply(a, b int) int {
if a == 0 || b == 0 {
return 0
}
return gf.ALogTbl[(gf.LogTbl[a]+gf.LogTbl[b])%(gf.Size-1)]
}
// Divide divides two numbers
func (gf *GaloisField) Divide(a, b int) int {
if b == 0 {
panic("divide by zero")
} else if a == 0 {
return 0
}
return gf.ALogTbl[(gf.LogTbl[a]-gf.LogTbl[b])%(gf.Size-1)]
}
func (gf *GaloisField) Invers(num int) int {
return gf.ALogTbl[(gf.Size-1)-gf.LogTbl[num]]
}

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vendor/github.com/boombuler/barcode/utils/gfpoly.go generated vendored Normal file
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package utils
type GFPoly struct {
gf *GaloisField
Coefficients []int
}
func (gp *GFPoly) Degree() int {
return len(gp.Coefficients) - 1
}
func (gp *GFPoly) Zero() bool {
return gp.Coefficients[0] == 0
}
// GetCoefficient returns the coefficient of x ^ degree
func (gp *GFPoly) GetCoefficient(degree int) int {
return gp.Coefficients[gp.Degree()-degree]
}
func (gp *GFPoly) AddOrSubstract(other *GFPoly) *GFPoly {
if gp.Zero() {
return other
} else if other.Zero() {
return gp
}
smallCoeff := gp.Coefficients
largeCoeff := other.Coefficients
if len(smallCoeff) > len(largeCoeff) {
largeCoeff, smallCoeff = smallCoeff, largeCoeff
}
sumDiff := make([]int, len(largeCoeff))
lenDiff := len(largeCoeff) - len(smallCoeff)
copy(sumDiff, largeCoeff[:lenDiff])
for i := lenDiff; i < len(largeCoeff); i++ {
sumDiff[i] = int(gp.gf.AddOrSub(int(smallCoeff[i-lenDiff]), int(largeCoeff[i])))
}
return NewGFPoly(gp.gf, sumDiff)
}
func (gp *GFPoly) MultByMonominal(degree int, coeff int) *GFPoly {
if coeff == 0 {
return gp.gf.Zero()
}
size := len(gp.Coefficients)
result := make([]int, size+degree)
for i := 0; i < size; i++ {
result[i] = int(gp.gf.Multiply(int(gp.Coefficients[i]), int(coeff)))
}
return NewGFPoly(gp.gf, result)
}
func (gp *GFPoly) Multiply(other *GFPoly) *GFPoly {
if gp.Zero() || other.Zero() {
return gp.gf.Zero()
}
aCoeff := gp.Coefficients
aLen := len(aCoeff)
bCoeff := other.Coefficients
bLen := len(bCoeff)
product := make([]int, aLen+bLen-1)
for i := 0; i < aLen; i++ {
ac := int(aCoeff[i])
for j := 0; j < bLen; j++ {
bc := int(bCoeff[j])
product[i+j] = int(gp.gf.AddOrSub(int(product[i+j]), gp.gf.Multiply(ac, bc)))
}
}
return NewGFPoly(gp.gf, product)
}
func (gp *GFPoly) Divide(other *GFPoly) (quotient *GFPoly, remainder *GFPoly) {
quotient = gp.gf.Zero()
remainder = gp
fld := gp.gf
denomLeadTerm := other.GetCoefficient(other.Degree())
inversDenomLeadTerm := fld.Invers(int(denomLeadTerm))
for remainder.Degree() >= other.Degree() && !remainder.Zero() {
degreeDiff := remainder.Degree() - other.Degree()
scale := int(fld.Multiply(int(remainder.GetCoefficient(remainder.Degree())), inversDenomLeadTerm))
term := other.MultByMonominal(degreeDiff, scale)
itQuot := NewMonominalPoly(fld, degreeDiff, scale)
quotient = quotient.AddOrSubstract(itQuot)
remainder = remainder.AddOrSubstract(term)
}
return
}
func NewMonominalPoly(field *GaloisField, degree int, coeff int) *GFPoly {
if coeff == 0 {
return field.Zero()
}
result := make([]int, degree+1)
result[0] = coeff
return NewGFPoly(field, result)
}
func NewGFPoly(field *GaloisField, coefficients []int) *GFPoly {
for len(coefficients) > 1 && coefficients[0] == 0 {
coefficients = coefficients[1:]
}
return &GFPoly{field, coefficients}
}

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package utils
import (
"sync"
)
type ReedSolomonEncoder struct {
gf *GaloisField
polynomes []*GFPoly
m *sync.Mutex
}
func NewReedSolomonEncoder(gf *GaloisField) *ReedSolomonEncoder {
return &ReedSolomonEncoder{
gf, []*GFPoly{NewGFPoly(gf, []int{1})}, new(sync.Mutex),
}
}
func (rs *ReedSolomonEncoder) getPolynomial(degree int) *GFPoly {
rs.m.Lock()
defer rs.m.Unlock()
if degree >= len(rs.polynomes) {
last := rs.polynomes[len(rs.polynomes)-1]
for d := len(rs.polynomes); d <= degree; d++ {
next := last.Multiply(NewGFPoly(rs.gf, []int{1, rs.gf.ALogTbl[d-1+rs.gf.Base]}))
rs.polynomes = append(rs.polynomes, next)
last = next
}
}
return rs.polynomes[degree]
}
func (rs *ReedSolomonEncoder) Encode(data []int, eccCount int) []int {
generator := rs.getPolynomial(eccCount)
info := NewGFPoly(rs.gf, data)
info = info.MultByMonominal(eccCount, 1)
_, remainder := info.Divide(generator)
result := make([]int, eccCount)
numZero := int(eccCount) - len(remainder.Coefficients)
copy(result[numZero:], remainder.Coefficients)
return result
}

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vendor/github.com/boombuler/barcode/utils/runeint.go generated vendored Normal file
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package utils
// RuneToInt converts a rune between '0' and '9' to an integer between 0 and 9
// If the rune is outside of this range -1 is returned.
func RuneToInt(r rune) int {
if r >= '0' && r <= '9' {
return int(r - '0')
}
return -1
}
// IntToRune converts a digit 0 - 9 to the rune '0' - '9'. If the given int is outside
// of this range 'F' is returned!
func IntToRune(i int) rune {
if i >= 0 && i <= 9 {
return rune(i + '0')
}
return 'F'
}