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Update vendoring (#685)

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* Update vendor github.com/coreos/go-systemd/dbus@v15

* Update vendor github.com/ema/qdisc

* Update vendor github.com/godbus/dbus

* Update vendor github.com/golang/protobuf/proto

* Update vendor github.com/lufia/iostat

* Update vendor github.com/matttproud/golang_protobuf_extensions/pbutil@v1.0.0

* Update vendor github.com/prometheus/client_golang/...

* Update vendor github.com/prometheus/common/...

* Update vendor github.com/prometheus/procfs/...

* Update vendor github.com/sirupsen/logrus@v1.0.3

Adds vendor golang.org/x/crypto

* Update vendor golang.org/x/net/...

* Update vendor golang.org/x/sys/...

* Update end to end output.
This commit is contained in:
Ben Kochie 2017-10-05 16:20:47 +02:00 • committed by GitHub
commit deadfef4c9
283 changed files with 47085 additions and 29054 deletions
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33
vendor/golang.org/x/net/bpf/constants.go generated vendored
View file

@ -70,57 +70,60 @@ type Extension int
// Extension functions available in the Linux kernel.
const (
// extOffset is the negative maximum number of instructions used
// to load instructions by overloading the K argument.
extOffset = -0x1000
// ExtLen returns the length of the packet.
ExtLen Extension = 1
// ExtProto returns the packet's L3 protocol type.
ExtProto = 0
ExtProto Extension = 0
// ExtType returns the packet's type (skb->pkt_type in the kernel)
//
// TODO: better documentation. How nice an API do we want to
// provide for these esoteric extensions?
ExtType = 4
ExtType Extension = 4
// ExtPayloadOffset returns the offset of the packet payload, or
// the first protocol header that the kernel does not know how to
// parse.
ExtPayloadOffset = 52
ExtPayloadOffset Extension = 52
// ExtInterfaceIndex returns the index of the interface on which
// the packet was received.
ExtInterfaceIndex = 8
ExtInterfaceIndex Extension = 8
// ExtNetlinkAttr returns the netlink attribute of type X at
// offset A.
ExtNetlinkAttr = 12
ExtNetlinkAttr Extension = 12
// ExtNetlinkAttrNested returns the nested netlink attribute of
// type X at offset A.
ExtNetlinkAttrNested = 16
ExtNetlinkAttrNested Extension = 16
// ExtMark returns the packet's mark value.
ExtMark = 20
ExtMark Extension = 20
// ExtQueue returns the packet's assigned hardware queue.
ExtQueue = 24
ExtQueue Extension = 24
// ExtLinkLayerType returns the packet's hardware address type
// (e.g. Ethernet, Infiniband).
ExtLinkLayerType = 28
ExtLinkLayerType Extension = 28
// ExtRXHash returns the packets receive hash.
//
// TODO: figure out what this rxhash actually is.
ExtRXHash = 32
ExtRXHash Extension = 32
// ExtCPUID returns the ID of the CPU processing the current
// packet.
ExtCPUID = 36
ExtCPUID Extension = 36
// ExtVLANTag returns the packet's VLAN tag.
ExtVLANTag = 44
ExtVLANTag Extension = 44
// ExtVLANTagPresent returns non-zero if the packet has a VLAN
// tag.
//
// TODO: I think this might be a lie: it reads bit 0x1000 of the
// VLAN header, which changed meaning in recent revisions of the
// spec - this extension may now return meaningless information.
ExtVLANTagPresent = 48
ExtVLANTagPresent Extension = 48
// ExtVLANProto returns 0x8100 if the frame has a VLAN header,
// 0x88a8 if the frame has a "Q-in-Q" double VLAN header, or some
// other value if no VLAN information is present.
ExtVLANProto = 60
ExtVLANProto Extension = 60
// ExtRand returns a uniformly random uint32.
ExtRand = 56
ExtRand Extension = 56
)
// The following gives names to various bit patterns used in opcode construction.

272
vendor/golang.org/x/net/bpf/instructions.go generated vendored
View file

@ -57,6 +57,9 @@ func (ri RawInstruction) Disassemble() Instruction {
}
return LoadScratch{Dst: reg, N: int(ri.K)}
case opAddrModeAbsolute:
if ri.K > extOffset+0xffffffff {
return LoadExtension{Num: Extension(-extOffset + ri.K)}
}
return LoadAbsolute{Size: sz, Off: ri.K}
case opAddrModeIndirect:
return LoadIndirect{Size: sz, Off: ri.K}
@ -104,6 +107,14 @@ func (ri RawInstruction) Disassemble() Instruction {
case opJumpAlways:
return Jump{Skip: ri.K}
case opJumpEqual:
if ri.Jt == 0 {
return JumpIf{
Cond: JumpNotEqual,
Val: ri.K,
SkipTrue: ri.Jf,
SkipFalse: 0,
}
}
return JumpIf{
Cond: JumpEqual,
Val: ri.K,
@ -111,6 +122,14 @@ func (ri RawInstruction) Disassemble() Instruction {
SkipFalse: ri.Jf,
}
case opJumpGT:
if ri.Jt == 0 {
return JumpIf{
Cond: JumpLessOrEqual,
Val: ri.K,
SkipTrue: ri.Jf,
SkipFalse: 0,
}
}
return JumpIf{
Cond: JumpGreaterThan,
Val: ri.K,
@ -118,6 +137,14 @@ func (ri RawInstruction) Disassemble() Instruction {
SkipFalse: ri.Jf,
}
case opJumpGE:
if ri.Jt == 0 {
return JumpIf{
Cond: JumpLessThan,
Val: ri.K,
SkipTrue: ri.Jf,
SkipFalse: 0,
}
}
return JumpIf{
Cond: JumpGreaterOrEqual,
Val: ri.K,
@ -171,6 +198,18 @@ func (a LoadConstant) Assemble() (RawInstruction, error) {
return assembleLoad(a.Dst, 4, opAddrModeImmediate, a.Val)
}
// String returns the the instruction in assembler notation.
func (a LoadConstant) String() string {
switch a.Dst {
case RegA:
return fmt.Sprintf("ld #%d", a.Val)
case RegX:
return fmt.Sprintf("ldx #%d", a.Val)
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// LoadScratch loads scratch[N] into register Dst.
type LoadScratch struct {
Dst Register
@ -185,6 +224,18 @@ func (a LoadScratch) Assemble() (RawInstruction, error) {
return assembleLoad(a.Dst, 4, opAddrModeScratch, uint32(a.N))
}
// String returns the the instruction in assembler notation.
func (a LoadScratch) String() string {
switch a.Dst {
case RegA:
return fmt.Sprintf("ld M[%d]", a.N)
case RegX:
return fmt.Sprintf("ldx M[%d]", a.N)
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// LoadAbsolute loads packet[Off:Off+Size] as an integer value into
// register A.
type LoadAbsolute struct {
@ -197,6 +248,23 @@ func (a LoadAbsolute) Assemble() (RawInstruction, error) {
return assembleLoad(RegA, a.Size, opAddrModeAbsolute, a.Off)
}
// String returns the the instruction in assembler notation.
func (a LoadAbsolute) String() string {
switch a.Size {
case 1: // byte
return fmt.Sprintf("ldb [%d]", a.Off)
case 2: // half word
return fmt.Sprintf("ldh [%d]", a.Off)
case 4: // word
if a.Off > extOffset+0xffffffff {
return LoadExtension{Num: Extension(a.Off + 0x1000)}.String()
}
return fmt.Sprintf("ld [%d]", a.Off)
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// LoadIndirect loads packet[X+Off:X+Off+Size] as an integer value
// into register A.
type LoadIndirect struct {
@ -209,6 +277,20 @@ func (a LoadIndirect) Assemble() (RawInstruction, error) {
return assembleLoad(RegA, a.Size, opAddrModeIndirect, a.Off)
}
// String returns the the instruction in assembler notation.
func (a LoadIndirect) String() string {
switch a.Size {
case 1: // byte
return fmt.Sprintf("ldb [x + %d]", a.Off)
case 2: // half word
return fmt.Sprintf("ldh [x + %d]", a.Off)
case 4: // word
return fmt.Sprintf("ld [x + %d]", a.Off)
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// LoadMemShift multiplies the first 4 bits of the byte at packet[Off]
// by 4 and stores the result in register X.
//
@ -224,6 +306,11 @@ func (a LoadMemShift) Assemble() (RawInstruction, error) {
return assembleLoad(RegX, 1, opAddrModeMemShift, a.Off)
}
// String returns the the instruction in assembler notation.
func (a LoadMemShift) String() string {
return fmt.Sprintf("ldx 4*([%d]&0xf)", a.Off)
}
// LoadExtension invokes a linux-specific extension and stores the
// result in register A.
type LoadExtension struct {
@ -235,7 +322,47 @@ func (a LoadExtension) Assemble() (RawInstruction, error) {
if a.Num == ExtLen {
return assembleLoad(RegA, 4, opAddrModePacketLen, 0)
}
return assembleLoad(RegA, 4, opAddrModeAbsolute, uint32(-0x1000+a.Num))
return assembleLoad(RegA, 4, opAddrModeAbsolute, uint32(extOffset+a.Num))
}
// String returns the the instruction in assembler notation.
func (a LoadExtension) String() string {
switch a.Num {
case ExtLen:
return "ld #len"
case ExtProto:
return "ld #proto"
case ExtType:
return "ld #type"
case ExtPayloadOffset:
return "ld #poff"
case ExtInterfaceIndex:
return "ld #ifidx"
case ExtNetlinkAttr:
return "ld #nla"
case ExtNetlinkAttrNested:
return "ld #nlan"
case ExtMark:
return "ld #mark"
case ExtQueue:
return "ld #queue"
case ExtLinkLayerType:
return "ld #hatype"
case ExtRXHash:
return "ld #rxhash"
case ExtCPUID:
return "ld #cpu"
case ExtVLANTag:
return "ld #vlan_tci"
case ExtVLANTagPresent:
return "ld #vlan_avail"
case ExtVLANProto:
return "ld #vlan_tpid"
case ExtRand:
return "ld #rand"
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// StoreScratch stores register Src into scratch[N].
@ -265,6 +392,18 @@ func (a StoreScratch) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a StoreScratch) String() string {
switch a.Src {
case RegA:
return fmt.Sprintf("st M[%d]", a.N)
case RegX:
return fmt.Sprintf("stx M[%d]", a.N)
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// ALUOpConstant executes A = A <Op> Val.
type ALUOpConstant struct {
Op ALUOp
@ -279,6 +418,34 @@ func (a ALUOpConstant) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a ALUOpConstant) String() string {
switch a.Op {
case ALUOpAdd:
return fmt.Sprintf("add #%d", a.Val)
case ALUOpSub:
return fmt.Sprintf("sub #%d", a.Val)
case ALUOpMul:
return fmt.Sprintf("mul #%d", a.Val)
case ALUOpDiv:
return fmt.Sprintf("div #%d", a.Val)
case ALUOpMod:
return fmt.Sprintf("mod #%d", a.Val)
case ALUOpAnd:
return fmt.Sprintf("and #%d", a.Val)
case ALUOpOr:
return fmt.Sprintf("or #%d", a.Val)
case ALUOpXor:
return fmt.Sprintf("xor #%d", a.Val)
case ALUOpShiftLeft:
return fmt.Sprintf("lsh #%d", a.Val)
case ALUOpShiftRight:
return fmt.Sprintf("rsh #%d", a.Val)
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// ALUOpX executes A = A <Op> X
type ALUOpX struct {
Op ALUOp
@ -291,6 +458,34 @@ func (a ALUOpX) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a ALUOpX) String() string {
switch a.Op {
case ALUOpAdd:
return "add x"
case ALUOpSub:
return "sub x"
case ALUOpMul:
return "mul x"
case ALUOpDiv:
return "div x"
case ALUOpMod:
return "mod x"
case ALUOpAnd:
return "and x"
case ALUOpOr:
return "or x"
case ALUOpXor:
return "xor x"
case ALUOpShiftLeft:
return "lsh x"
case ALUOpShiftRight:
return "rsh x"
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
// NegateA executes A = -A.
type NegateA struct{}
@ -301,6 +496,11 @@ func (a NegateA) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a NegateA) String() string {
return fmt.Sprintf("neg")
}
// Jump skips the following Skip instructions in the program.
type Jump struct {
Skip uint32
@ -314,6 +514,11 @@ func (a Jump) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a Jump) String() string {
return fmt.Sprintf("ja %d", a.Skip)
}
// JumpIf skips the following Skip instructions in the program if A
// <Cond> Val is true.
type JumpIf struct {
@ -361,6 +566,51 @@ func (a JumpIf) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a JumpIf) String() string {
switch a.Cond {
// K == A
case JumpEqual:
return conditionalJump(a, "jeq", "jneq")
// K != A
case JumpNotEqual:
return fmt.Sprintf("jneq #%d,%d", a.Val, a.SkipTrue)
// K > A
case JumpGreaterThan:
return conditionalJump(a, "jgt", "jle")
// K < A
case JumpLessThan:
return fmt.Sprintf("jlt #%d,%d", a.Val, a.SkipTrue)
// K >= A
case JumpGreaterOrEqual:
return conditionalJump(a, "jge", "jlt")
// K <= A
case JumpLessOrEqual:
return fmt.Sprintf("jle #%d,%d", a.Val, a.SkipTrue)
// K & A != 0
case JumpBitsSet:
if a.SkipFalse > 0 {
return fmt.Sprintf("jset #%d,%d,%d", a.Val, a.SkipTrue, a.SkipFalse)
}
return fmt.Sprintf("jset #%d,%d", a.Val, a.SkipTrue)
// K & A == 0, there is no assembler instruction for JumpBitNotSet, use JumpBitSet and invert skips
case JumpBitsNotSet:
return JumpIf{Cond: JumpBitsSet, SkipTrue: a.SkipFalse, SkipFalse: a.SkipTrue, Val: a.Val}.String()
default:
return fmt.Sprintf("unknown instruction: %#v", a)
}
}
func conditionalJump(inst JumpIf, positiveJump, negativeJump string) string {
if inst.SkipTrue > 0 {
if inst.SkipFalse > 0 {
return fmt.Sprintf("%s #%d,%d,%d", positiveJump, inst.Val, inst.SkipTrue, inst.SkipFalse)
}
return fmt.Sprintf("%s #%d,%d", positiveJump, inst.Val, inst.SkipTrue)
}
return fmt.Sprintf("%s #%d,%d", negativeJump, inst.Val, inst.SkipFalse)
}
// RetA exits the BPF program, returning the value of register A.
type RetA struct{}
@ -371,6 +621,11 @@ func (a RetA) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a RetA) String() string {
return fmt.Sprintf("ret a")
}
// RetConstant exits the BPF program, returning a constant value.
type RetConstant struct {
Val uint32
@ -384,6 +639,11 @@ func (a RetConstant) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a RetConstant) String() string {
return fmt.Sprintf("ret #%d", a.Val)
}
// TXA copies the value of register X to register A.
type TXA struct{}
@ -394,6 +654,11 @@ func (a TXA) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a TXA) String() string {
return fmt.Sprintf("txa")
}
// TAX copies the value of register A to register X.
type TAX struct{}
@ -404,6 +669,11 @@ func (a TAX) Assemble() (RawInstruction, error) {
}, nil
}
// String returns the the instruction in assembler notation.
func (a TAX) String() string {
return fmt.Sprintf("tax")
}
func assembleLoad(dst Register, loadSize int, mode uint16, k uint32) (RawInstruction, error) {
var (
cls uint16

10
vendor/golang.org/x/net/bpf/setter.go generated vendored Normal file
View file

@ -0,0 +1,10 @@
// Copyright 2017 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package bpf
// A Setter is a type which can attach a compiled BPF filter to itself.
type Setter interface {
SetBPF(filter []RawInstruction) error
}