[Vendor] mssqldb: 2019-11-28 -> 2020-04-28 (#11364)
update go-mssqldb 2019-11-28 (1d7a30a10f73) -> 2020-04-28 (06a60b6afbbc)tokarchuk/v1.17
6543
5 years ago
committed by
GitHub
parent
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commit
6e23a1b843
@ -0,0 +1,51 @@ |
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// +build go1.10
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package mssql |
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import ( |
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"context" |
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"database/sql/driver" |
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"errors" |
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"fmt" |
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) |
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var _ driver.Connector = &accessTokenConnector{} |
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// accessTokenConnector wraps Connector and injects a
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// fresh access token when connecting to the database
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type accessTokenConnector struct { |
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Connector |
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accessTokenProvider func() (string, error) |
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} |
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// NewAccessTokenConnector creates a new connector from a DSN and a token provider.
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// The token provider func will be called when a new connection is requested and should return a valid access token.
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// The returned connector may be used with sql.OpenDB.
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func NewAccessTokenConnector(dsn string, tokenProvider func() (string, error)) (driver.Connector, error) { |
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if tokenProvider == nil { |
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return nil, errors.New("mssql: tokenProvider cannot be nil") |
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} |
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conn, err := NewConnector(dsn) |
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if err != nil { |
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return nil, err |
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} |
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c := &accessTokenConnector{ |
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Connector: *conn, |
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accessTokenProvider: tokenProvider, |
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} |
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return c, nil |
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} |
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// Connect returns a new database connection
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func (c *accessTokenConnector) Connect(ctx context.Context) (driver.Conn, error) { |
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var err error |
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c.Connector.params.fedAuthAccessToken, err = c.accessTokenProvider() |
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if err != nil { |
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return nil, fmt.Errorf("mssql: error retrieving access token: %+v", err) |
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} |
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return c.Connector.Connect(ctx) |
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} |
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@ -1,13 +0,0 @@ |
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// Copyright 2018 The Go Authors. All rights reserved.
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// Use of this source code is governed by a BSD-style
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// license that can be found in the LICENSE file.
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// +build s390x,!go1.11 !amd64,!s390x,!ppc64le gccgo purego
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package poly1305 |
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func sum(out *[TagSize]byte, msg []byte, key *[32]byte) { |
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h := newMAC(key) |
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h.Write(msg) |
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h.Sum(out) |
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} |
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@ -1,909 +0,0 @@ |
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// Copyright 2018 The Go Authors. All rights reserved. |
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// Use of this source code is governed by a BSD-style |
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// license that can be found in the LICENSE file. |
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// +build go1.11,!gccgo,!purego |
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#include "textflag.h" |
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// Implementation of Poly1305 using the vector facility (vx) and the VMSL instruction. |
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// constants |
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#define EX0 V1 |
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#define EX1 V2 |
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#define EX2 V3 |
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// temporaries |
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#define T_0 V4 |
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#define T_1 V5 |
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#define T_2 V6 |
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#define T_3 V7 |
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#define T_4 V8 |
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#define T_5 V9 |
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#define T_6 V10 |
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#define T_7 V11 |
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#define T_8 V12 |
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#define T_9 V13 |
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#define T_10 V14 |
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// r**2 & r**4 |
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#define R_0 V15 |
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#define R_1 V16 |
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#define R_2 V17 |
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#define R5_1 V18 |
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#define R5_2 V19 |
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// key (r) |
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#define RSAVE_0 R7 |
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#define RSAVE_1 R8 |
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#define RSAVE_2 R9 |
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#define R5SAVE_1 R10 |
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#define R5SAVE_2 R11 |
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// message block |
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#define M0 V20 |
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#define M1 V21 |
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#define M2 V22 |
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#define M3 V23 |
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#define M4 V24 |
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#define M5 V25 |
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// accumulator |
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#define H0_0 V26 |
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#define H1_0 V27 |
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#define H2_0 V28 |
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#define H0_1 V29 |
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#define H1_1 V30 |
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#define H2_1 V31 |
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GLOBL ·keyMask<>(SB), RODATA, $16 |
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DATA ·keyMask<>+0(SB)/8, $0xffffff0ffcffff0f |
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DATA ·keyMask<>+8(SB)/8, $0xfcffff0ffcffff0f |
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GLOBL ·bswapMask<>(SB), RODATA, $16 |
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DATA ·bswapMask<>+0(SB)/8, $0x0f0e0d0c0b0a0908 |
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DATA ·bswapMask<>+8(SB)/8, $0x0706050403020100 |
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GLOBL ·constants<>(SB), RODATA, $48 |
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// EX0 |
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DATA ·constants<>+0(SB)/8, $0x18191a1b1c1d1e1f |
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DATA ·constants<>+8(SB)/8, $0x0000050403020100 |
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// EX1 |
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DATA ·constants<>+16(SB)/8, $0x18191a1b1c1d1e1f |
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DATA ·constants<>+24(SB)/8, $0x00000a0908070605 |
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// EX2 |
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DATA ·constants<>+32(SB)/8, $0x18191a1b1c1d1e1f |
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DATA ·constants<>+40(SB)/8, $0x0000000f0e0d0c0b |
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GLOBL ·c<>(SB), RODATA, $48 |
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// EX0 |
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DATA ·c<>+0(SB)/8, $0x0000050403020100 |
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DATA ·c<>+8(SB)/8, $0x0000151413121110 |
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// EX1 |
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DATA ·c<>+16(SB)/8, $0x00000a0908070605 |
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DATA ·c<>+24(SB)/8, $0x00001a1918171615 |
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// EX2 |
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DATA ·c<>+32(SB)/8, $0x0000000f0e0d0c0b |
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DATA ·c<>+40(SB)/8, $0x0000001f1e1d1c1b |
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GLOBL ·reduce<>(SB), RODATA, $32 |
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// 44 bit |
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DATA ·reduce<>+0(SB)/8, $0x0 |
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DATA ·reduce<>+8(SB)/8, $0xfffffffffff |
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// 42 bit |
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DATA ·reduce<>+16(SB)/8, $0x0 |
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DATA ·reduce<>+24(SB)/8, $0x3ffffffffff |
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// h = (f*g) % (2**130-5) [partial reduction] |
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// uses T_0...T_9 temporary registers |
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// input: m02_0, m02_1, m02_2, m13_0, m13_1, m13_2, r_0, r_1, r_2, r5_1, r5_2, m4_0, m4_1, m4_2, m5_0, m5_1, m5_2 |
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// temp: t0, t1, t2, t3, t4, t5, t6, t7, t8, t9 |
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// output: m02_0, m02_1, m02_2, m13_0, m13_1, m13_2 |
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#define MULTIPLY(m02_0, m02_1, m02_2, m13_0, m13_1, m13_2, r_0, r_1, r_2, r5_1, r5_2, m4_0, m4_1, m4_2, m5_0, m5_1, m5_2, t0, t1, t2, t3, t4, t5, t6, t7, t8, t9) \ |
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\ // Eliminate the dependency for the last 2 VMSLs |
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VMSLG m02_0, r_2, m4_2, m4_2 \ |
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VMSLG m13_0, r_2, m5_2, m5_2 \ // 8 VMSLs pipelined |
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VMSLG m02_0, r_0, m4_0, m4_0 \ |
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VMSLG m02_1, r5_2, V0, T_0 \ |
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VMSLG m02_0, r_1, m4_1, m4_1 \ |
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VMSLG m02_1, r_0, V0, T_1 \ |
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VMSLG m02_1, r_1, V0, T_2 \ |
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VMSLG m02_2, r5_1, V0, T_3 \ |
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VMSLG m02_2, r5_2, V0, T_4 \ |
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VMSLG m13_0, r_0, m5_0, m5_0 \ |
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VMSLG m13_1, r5_2, V0, T_5 \ |
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VMSLG m13_0, r_1, m5_1, m5_1 \ |
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VMSLG m13_1, r_0, V0, T_6 \ |
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VMSLG m13_1, r_1, V0, T_7 \ |
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VMSLG m13_2, r5_1, V0, T_8 \ |
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VMSLG m13_2, r5_2, V0, T_9 \ |
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VMSLG m02_2, r_0, m4_2, m4_2 \ |
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VMSLG m13_2, r_0, m5_2, m5_2 \ |
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VAQ m4_0, T_0, m02_0 \ |
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VAQ m4_1, T_1, m02_1 \ |
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VAQ m5_0, T_5, m13_0 \ |
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VAQ m5_1, T_6, m13_1 \ |
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VAQ m02_0, T_3, m02_0 \ |
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VAQ m02_1, T_4, m02_1 \ |
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VAQ m13_0, T_8, m13_0 \ |
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VAQ m13_1, T_9, m13_1 \ |
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VAQ m4_2, T_2, m02_2 \ |
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VAQ m5_2, T_7, m13_2 \ |
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// SQUARE uses three limbs of r and r_2*5 to output square of r |
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// uses T_1, T_5 and T_7 temporary registers |
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// input: r_0, r_1, r_2, r5_2 |
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// temp: TEMP0, TEMP1, TEMP2 |
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// output: p0, p1, p2 |
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#define SQUARE(r_0, r_1, r_2, r5_2, p0, p1, p2, TEMP0, TEMP1, TEMP2) \ |
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VMSLG r_0, r_0, p0, p0 \ |
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VMSLG r_1, r5_2, V0, TEMP0 \ |
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VMSLG r_2, r5_2, p1, p1 \ |
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VMSLG r_0, r_1, V0, TEMP1 \ |
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VMSLG r_1, r_1, p2, p2 \ |
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VMSLG r_0, r_2, V0, TEMP2 \ |
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VAQ TEMP0, p0, p0 \ |
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VAQ TEMP1, p1, p1 \ |
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VAQ TEMP2, p2, p2 \ |
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VAQ TEMP0, p0, p0 \ |
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VAQ TEMP1, p1, p1 \ |
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VAQ TEMP2, p2, p2 \ |
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// carry h0->h1->h2->h0 || h3->h4->h5->h3 |
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// uses T_2, T_4, T_5, T_7, T_8, T_9 |
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// t6, t7, t8, t9, t10, t11 |
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// input: h0, h1, h2, h3, h4, h5 |
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// temp: t0, t1, t2, t3, t4, t5, t6, t7, t8, t9, t10, t11 |
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// output: h0, h1, h2, h3, h4, h5 |
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#define REDUCE(h0, h1, h2, h3, h4, h5, t0, t1, t2, t3, t4, t5, t6, t7, t8, t9, t10, t11) \ |
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VLM (R12), t6, t7 \ // 44 and 42 bit clear mask |
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VLEIB $7, $0x28, t10 \ // 5 byte shift mask |
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VREPIB $4, t8 \ // 4 bit shift mask |
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VREPIB $2, t11 \ // 2 bit shift mask |
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VSRLB t10, h0, t0 \ // h0 byte shift |
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VSRLB t10, h1, t1 \ // h1 byte shift |
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VSRLB t10, h2, t2 \ // h2 byte shift |
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VSRLB t10, h3, t3 \ // h3 byte shift |
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VSRLB t10, h4, t4 \ // h4 byte shift |
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VSRLB t10, h5, t5 \ // h5 byte shift |
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VSRL t8, t0, t0 \ // h0 bit shift |
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VSRL t8, t1, t1 \ // h2 bit shift |
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VSRL t11, t2, t2 \ // h2 bit shift |
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VSRL t8, t3, t3 \ // h3 bit shift |
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VSRL t8, t4, t4 \ // h4 bit shift |
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VESLG $2, t2, t9 \ // h2 carry x5 |
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VSRL t11, t5, t5 \ // h5 bit shift |
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VN t6, h0, h0 \ // h0 clear carry |
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VAQ t2, t9, t2 \ // h2 carry x5 |
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VESLG $2, t5, t9 \ // h5 carry x5 |
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VN t6, h1, h1 \ // h1 clear carry |
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VN t7, h2, h2 \ // h2 clear carry |
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VAQ t5, t9, t5 \ // h5 carry x5 |
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VN t6, h3, h3 \ // h3 clear carry |
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VN t6, h4, h4 \ // h4 clear carry |
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VN t7, h5, h5 \ // h5 clear carry |
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VAQ t0, h1, h1 \ // h0->h1 |
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VAQ t3, h4, h4 \ // h3->h4 |
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VAQ t1, h2, h2 \ // h1->h2 |
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VAQ t4, h5, h5 \ // h4->h5 |
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VAQ t2, h0, h0 \ // h2->h0 |
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VAQ t5, h3, h3 \ // h5->h3 |
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VREPG $1, t6, t6 \ // 44 and 42 bit masks across both halves |
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VREPG $1, t7, t7 \ |
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VSLDB $8, h0, h0, h0 \ // set up [h0/1/2, h3/4/5] |
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VSLDB $8, h1, h1, h1 \ |
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VSLDB $8, h2, h2, h2 \ |
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VO h0, h3, h3 \ |
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VO h1, h4, h4 \ |
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VO h2, h5, h5 \ |
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VESRLG $44, h3, t0 \ // 44 bit shift right |
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VESRLG $44, h4, t1 \ |
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VESRLG $42, h5, t2 \ |
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VN t6, h3, h3 \ // clear carry bits |
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VN t6, h4, h4 \ |
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VN t7, h5, h5 \ |
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VESLG $2, t2, t9 \ // multiply carry by 5 |
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VAQ t9, t2, t2 \ |
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VAQ t0, h4, h4 \ |
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VAQ t1, h5, h5 \ |
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VAQ t2, h3, h3 \ |
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// carry h0->h1->h2->h0 |
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// input: h0, h1, h2 |
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// temp: t0, t1, t2, t3, t4, t5, t6, t7, t8 |
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// output: h0, h1, h2 |
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#define REDUCE2(h0, h1, h2, t0, t1, t2, t3, t4, t5, t6, t7, t8) \ |
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VLEIB $7, $0x28, t3 \ // 5 byte shift mask |
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VREPIB $4, t4 \ // 4 bit shift mask |
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VREPIB $2, t7 \ // 2 bit shift mask |
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VGBM $0x003F, t5 \ // mask to clear carry bits |
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VSRLB t3, h0, t0 \ |
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VSRLB t3, h1, t1 \ |
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VSRLB t3, h2, t2 \ |
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VESRLG $4, t5, t5 \ // 44 bit clear mask |
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VSRL t4, t0, t0 \ |
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VSRL t4, t1, t1 \ |
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VSRL t7, t2, t2 \ |
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VESRLG $2, t5, t6 \ // 42 bit clear mask |
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VESLG $2, t2, t8 \ |
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VAQ t8, t2, t2 \ |
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VN t5, h0, h0 \ |
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VN t5, h1, h1 \ |
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VN t6, h2, h2 \ |
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VAQ t0, h1, h1 \ |
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VAQ t1, h2, h2 \ |
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VAQ t2, h0, h0 \ |
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VSRLB t3, h0, t0 \ |
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VSRLB t3, h1, t1 \ |
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VSRLB t3, h2, t2 \ |
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VSRL t4, t0, t0 \ |
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VSRL t4, t1, t1 \ |
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VSRL t7, t2, t2 \ |
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VN t5, h0, h0 \ |
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VN t5, h1, h1 \ |
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VESLG $2, t2, t8 \ |
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VN t6, h2, h2 \ |
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VAQ t0, h1, h1 \ |
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VAQ t8, t2, t2 \ |
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VAQ t1, h2, h2 \ |
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VAQ t2, h0, h0 \ |
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// expands two message blocks into the lower halfs of the d registers |
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// moves the contents of the d registers into upper halfs |
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// input: in1, in2, d0, d1, d2, d3, d4, d5 |
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// temp: TEMP0, TEMP1, TEMP2, TEMP3 |
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// output: d0, d1, d2, d3, d4, d5 |
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#define EXPACC(in1, in2, d0, d1, d2, d3, d4, d5, TEMP0, TEMP1, TEMP2, TEMP3) \ |
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VGBM $0xff3f, TEMP0 \ |
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VGBM $0xff1f, TEMP1 \ |
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VESLG $4, d1, TEMP2 \ |
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VESLG $4, d4, TEMP3 \ |
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VESRLG $4, TEMP0, TEMP0 \ |
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VPERM in1, d0, EX0, d0 \ |
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VPERM in2, d3, EX0, d3 \ |
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VPERM in1, d2, EX2, d2 \ |
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VPERM in2, d5, EX2, d5 \ |
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VPERM in1, TEMP2, EX1, d1 \ |
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VPERM in2, TEMP3, EX1, d4 \ |
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VN TEMP0, d0, d0 \ |
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VN TEMP0, d3, d3 \ |
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VESRLG $4, d1, d1 \ |
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VESRLG $4, d4, d4 \ |
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VN TEMP1, d2, d2 \ |
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VN TEMP1, d5, d5 \ |
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VN TEMP0, d1, d1 \ |
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VN TEMP0, d4, d4 \ |
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// expands one message block into the lower halfs of the d registers |
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// moves the contents of the d registers into upper halfs |
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// input: in, d0, d1, d2 |
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// temp: TEMP0, TEMP1, TEMP2 |
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// output: d0, d1, d2 |
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#define EXPACC2(in, d0, d1, d2, TEMP0, TEMP1, TEMP2) \ |
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VGBM $0xff3f, TEMP0 \ |
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VESLG $4, d1, TEMP2 \ |
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VGBM $0xff1f, TEMP1 \ |
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VPERM in, d0, EX0, d0 \ |
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VESRLG $4, TEMP0, TEMP0 \ |
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VPERM in, d2, EX2, d2 \ |
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VPERM in, TEMP2, EX1, d1 \ |
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VN TEMP0, d0, d0 \ |
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VN TEMP1, d2, d2 \ |
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VESRLG $4, d1, d1 \ |
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VN TEMP0, d1, d1 \ |
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// pack h2:h0 into h1:h0 (no carry) |
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// input: h0, h1, h2 |
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// output: h0, h1, h2 |
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#define PACK(h0, h1, h2) \ |
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VMRLG h1, h2, h2 \ // copy h1 to upper half h2 |
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VESLG $44, h1, h1 \ // shift limb 1 44 bits, leaving 20 |
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VO h0, h1, h0 \ // combine h0 with 20 bits from limb 1 |
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VESRLG $20, h2, h1 \ // put top 24 bits of limb 1 into h1 |
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VLEIG $1, $0, h1 \ // clear h2 stuff from lower half of h1 |
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VO h0, h1, h0 \ // h0 now has 88 bits (limb 0 and 1) |
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VLEIG $0, $0, h2 \ // clear upper half of h2 |
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VESRLG $40, h2, h1 \ // h1 now has upper two bits of result |
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VLEIB $7, $88, h1 \ // for byte shift (11 bytes) |
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VSLB h1, h2, h2 \ // shift h2 11 bytes to the left |
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VO h0, h2, h0 \ // combine h0 with 20 bits from limb 1 |
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VLEIG $0, $0, h1 \ // clear upper half of h1 |
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// if h > 2**130-5 then h -= 2**130-5 |
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// input: h0, h1 |
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// temp: t0, t1, t2 |
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// output: h0 |
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#define MOD(h0, h1, t0, t1, t2) \ |
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VZERO t0 \ |
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VLEIG $1, $5, t0 \ |
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VACCQ h0, t0, t1 \ |
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VAQ h0, t0, t0 \ |
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VONE t2 \ |
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VLEIG $1, $-4, t2 \ |
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VAQ t2, t1, t1 \ |
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VACCQ h1, t1, t1 \ |
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VONE t2 \ |
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VAQ t2, t1, t1 \ |
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VN h0, t1, t2 \ |
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VNC t0, t1, t1 \ |
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VO t1, t2, h0 \ |
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// func poly1305vmsl(out *[16]byte, m *byte, mlen uint64, key *[32]key) |
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TEXT ·poly1305vmsl(SB), $0-32 |
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// This code processes 6 + up to 4 blocks (32 bytes) per iteration |
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// using the algorithm described in: |
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// NEON crypto, Daniel J. Bernstein & Peter Schwabe |
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// https://cryptojedi.org/papers/neoncrypto-20120320.pdf |
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// And as moddified for VMSL as described in |
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// Accelerating Poly1305 Cryptographic Message Authentication on the z14 |
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// O'Farrell et al, CASCON 2017, p48-55 |
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// https://ibm.ent.box.com/s/jf9gedj0e9d2vjctfyh186shaztavnht |
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|
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LMG out+0(FP), R1, R4 // R1=out, R2=m, R3=mlen, R4=key |
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VZERO V0 // c |
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|
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// load EX0, EX1 and EX2 |
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MOVD $·constants<>(SB), R5 |
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VLM (R5), EX0, EX2 // c |
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|
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// setup r |
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VL (R4), T_0 |
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MOVD $·keyMask<>(SB), R6 |
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VL (R6), T_1 |
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VN T_0, T_1, T_0 |
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VZERO T_2 // limbs for r |
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VZERO T_3 |
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VZERO T_4 |
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EXPACC2(T_0, T_2, T_3, T_4, T_1, T_5, T_7) |
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|
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// T_2, T_3, T_4: [0, r] |
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|
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// setup r*20 |
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VLEIG $0, $0, T_0 |
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VLEIG $1, $20, T_0 // T_0: [0, 20] |
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VZERO T_5 |
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VZERO T_6 |
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VMSLG T_0, T_3, T_5, T_5 |
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VMSLG T_0, T_4, T_6, T_6 |
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|
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// store r for final block in GR |
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VLGVG $1, T_2, RSAVE_0 // c |
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VLGVG $1, T_3, RSAVE_1 // c |
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VLGVG $1, T_4, RSAVE_2 // c |
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VLGVG $1, T_5, R5SAVE_1 // c |
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VLGVG $1, T_6, R5SAVE_2 // c |
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|
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// initialize h |
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VZERO H0_0 |
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VZERO H1_0 |
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VZERO H2_0 |
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VZERO H0_1 |
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VZERO H1_1 |
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VZERO H2_1 |
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|
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// initialize pointer for reduce constants |
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MOVD $·reduce<>(SB), R12 |
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|
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// calculate r**2 and 20*(r**2) |
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VZERO R_0 |
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VZERO R_1 |
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VZERO R_2 |
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SQUARE(T_2, T_3, T_4, T_6, R_0, R_1, R_2, T_1, T_5, T_7) |
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REDUCE2(R_0, R_1, R_2, M0, M1, M2, M3, M4, R5_1, R5_2, M5, T_1) |
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VZERO R5_1 |
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VZERO R5_2 |
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VMSLG T_0, R_1, R5_1, R5_1 |
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VMSLG T_0, R_2, R5_2, R5_2 |
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|
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// skip r**4 calculation if 3 blocks or less |
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CMPBLE R3, $48, b4 |
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|
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// calculate r**4 and 20*(r**4) |
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VZERO T_8 |
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VZERO T_9 |
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VZERO T_10 |
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SQUARE(R_0, R_1, R_2, R5_2, T_8, T_9, T_10, T_1, T_5, T_7) |
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REDUCE2(T_8, T_9, T_10, M0, M1, M2, M3, M4, T_2, T_3, M5, T_1) |
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VZERO T_2 |
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VZERO T_3 |
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VMSLG T_0, T_9, T_2, T_2 |
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VMSLG T_0, T_10, T_3, T_3 |
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|
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// put r**2 to the right and r**4 to the left of R_0, R_1, R_2 |
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VSLDB $8, T_8, T_8, T_8 |
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VSLDB $8, T_9, T_9, T_9 |
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VSLDB $8, T_10, T_10, T_10 |
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VSLDB $8, T_2, T_2, T_2 |
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VSLDB $8, T_3, T_3, T_3 |
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|
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VO T_8, R_0, R_0 |
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VO T_9, R_1, R_1 |
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VO T_10, R_2, R_2 |
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VO T_2, R5_1, R5_1 |
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VO T_3, R5_2, R5_2 |
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|
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CMPBLE R3, $80, load // less than or equal to 5 blocks in message |
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|
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// 6(or 5+1) blocks |
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SUB $81, R3 |
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VLM (R2), M0, M4 |
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VLL R3, 80(R2), M5 |
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ADD $1, R3 |
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MOVBZ $1, R0 |
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CMPBGE R3, $16, 2(PC) |
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VLVGB R3, R0, M5 |
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MOVD $96(R2), R2 |
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EXPACC(M0, M1, H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_0, T_1, T_2, T_3) |
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EXPACC(M2, M3, H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_0, T_1, T_2, T_3) |
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VLEIB $2, $1, H2_0 |
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VLEIB $2, $1, H2_1 |
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VLEIB $10, $1, H2_0 |
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VLEIB $10, $1, H2_1 |
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|
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VZERO M0 |
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VZERO M1 |
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VZERO M2 |
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VZERO M3 |
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VZERO T_4 |
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VZERO T_10 |
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EXPACC(M4, M5, M0, M1, M2, M3, T_4, T_10, T_0, T_1, T_2, T_3) |
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VLR T_4, M4 |
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VLEIB $10, $1, M2 |
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CMPBLT R3, $16, 2(PC) |
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VLEIB $10, $1, T_10 |
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MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, T_10, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
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REDUCE(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_10, M0, M1, M2, M3, M4, T_4, T_5, T_2, T_7, T_8, T_9) |
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VMRHG V0, H0_1, H0_0 |
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VMRHG V0, H1_1, H1_0 |
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VMRHG V0, H2_1, H2_0 |
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VMRLG V0, H0_1, H0_1 |
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VMRLG V0, H1_1, H1_1 |
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VMRLG V0, H2_1, H2_1 |
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|
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SUB $16, R3 |
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CMPBLE R3, $0, square |
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|
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load: |
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// load EX0, EX1 and EX2 |
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MOVD $·c<>(SB), R5 |
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VLM (R5), EX0, EX2 |
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|
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loop: |
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CMPBLE R3, $64, add // b4 // last 4 or less blocks left |
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|
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// next 4 full blocks |
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VLM (R2), M2, M5 |
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SUB $64, R3 |
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MOVD $64(R2), R2 |
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REDUCE(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_10, M0, M1, T_0, T_1, T_3, T_4, T_5, T_2, T_7, T_8, T_9) |
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|
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// expacc in-lined to create [m2, m3] limbs |
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VGBM $0x3f3f, T_0 // 44 bit clear mask |
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VGBM $0x1f1f, T_1 // 40 bit clear mask |
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VPERM M2, M3, EX0, T_3 |
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VESRLG $4, T_0, T_0 // 44 bit clear mask ready |
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VPERM M2, M3, EX1, T_4 |
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VPERM M2, M3, EX2, T_5 |
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VN T_0, T_3, T_3 |
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VESRLG $4, T_4, T_4 |
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VN T_1, T_5, T_5 |
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VN T_0, T_4, T_4 |
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VMRHG H0_1, T_3, H0_0 |
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VMRHG H1_1, T_4, H1_0 |
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VMRHG H2_1, T_5, H2_0 |
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VMRLG H0_1, T_3, H0_1 |
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VMRLG H1_1, T_4, H1_1 |
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VMRLG H2_1, T_5, H2_1 |
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VLEIB $10, $1, H2_0 |
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VLEIB $10, $1, H2_1 |
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VPERM M4, M5, EX0, T_3 |
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VPERM M4, M5, EX1, T_4 |
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VPERM M4, M5, EX2, T_5 |
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VN T_0, T_3, T_3 |
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VESRLG $4, T_4, T_4 |
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VN T_1, T_5, T_5 |
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VN T_0, T_4, T_4 |
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VMRHG V0, T_3, M0 |
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VMRHG V0, T_4, M1 |
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VMRHG V0, T_5, M2 |
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VMRLG V0, T_3, M3 |
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VMRLG V0, T_4, M4 |
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VMRLG V0, T_5, M5 |
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VLEIB $10, $1, M2 |
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VLEIB $10, $1, M5 |
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|
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MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
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CMPBNE R3, $0, loop |
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REDUCE(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_10, M0, M1, M3, M4, M5, T_4, T_5, T_2, T_7, T_8, T_9) |
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VMRHG V0, H0_1, H0_0 |
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VMRHG V0, H1_1, H1_0 |
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VMRHG V0, H2_1, H2_0 |
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VMRLG V0, H0_1, H0_1 |
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VMRLG V0, H1_1, H1_1 |
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VMRLG V0, H2_1, H2_1 |
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|
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// load EX0, EX1, EX2 |
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MOVD $·constants<>(SB), R5 |
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VLM (R5), EX0, EX2 |
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|
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// sum vectors |
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VAQ H0_0, H0_1, H0_0 |
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VAQ H1_0, H1_1, H1_0 |
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VAQ H2_0, H2_1, H2_0 |
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|
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// h may be >= 2*(2**130-5) so we need to reduce it again |
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// M0...M4 are used as temps here |
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REDUCE2(H0_0, H1_0, H2_0, M0, M1, M2, M3, M4, T_9, T_10, H0_1, M5) |
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|
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next: // carry h1->h2 |
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VLEIB $7, $0x28, T_1 |
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VREPIB $4, T_2 |
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VGBM $0x003F, T_3 |
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VESRLG $4, T_3 |
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|
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// byte shift |
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VSRLB T_1, H1_0, T_4 |
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|
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// bit shift |
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VSRL T_2, T_4, T_4 |
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|
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// clear h1 carry bits |
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VN T_3, H1_0, H1_0 |
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|
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// add carry |
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VAQ T_4, H2_0, H2_0 |
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|
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// h is now < 2*(2**130-5) |
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// pack h into h1 (hi) and h0 (lo) |
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PACK(H0_0, H1_0, H2_0) |
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|
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// if h > 2**130-5 then h -= 2**130-5 |
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MOD(H0_0, H1_0, T_0, T_1, T_2) |
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|
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// h += s |
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MOVD $·bswapMask<>(SB), R5 |
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VL (R5), T_1 |
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VL 16(R4), T_0 |
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VPERM T_0, T_0, T_1, T_0 // reverse bytes (to big) |
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VAQ T_0, H0_0, H0_0 |
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VPERM H0_0, H0_0, T_1, H0_0 // reverse bytes (to little) |
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VST H0_0, (R1) |
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RET |
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|
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add: |
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// load EX0, EX1, EX2 |
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MOVD $·constants<>(SB), R5 |
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VLM (R5), EX0, EX2 |
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|
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REDUCE(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_10, M0, M1, M3, M4, M5, T_4, T_5, T_2, T_7, T_8, T_9) |
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VMRHG V0, H0_1, H0_0 |
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VMRHG V0, H1_1, H1_0 |
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VMRHG V0, H2_1, H2_0 |
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VMRLG V0, H0_1, H0_1 |
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VMRLG V0, H1_1, H1_1 |
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VMRLG V0, H2_1, H2_1 |
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CMPBLE R3, $64, b4 |
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|
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b4: |
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CMPBLE R3, $48, b3 // 3 blocks or less |
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|
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// 4(3+1) blocks remaining |
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SUB $49, R3 |
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VLM (R2), M0, M2 |
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VLL R3, 48(R2), M3 |
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ADD $1, R3 |
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MOVBZ $1, R0 |
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CMPBEQ R3, $16, 2(PC) |
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VLVGB R3, R0, M3 |
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MOVD $64(R2), R2 |
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EXPACC(M0, M1, H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_0, T_1, T_2, T_3) |
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VLEIB $10, $1, H2_0 |
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VLEIB $10, $1, H2_1 |
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VZERO M0 |
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VZERO M1 |
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VZERO M4 |
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VZERO M5 |
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VZERO T_4 |
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VZERO T_10 |
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EXPACC(M2, M3, M0, M1, M4, M5, T_4, T_10, T_0, T_1, T_2, T_3) |
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VLR T_4, M2 |
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VLEIB $10, $1, M4 |
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CMPBNE R3, $16, 2(PC) |
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VLEIB $10, $1, T_10 |
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MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M4, M5, M2, T_10, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
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REDUCE(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_10, M0, M1, M3, M4, M5, T_4, T_5, T_2, T_7, T_8, T_9) |
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VMRHG V0, H0_1, H0_0 |
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VMRHG V0, H1_1, H1_0 |
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VMRHG V0, H2_1, H2_0 |
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VMRLG V0, H0_1, H0_1 |
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VMRLG V0, H1_1, H1_1 |
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VMRLG V0, H2_1, H2_1 |
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SUB $16, R3 |
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CMPBLE R3, $0, square // this condition must always hold true! |
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|
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b3: |
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CMPBLE R3, $32, b2 |
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|
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// 3 blocks remaining |
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|
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// setup [r²,r] |
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VSLDB $8, R_0, R_0, R_0 |
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VSLDB $8, R_1, R_1, R_1 |
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VSLDB $8, R_2, R_2, R_2 |
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VSLDB $8, R5_1, R5_1, R5_1 |
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VSLDB $8, R5_2, R5_2, R5_2 |
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|
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VLVGG $1, RSAVE_0, R_0 |
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VLVGG $1, RSAVE_1, R_1 |
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VLVGG $1, RSAVE_2, R_2 |
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VLVGG $1, R5SAVE_1, R5_1 |
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VLVGG $1, R5SAVE_2, R5_2 |
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|
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// setup [h0, h1] |
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VSLDB $8, H0_0, H0_0, H0_0 |
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VSLDB $8, H1_0, H1_0, H1_0 |
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VSLDB $8, H2_0, H2_0, H2_0 |
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VO H0_1, H0_0, H0_0 |
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VO H1_1, H1_0, H1_0 |
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VO H2_1, H2_0, H2_0 |
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VZERO H0_1 |
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VZERO H1_1 |
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VZERO H2_1 |
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|
||||
VZERO M0 |
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VZERO M1 |
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VZERO M2 |
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VZERO M3 |
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VZERO M4 |
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VZERO M5 |
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|
||||
// H*[r**2, r] |
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MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
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REDUCE2(H0_0, H1_0, H2_0, M0, M1, M2, M3, M4, H0_1, H1_1, T_10, M5) |
||||
|
||||
SUB $33, R3 |
||||
VLM (R2), M0, M1 |
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VLL R3, 32(R2), M2 |
||||
ADD $1, R3 |
||||
MOVBZ $1, R0 |
||||
CMPBEQ R3, $16, 2(PC) |
||||
VLVGB R3, R0, M2 |
||||
|
||||
// H += m0 |
||||
VZERO T_1 |
||||
VZERO T_2 |
||||
VZERO T_3 |
||||
EXPACC2(M0, T_1, T_2, T_3, T_4, T_5, T_6) |
||||
VLEIB $10, $1, T_3 |
||||
VAG H0_0, T_1, H0_0 |
||||
VAG H1_0, T_2, H1_0 |
||||
VAG H2_0, T_3, H2_0 |
||||
|
||||
VZERO M0 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
VZERO T_10 |
||||
|
||||
// (H+m0)*r |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M3, M4, M5, V0, T_10, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE2(H0_0, H1_0, H2_0, M0, M3, M4, M5, T_10, H0_1, H1_1, H2_1, T_9) |
||||
|
||||
// H += m1 |
||||
VZERO V0 |
||||
VZERO T_1 |
||||
VZERO T_2 |
||||
VZERO T_3 |
||||
EXPACC2(M1, T_1, T_2, T_3, T_4, T_5, T_6) |
||||
VLEIB $10, $1, T_3 |
||||
VAQ H0_0, T_1, H0_0 |
||||
VAQ H1_0, T_2, H1_0 |
||||
VAQ H2_0, T_3, H2_0 |
||||
REDUCE2(H0_0, H1_0, H2_0, M0, M3, M4, M5, T_9, H0_1, H1_1, H2_1, T_10) |
||||
|
||||
// [H, m2] * [r**2, r] |
||||
EXPACC2(M2, H0_0, H1_0, H2_0, T_1, T_2, T_3) |
||||
CMPBNE R3, $16, 2(PC) |
||||
VLEIB $10, $1, H2_0 |
||||
VZERO M0 |
||||
VZERO M1 |
||||
VZERO M2 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE2(H0_0, H1_0, H2_0, M0, M1, M2, M3, M4, H0_1, H1_1, M5, T_10) |
||||
SUB $16, R3 |
||||
CMPBLE R3, $0, next // this condition must always hold true! |
||||
|
||||
b2: |
||||
CMPBLE R3, $16, b1 |
||||
|
||||
// 2 blocks remaining |
||||
|
||||
// setup [r²,r] |
||||
VSLDB $8, R_0, R_0, R_0 |
||||
VSLDB $8, R_1, R_1, R_1 |
||||
VSLDB $8, R_2, R_2, R_2 |
||||
VSLDB $8, R5_1, R5_1, R5_1 |
||||
VSLDB $8, R5_2, R5_2, R5_2 |
||||
|
||||
VLVGG $1, RSAVE_0, R_0 |
||||
VLVGG $1, RSAVE_1, R_1 |
||||
VLVGG $1, RSAVE_2, R_2 |
||||
VLVGG $1, R5SAVE_1, R5_1 |
||||
VLVGG $1, R5SAVE_2, R5_2 |
||||
|
||||
// setup [h0, h1] |
||||
VSLDB $8, H0_0, H0_0, H0_0 |
||||
VSLDB $8, H1_0, H1_0, H1_0 |
||||
VSLDB $8, H2_0, H2_0, H2_0 |
||||
VO H0_1, H0_0, H0_0 |
||||
VO H1_1, H1_0, H1_0 |
||||
VO H2_1, H2_0, H2_0 |
||||
VZERO H0_1 |
||||
VZERO H1_1 |
||||
VZERO H2_1 |
||||
|
||||
VZERO M0 |
||||
VZERO M1 |
||||
VZERO M2 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
|
||||
// H*[r**2, r] |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, T_10, M0, M1, M2, M3, M4, T_4, T_5, T_2, T_7, T_8, T_9) |
||||
VMRHG V0, H0_1, H0_0 |
||||
VMRHG V0, H1_1, H1_0 |
||||
VMRHG V0, H2_1, H2_0 |
||||
VMRLG V0, H0_1, H0_1 |
||||
VMRLG V0, H1_1, H1_1 |
||||
VMRLG V0, H2_1, H2_1 |
||||
|
||||
// move h to the left and 0s at the right |
||||
VSLDB $8, H0_0, H0_0, H0_0 |
||||
VSLDB $8, H1_0, H1_0, H1_0 |
||||
VSLDB $8, H2_0, H2_0, H2_0 |
||||
|
||||
// get message blocks and append 1 to start |
||||
SUB $17, R3 |
||||
VL (R2), M0 |
||||
VLL R3, 16(R2), M1 |
||||
ADD $1, R3 |
||||
MOVBZ $1, R0 |
||||
CMPBEQ R3, $16, 2(PC) |
||||
VLVGB R3, R0, M1 |
||||
VZERO T_6 |
||||
VZERO T_7 |
||||
VZERO T_8 |
||||
EXPACC2(M0, T_6, T_7, T_8, T_1, T_2, T_3) |
||||
EXPACC2(M1, T_6, T_7, T_8, T_1, T_2, T_3) |
||||
VLEIB $2, $1, T_8 |
||||
CMPBNE R3, $16, 2(PC) |
||||
VLEIB $10, $1, T_8 |
||||
|
||||
// add [m0, m1] to h |
||||
VAG H0_0, T_6, H0_0 |
||||
VAG H1_0, T_7, H1_0 |
||||
VAG H2_0, T_8, H2_0 |
||||
|
||||
VZERO M2 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
VZERO T_10 |
||||
VZERO M0 |
||||
|
||||
// at this point R_0 .. R5_2 look like [r**2, r] |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M2, M3, M4, M5, T_10, M0, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE2(H0_0, H1_0, H2_0, M2, M3, M4, M5, T_9, H0_1, H1_1, H2_1, T_10) |
||||
SUB $16, R3, R3 |
||||
CMPBLE R3, $0, next |
||||
|
||||
b1: |
||||
CMPBLE R3, $0, next |
||||
|
||||
// 1 block remaining |
||||
|
||||
// setup [r²,r] |
||||
VSLDB $8, R_0, R_0, R_0 |
||||
VSLDB $8, R_1, R_1, R_1 |
||||
VSLDB $8, R_2, R_2, R_2 |
||||
VSLDB $8, R5_1, R5_1, R5_1 |
||||
VSLDB $8, R5_2, R5_2, R5_2 |
||||
|
||||
VLVGG $1, RSAVE_0, R_0 |
||||
VLVGG $1, RSAVE_1, R_1 |
||||
VLVGG $1, RSAVE_2, R_2 |
||||
VLVGG $1, R5SAVE_1, R5_1 |
||||
VLVGG $1, R5SAVE_2, R5_2 |
||||
|
||||
// setup [h0, h1] |
||||
VSLDB $8, H0_0, H0_0, H0_0 |
||||
VSLDB $8, H1_0, H1_0, H1_0 |
||||
VSLDB $8, H2_0, H2_0, H2_0 |
||||
VO H0_1, H0_0, H0_0 |
||||
VO H1_1, H1_0, H1_0 |
||||
VO H2_1, H2_0, H2_0 |
||||
VZERO H0_1 |
||||
VZERO H1_1 |
||||
VZERO H2_1 |
||||
|
||||
VZERO M0 |
||||
VZERO M1 |
||||
VZERO M2 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
|
||||
// H*[r**2, r] |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE2(H0_0, H1_0, H2_0, M0, M1, M2, M3, M4, T_9, T_10, H0_1, M5) |
||||
|
||||
// set up [0, m0] limbs |
||||
SUB $1, R3 |
||||
VLL R3, (R2), M0 |
||||
ADD $1, R3 |
||||
MOVBZ $1, R0 |
||||
CMPBEQ R3, $16, 2(PC) |
||||
VLVGB R3, R0, M0 |
||||
VZERO T_1 |
||||
VZERO T_2 |
||||
VZERO T_3 |
||||
EXPACC2(M0, T_1, T_2, T_3, T_4, T_5, T_6)// limbs: [0, m] |
||||
CMPBNE R3, $16, 2(PC) |
||||
VLEIB $10, $1, T_3 |
||||
|
||||
// h+m0 |
||||
VAQ H0_0, T_1, H0_0 |
||||
VAQ H1_0, T_2, H1_0 |
||||
VAQ H2_0, T_3, H2_0 |
||||
|
||||
VZERO M0 |
||||
VZERO M1 |
||||
VZERO M2 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE2(H0_0, H1_0, H2_0, M0, M1, M2, M3, M4, T_9, T_10, H0_1, M5) |
||||
|
||||
BR next |
||||
|
||||
square: |
||||
// setup [r²,r] |
||||
VSLDB $8, R_0, R_0, R_0 |
||||
VSLDB $8, R_1, R_1, R_1 |
||||
VSLDB $8, R_2, R_2, R_2 |
||||
VSLDB $8, R5_1, R5_1, R5_1 |
||||
VSLDB $8, R5_2, R5_2, R5_2 |
||||
|
||||
VLVGG $1, RSAVE_0, R_0 |
||||
VLVGG $1, RSAVE_1, R_1 |
||||
VLVGG $1, RSAVE_2, R_2 |
||||
VLVGG $1, R5SAVE_1, R5_1 |
||||
VLVGG $1, R5SAVE_2, R5_2 |
||||
|
||||
// setup [h0, h1] |
||||
VSLDB $8, H0_0, H0_0, H0_0 |
||||
VSLDB $8, H1_0, H1_0, H1_0 |
||||
VSLDB $8, H2_0, H2_0, H2_0 |
||||
VO H0_1, H0_0, H0_0 |
||||
VO H1_1, H1_0, H1_0 |
||||
VO H2_1, H2_0, H2_0 |
||||
VZERO H0_1 |
||||
VZERO H1_1 |
||||
VZERO H2_1 |
||||
|
||||
VZERO M0 |
||||
VZERO M1 |
||||
VZERO M2 |
||||
VZERO M3 |
||||
VZERO M4 |
||||
VZERO M5 |
||||
|
||||
// (h0*r**2) + (h1*r) |
||||
MULTIPLY(H0_0, H1_0, H2_0, H0_1, H1_1, H2_1, R_0, R_1, R_2, R5_1, R5_2, M0, M1, M2, M3, M4, M5, T_0, T_1, T_2, T_3, T_4, T_5, T_6, T_7, T_8, T_9) |
||||
REDUCE2(H0_0, H1_0, H2_0, M0, M1, M2, M3, M4, T_9, T_10, H0_1, M5) |
||||
BR next |
||||
Loading…
Reference in new issue