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/*
Licensed to the Apache Software Foundation (ASF) under one
or more contributor license agreements. See the NOTICE file
distributed with this work for additional information
regarding copyright ownership. The ASF licenses this file
to you under the Apache License, Version 2.0 (the
"License"); you may not use this file except in compliance
with the License. You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing,
software distributed under the License is distributed on an
"AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY
KIND, either express or implied. See the License for the
specific language governing permissions and limitations
under the License.
*/
//
// TestECDH.swift
//
// Created by Michael Scott on 02/07/2015.
// Copyright (c) 2015 Michael Scott. All rights reserved.
//
import Foundation
//import amcl // comment out for Xcode
public func BenchtestEC()
{
let pub=rsa_public_key(Int(ROM.FFLEN))
let priv=rsa_private_key(Int(ROM.HFLEN))
var C=[UInt8](repeating: 0,count: RSA.RFS)
var P=[UInt8](repeating: 0,count: RSA.RFS)
var M=[UInt8](repeating: 0,count: RSA.RFS)
let MIN_TIME=10.0
let MIN_ITERS=10
var fail=false;
var RAW=[UInt8](repeating: 0,count: 100)
let rng=RAND()
rng.clean();
for i in 0 ..< 100 {RAW[i]=UInt8(i&0xff)}
rng.seed(100,RAW)
if ROM.CURVETYPE==ROM.WEIERSTRASS {
print("Weierstrass parameterisation")
}
if ROM.CURVETYPE==ROM.EDWARDS {
print("Edwards parameterisation")
}
if ROM.CURVETYPE==ROM.MONTGOMERY {
print("Montgomery representation")
}
if ROM.MODTYPE==ROM.PSEUDO_MERSENNE {
print("Pseudo-Mersenne Modulus")
}
if ROM.MODTYPE==ROM.MONTGOMERY_FRIENDLY {
print("Montgomery Friendly Modulus")
}
if ROM.MODTYPE==ROM.GENERALISED_MERSENNE {
print("Generalised-Mersenne Modulus")
}
if ROM.MODTYPE==ROM.NOT_SPECIAL {
print("Not special Modulus")
}
print("Modulus size \(ROM.MODBITS) bits")
print("\(ROM.CHUNK) bit build")
let gx=BIG(ROM.CURVE_Gx);
var s:BIG
var G:ECP
if ROM.CURVETYPE != ROM.MONTGOMERY
{
let gy=BIG(ROM.CURVE_Gy)
G=ECP(gx,gy)
}
else
{G=ECP(gx)}
let r=BIG(ROM.CURVE_Order)
s=BIG.randomnum(r,rng)
var W=G.mul(r)
if !W.is_infinity() {
print("FAILURE - rG!=O")
fail=true;
}
var start=Date()
var iterations=0
var elapsed=0.0
while elapsed<MIN_TIME || iterations<MIN_ITERS {
W=G.mul(s)
iterations+=1
elapsed = -start.timeIntervalSinceNow
}
elapsed=1000.0*elapsed/Double(iterations)
print(String(format: "EC mul - %d iterations",iterations),terminator: "");
print(String(format: " %.2f ms per iteration",elapsed))
print("Generating \(ROM.FFLEN*ROM.BIGBITS) RSA public/private key pair")
start=Date()
iterations=0
elapsed=0.0
while elapsed<MIN_TIME || iterations<MIN_ITERS {
RSA.KEY_PAIR(rng,65537,priv,pub)
iterations+=1
elapsed = -start.timeIntervalSinceNow
}
elapsed=1000.0*elapsed/Double(iterations)
print(String(format: "RSA gen - %d iterations",iterations),terminator: "");
print(String(format: " %.2f ms per iteration",elapsed))
for i in 0..<RSA.RFS {M[i]=UInt8(i%128)}
start=Date()
iterations=0
elapsed=0.0
while elapsed<MIN_TIME || iterations<MIN_ITERS {
RSA.ENCRYPT(pub,M,&C)
iterations+=1
elapsed = -start.timeIntervalSinceNow
}
elapsed=1000.0*elapsed/Double(iterations)
print(String(format: "RSA enc - %d iterations",iterations),terminator: "");
print(String(format: " %.2f ms per iteration",elapsed))
start=Date()
iterations=0
elapsed=0.0
while elapsed<MIN_TIME || iterations<MIN_ITERS {
RSA.DECRYPT(priv,C,&P)
iterations+=1
elapsed = -start.timeIntervalSinceNow
}
elapsed=1000.0*elapsed/Double(iterations)
print(String(format: "RSA dec - %d iterations",iterations),terminator: "");
print(String(format: " %.2f ms per iteration",elapsed))
var cmp=true
for i in 0..<RSA.RFS {
if P[i] != M[i] {cmp=false}
}
if !cmp {
print("FAILURE - RSA decryption")
fail=true;
}
if !fail {
print("All tests pass")
}
}
//BenchtestEC()