nil { panic(err) } c := &Counter{} c.c = *aes.NewCTR(cipher, V) c.update(entropy) c.reseedCounter = 1 return c } func (c *Counter) update(seed *[SeedSize]byte) { // CTR_DRBG_Update, per Section 10.2.1.2. temp := make([]byte, SeedSize) c.c.XORKeyStream(temp, seed[:]) K := temp[:keySize] V := temp[keySize:] // Again, we pre-increment V, like in NewCounter. increment((*[aes.BlockSize]byte)(V)) cipher, err := aes.New(K) if err != nil { panic(err) } c.c = *aes.NewCTR(cipher, V) } func increment(v *[aes.BlockSize]byte)...

12475..1247F  ; disallowed                             # NA   <reserved-12475>..<reserved-1247F>
12480..12543  ; valid                                  # 8.0  CUNEIFORM SIGN AB TIMES NUN TENU..CUNEIFORM SIGN ZU5 TIMES THREE DISH TENU
12544..12F8F  ; disallowed                             # NA   <reserved-12544>..<reserved-12F8F>
12F90..12FF0  ; valid                                  # 14.0 CYPRO-MINOAN SIGN CM001..CYPRO-MINOAN SIGN CM114

    large_constant]`) into 32-bit arithmetic in SASS.

    As a result, these versions of `ptxas` miscompile most XLA programs which
    use more than 4GB of temp memory. This results in garbage results and/or
    `CUDA_ERROR_ILLEGAL_ADDRESS` failures.

    A fix in CUDA 9.1.121 is expected in late February 2018. We do not expect a