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@@ -378,12 +378,12 @@ extern void slb_set_size(u16 size);
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*/
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#define CONTEXT_BITS 19
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-#define USER_ESID_BITS 18
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-#define USER_ESID_BITS_1T 6
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+#define ESID_BITS 18
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+#define ESID_BITS_1T 6
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/*
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* 256MB segment
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- * The proto-VSID space has 2^(CONTEX_BITS + USER_ESID_BITS) - 1 segments
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+ * The proto-VSID space has 2^(CONTEX_BITS + ESID_BITS) - 1 segments
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* available for user + kernel mapping. The top 4 contexts are used for
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* kernel mapping. Each segment contains 2^28 bytes. Each
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* context maps 2^46 bytes (64TB) so we can support 2^19-1 contexts
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@@ -396,15 +396,15 @@ extern void slb_set_size(u16 size);
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* doesn't overflow 64 bits. It should also be co-prime to vsid_modulus
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*/
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#define VSID_MULTIPLIER_256M ASM_CONST(12538073) /* 24-bit prime */
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-#define VSID_BITS_256M (CONTEXT_BITS + USER_ESID_BITS)
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+#define VSID_BITS_256M (CONTEXT_BITS + ESID_BITS)
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#define VSID_MODULUS_256M ((1UL<<VSID_BITS_256M)-1)
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#define VSID_MULTIPLIER_1T ASM_CONST(12538073) /* 24-bit prime */
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-#define VSID_BITS_1T (CONTEXT_BITS + USER_ESID_BITS_1T)
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+#define VSID_BITS_1T (CONTEXT_BITS + ESID_BITS_1T)
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#define VSID_MODULUS_1T ((1UL<<VSID_BITS_1T)-1)
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-#define USER_VSID_RANGE (1UL << (USER_ESID_BITS + SID_SHIFT))
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+#define USER_VSID_RANGE (1UL << (ESID_BITS + SID_SHIFT))
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/*
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* This macro generates asm code to compute the VSID scramble
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@@ -540,9 +540,9 @@ static inline unsigned long get_vsid(unsigned long context, unsigned long ea,
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return 0;
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if (ssize == MMU_SEGSIZE_256M)
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- return vsid_scramble((context << USER_ESID_BITS)
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+ return vsid_scramble((context << ESID_BITS)
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| (ea >> SID_SHIFT), 256M);
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- return vsid_scramble((context << USER_ESID_BITS_1T)
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+ return vsid_scramble((context << ESID_BITS_1T)
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| (ea >> SID_SHIFT_1T), 1T);
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}
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