Update IDF to a0468b2 (#2108)

* Update IDF to a0468b2

* add missing ld file

* Fix PIO builds and change coex policy

tools/sdk/include/wpa_supplicant/crypto/crypto.h

@@ -606,4 +606,363 @@ int __must_check fast_crypto_mod_exp(const uint8_t *base, size_t base_len,
 int rc4_skip(const u8 *key, size_t keylen, size_t skip,
 	     u8 *data, size_t data_len);
 
+
+/**
+ * crypto_get_random - Generate cryptographically strong pseudy-random bytes
+ * @buf: Buffer for data
+ * @len: Number of bytes to generate
+ * Returns: 0 on success, -1 on failure
+ *
+ * If the PRNG does not have enough entropy to ensure unpredictable byte
+ * sequence, this functions must return -1.
+ */
+int crypto_get_random(void *buf, size_t len);
+
+
+/**
+ * struct crypto_bignum - bignum
+ *
+ * Internal data structure for bignum implementation. The contents is specific
+ * to the used crypto library.
+ */
+struct crypto_bignum;
+
+/**
+ * crypto_bignum_init - Allocate memory for bignum
+ * Returns: Pointer to allocated bignum or %NULL on failure
+ */
+struct crypto_bignum * crypto_bignum_init(void);
+
+/**
+ * crypto_bignum_init_set - Allocate memory for bignum and set the value
+ * @buf: Buffer with unsigned binary value
+ * @len: Length of buf in octets
+ * Returns: Pointer to allocated bignum or %NULL on failure
+ */
+struct crypto_bignum * crypto_bignum_init_set(const u8 *buf, size_t len);
+
+/**
+ * crypto_bignum_deinit - Free bignum
+ * @n: Bignum from crypto_bignum_init() or crypto_bignum_init_set()
+ * @clear: Whether to clear the value from memory
+ */
+void crypto_bignum_deinit(struct crypto_bignum *n, int clear);
+
+/**
+ * crypto_bignum_to_bin - Set binary buffer to unsigned bignum
+ * @a: Bignum
+ * @buf: Buffer for the binary number
+ * @len: Length of @buf in octets
+ * @padlen: Length in octets to pad the result to or 0 to indicate no padding
+ * Returns: Number of octets written on success, -1 on failure
+ */
+int crypto_bignum_to_bin(const struct crypto_bignum *a,
+        u8 *buf, size_t buflen, size_t padlen);
+
+/**
+ * crypto_bignum_add - c = a + b
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum; used to store the result of a + b
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_add(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        struct crypto_bignum *c);
+
+/**
+ * crypto_bignum_mod - c = a % b
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum; used to store the result of a % b
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_mod(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        struct crypto_bignum *c);
+
+/**
+ * crypto_bignum_exptmod - Modular exponentiation: d = a^b (mod c)
+ * @a: Bignum; base
+ * @b: Bignum; exponent
+ * @c: Bignum; modulus
+ * @d: Bignum; used to store the result of a^b (mod c)
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_exptmod(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        const struct crypto_bignum *c,
+        struct crypto_bignum *d);
+
+/**
+ * crypto_bignum_inverse - Inverse a bignum so that a * c = 1 (mod b)
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum; used to store the result
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_inverse(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        struct crypto_bignum *c);
+
+/**
+ * crypto_bignum_sub - c = a - b
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum; used to store the result of a - b
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_sub(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        struct crypto_bignum *c);
+
+/**
+ * crypto_bignum_div - c = a / b
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum; used to store the result of a / b
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_div(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        struct crypto_bignum *c);
+
+/**
+ * crypto_bignum_mulmod - d = a * b (mod c)
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum
+ * @d: Bignum; used to store the result of (a * b) % c
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_bignum_mulmod(const struct crypto_bignum *a,
+        const struct crypto_bignum *b,
+        const struct crypto_bignum *c,
+        struct crypto_bignum *d);
+
+/**
+ * crypto_bignum_cmp - Compare two bignums
+ * @a: Bignum
+ * @b: Bignum
+ * Returns: -1 if a < b, 0 if a == b, or 1 if a > b
+ */
+int crypto_bignum_cmp(const struct crypto_bignum *a,
+        const struct crypto_bignum *b);
+
+/**
+ * crypto_bignum_bits - Get size of a bignum in bits
+ * @a: Bignum
+ * Returns: Number of bits in the bignum
+ */
+int crypto_bignum_bits(const struct crypto_bignum *a);
+
+/**
+ * crypto_bignum_is_zero - Is the given bignum zero
+ * @a: Bignum
+ * Returns: 1 if @a is zero or 0 if not
+ */
+int crypto_bignum_is_zero(const struct crypto_bignum *a);
+
+/**
+ * crypto_bignum_is_one - Is the given bignum one
+ * @a: Bignum
+ * Returns: 1 if @a is one or 0 if not
+ */
+int crypto_bignum_is_one(const struct crypto_bignum *a);
+
+/**
+ * crypto_bignum_legendre - Compute the Legendre symbol (a/p)
+ * @a: Bignum
+ * @p: Bignum
+ * Returns: Legendre symbol -1,0,1 on success; -2 on calculation failure
+ */
+int crypto_bignum_legendre(const struct crypto_bignum *a,
+        const struct crypto_bignum *p);
+
+
+/**
+ * struct crypto_ec - Elliptic curve context
+ *
+ * Internal data structure for EC implementation. The contents is specific
+ * to the used crypto library.
+ */
+struct crypto_ec;
+
+/**
+ * crypto_ec_init - Initialize elliptic curve context
+ * @group: Identifying number for the ECC group (IANA "Group Description"
+ *  attribute registrty for RFC 2409)
+ * Returns: Pointer to EC context or %NULL on failure
+ */
+struct crypto_ec * crypto_ec_init(int group);
+
+/**
+ * crypto_ec_deinit - Deinitialize elliptic curve context
+ * @e: EC context from crypto_ec_init()
+ */
+void crypto_ec_deinit(struct crypto_ec *e);
+
+/**
+ * crypto_ec_prime_len - Get length of the prime in octets
+ * @e: EC context from crypto_ec_init()
+ * Returns: Length of the prime defining the group
+ */
+size_t crypto_ec_prime_len(struct crypto_ec *e);
+
+/**
+ * crypto_ec_prime_len_bits - Get length of the prime in bits
+ * @e: EC context from crypto_ec_init()
+ * Returns: Length of the prime defining the group in bits
+ */
+size_t crypto_ec_prime_len_bits(struct crypto_ec *e);
+
+/**
+ * crypto_ec_get_prime - Get prime defining an EC group
+ * @e: EC context from crypto_ec_init()
+ * Returns: Prime (bignum) defining the group
+ */
+const struct crypto_bignum * crypto_ec_get_prime(struct crypto_ec *e);
+
+/**
+ * crypto_ec_get_order - Get order of an EC group
+ * @e: EC context from crypto_ec_init()
+ * Returns: Order (bignum) of the group
+ */
+const struct crypto_bignum * crypto_ec_get_order(struct crypto_ec *e);
+
+/**
+ * struct crypto_ec_point - Elliptic curve point
+ *
+ * Internal data structure for EC implementation to represent a point. The
+ * contents is specific to the used crypto library.
+ */
+struct crypto_ec_point;
+
+/**
+ * crypto_ec_point_init - Initialize data for an EC point
+ * @e: EC context from crypto_ec_init()
+ * Returns: Pointer to EC point data or %NULL on failure
+ */
+struct crypto_ec_point * crypto_ec_point_init(struct crypto_ec *e);
+
+/**
+ * crypto_ec_point_deinit - Deinitialize EC point data
+ * @p: EC point data from crypto_ec_point_init()
+ * @clear: Whether to clear the EC point value from memory
+ */
+void crypto_ec_point_deinit(struct crypto_ec_point *p, int clear);
+
+/**
+ * crypto_ec_point_to_bin - Write EC point value as binary data
+ * @e: EC context from crypto_ec_init()
+ * @p: EC point data from crypto_ec_point_init()
+ * @x: Buffer for writing the binary data for x coordinate or %NULL if not used
+ * @y: Buffer for writing the binary data for y coordinate or %NULL if not used
+ * Returns: 0 on success, -1 on failure
+ *
+ * This function can be used to write an EC point as binary data in a format
+ * that has the x and y coordinates in big endian byte order fields padded to
+ * the length of the prime defining the group.
+ */
+int crypto_ec_point_to_bin(struct crypto_ec *e,
+        const struct crypto_ec_point *point, u8 *x, u8 *y);
+
+/**
+ * crypto_ec_point_from_bin - Create EC point from binary data
+ * @e: EC context from crypto_ec_init()
+ * @val: Binary data to read the EC point from
+ * Returns: Pointer to EC point data or %NULL on failure
+ *
+ * This function readers x and y coordinates of the EC point from the provided
+ * buffer assuming the values are in big endian byte order with fields padded to
+ * the length of the prime defining the group.
+ */
+struct crypto_ec_point * crypto_ec_point_from_bin(struct crypto_ec *e,
+        const u8 *val);
+
+/**
+ * crypto_bignum_add - c = a + b
+ * @e: EC context from crypto_ec_init()
+ * @a: Bignum
+ * @b: Bignum
+ * @c: Bignum; used to store the result of a + b
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_ec_point_add(struct crypto_ec *e, const struct crypto_ec_point *a,
+        const struct crypto_ec_point *b,
+        struct crypto_ec_point *c);
+
+/**
+ * crypto_bignum_mul - res = b * p
+ * @e: EC context from crypto_ec_init()
+ * @p: EC point
+ * @b: Bignum
+ * @res: EC point; used to store the result of b * p
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_ec_point_mul(struct crypto_ec *e, const struct crypto_ec_point *p,
+        const struct crypto_bignum *b,
+        struct crypto_ec_point *res);
+
+/**
+ * crypto_ec_point_invert - Compute inverse of an EC point
+ * @e: EC context from crypto_ec_init()
+ * @p: EC point to invert (and result of the operation)
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_ec_point_invert(struct crypto_ec *e, struct crypto_ec_point *p);
+
+/**
+ * crypto_ec_point_solve_y_coord - Solve y coordinate for an x coordinate
+ * @e: EC context from crypto_ec_init()
+ * @p: EC point to use for the returning the result
+ * @x: x coordinate
+ * @y_bit: y-bit (0 or 1) for selecting the y value to use
+ * Returns: 0 on success, -1 on failure
+ */
+int crypto_ec_point_solve_y_coord(struct crypto_ec *e,
+        struct crypto_ec_point *p,
+        const struct crypto_bignum *x, int y_bit);
+
+/**
+ * crypto_ec_point_compute_y_sqr - Compute y^2 = x^3 + ax + b
+ * @e: EC context from crypto_ec_init()
+ * @x: x coordinate
+ * Returns: y^2 on success, %NULL failure
+ */
+struct crypto_bignum *
+crypto_ec_point_compute_y_sqr(struct crypto_ec *e,
+        const struct crypto_bignum *x);
+
+/**
+ * crypto_ec_point_is_at_infinity - Check whether EC point is neutral element
+ * @e: EC context from crypto_ec_init()
+ * @p: EC point
+ * Returns: 1 if the specified EC point is the neutral element of the group or
+ *   0 if not
+ */
+int crypto_ec_point_is_at_infinity(struct crypto_ec *e,
+        const struct crypto_ec_point *p);
+
+/**
+ * crypto_ec_point_is_on_curve - Check whether EC point is on curve
+ * @e: EC context from crypto_ec_init()
+ * @p: EC point
+ * Returns: 1 if the specified EC point is on the curve or 0 if not
+ */
+int crypto_ec_point_is_on_curve(struct crypto_ec *e,
+        const struct crypto_ec_point *p);
+
+/**
+ * crypto_ec_point_cmp - Compare two EC points
+ * @e: EC context from crypto_ec_init()
+ * @a: EC point
+ * @b: EC point
+ * Returns: 0 on equal, non-zero otherwise
+ */
+int crypto_ec_point_cmp(const struct crypto_ec *e,
+        const struct crypto_ec_point *a,
+        const struct crypto_ec_point *b);
+
+
 #endif /* CRYPTO_H */

tools/sdk/include/wpa_supplicant/endian.h

@@ -29,6 +29,7 @@
 #ifndef _ENDIAN_H_
 #define _ENDIAN_H_
 
+#include <stdint.h>
 #include "byteswap.h"
 
 #ifndef BIG_ENDIAN

tools/sdk/include/wpa_supplicant/os.h

@@ -270,7 +270,7 @@ char * ets_strdup(const char *s);
 #ifdef _MSC_VER
 #define os_snprintf _snprintf
 #else
-#define os_snprintf vsnprintf
+#define os_snprintf snprintf
 #endif
 #endif