[PATCH] pinctrl: aspeed: Strip moved macros and structs from private header

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Further cleanup from the SPDX fixup fallout for the recent ASPEED
series. aspeed_g4_defconfig, aspeed_g5_defconfig and multi_v5_defconfig
now compile. Smoke tested the g4 and g5 kernels under QEMU's
palmetto-bmc and romulus-bmc machines respectively.

Fixes: 35d8510ea3ad ("pinctrl: aspeed: Fix missed include")
Signed-off-by: Andrew Jeffery <andrew@xxxxxxxx>
---

Sorry Linus, I guess I should have just sent the fixup patch rather than
waiting for your response about which way to handle the break. That way I would
have actually fixed the problem rather than just eyeballing it and making
half-baked suggestions.

The content stripped in this patch was moved to aspeed-pinmux.h, so with
35d8510ea3ad ("pinctrl: aspeed: Fix missed include") we hit
duplicate-declaration problems. Trivially resolved by removing the moved
content.

 drivers/pinctrl/aspeed/pinctrl-aspeed.h | 498 ------------------------
 1 file changed, 498 deletions(-)

diff --git a/drivers/pinctrl/aspeed/pinctrl-aspeed.h b/drivers/pinctrl/aspeed/pinctrl-aspeed.h
index b7790395aead..7fcfc5004b44 100644
--- a/drivers/pinctrl/aspeed/pinctrl-aspeed.h
+++ b/drivers/pinctrl/aspeed/pinctrl-aspeed.h
@@ -18,504 +18,6 @@
 
 #include "pinmux-aspeed.h"
 
-/*
- * The ASPEED SoCs provide typically more than 200 pins for GPIO and other
- * functions. The SoC function enabled on a pin is determined on a priority
- * basis where a given pin can provide a number of different signal types.
- *
- * The signal active on a pin is described by both a priority level and
- * compound logical expressions involving multiple operators, registers and
- * bits. Some difficulty arises as the pin's function bit masks for each
- * priority level are frequently not the same (i.e. cannot just flip a bit to
- * change from a high to low priority signal), or even in the same register.
- * Further, not all signals can be unmuxed, as some expressions depend on
- * values in the hardware strapping register (which is treated as read-only).
- *
- * SoC Multi-function Pin Expression Examples
- * ------------------------------------------
- *
- * Here are some sample mux configurations from the AST2400 and AST2500
- * datasheets to illustrate the corner cases, roughly in order of least to most
- * corner. The signal priorities are in decending order from P0 (highest).
- *
- * D6 is a pin with a single function (beside GPIO); a high priority signal
- * that participates in one function:
- *
- * Ball | Default | P0 Signal | P0 Expression               | P1 Signal | P1 Expression | Other
- * -----+---------+-----------+-----------------------------+-----------+---------------+----------
- *  D6    GPIOA0    MAC1LINK    SCU80[0]=1                                                GPIOA0
- * -----+---------+-----------+-----------------------------+-----------+---------------+----------
- *
- * C5 is a multi-signal pin (high and low priority signals). Here we touch
- * different registers for the different functions that enable each signal:
- *
- * -----+---------+-----------+-----------------------------+-----------+---------------+----------
- *  C5    GPIOA4    SCL9        SCU90[22]=1                   TIMER5      SCU80[4]=1      GPIOA4
- * -----+---------+-----------+-----------------------------+-----------+---------------+----------
- *
- * E19 is a single-signal pin with two functions that influence the active
- * signal. In this case both bits have the same meaning - enable a dedicated
- * LPC reset pin. However it's not always the case that the bits in the
- * OR-relationship have the same meaning.
- *
- * -----+---------+-----------+-----------------------------+-----------+---------------+----------
- *  E19   GPIOB4    LPCRST#     SCU80[12]=1 | Strap[14]=1                                 GPIOB4
- * -----+---------+-----------+-----------------------------+-----------+---------------+----------
- *
- * For example, pin B19 has a low-priority signal that's enabled by two
- * distinct SoC functions: A specific SIOPBI bit in register SCUA4, and an ACPI
- * bit in the STRAP register. The ACPI bit configures signals on pins in
- * addition to B19. Both of the low priority functions as well as the high
- * priority function must be disabled for GPIOF1 to be used.
- *
- * Ball | Default | P0 Signal | P0 Expression                           | P1 Signal | P1 Expression                          | Other
- * -----+---------+-----------+-----------------------------------------+-----------+----------------------------------------+----------
- *  B19   GPIOF1    NDCD4       SCU80[25]=1                               SIOPBI#     SCUA4[12]=1 | Strap[19]=0                GPIOF1
- * -----+---------+-----------+-----------------------------------------+-----------+----------------------------------------+----------
- *
- * For pin E18, the SoC ANDs the expected state of three bits to determine the
- * pin's active signal:
- *
- * * SCU3C[3]: Enable external SOC reset function
- * * SCU80[15]: Enable SPICS1# or EXTRST# function pin
- * * SCU90[31]: Select SPI interface CS# output
- *
- * -----+---------+-----------+-----------------------------------------+-----------+----------------------------------------+----------
- *  E18   GPIOB7    EXTRST#     SCU3C[3]=1 & SCU80[15]=1 & SCU90[31]=0    SPICS1#     SCU3C[3]=1 & SCU80[15]=1 & SCU90[31]=1   GPIOB7
- * -----+---------+-----------+-----------------------------------------+-----------+----------------------------------------+----------
- *
- * (Bits SCU3C[3] and SCU80[15] appear to only be used in the expressions for
- * selecting the signals on pin E18)
- *
- * Pin T5 is a multi-signal pin with a more complex configuration:
- *
- * Ball | Default | P0 Signal | P0 Expression                | P1 Signal | P1 Expression | Other
- * -----+---------+-----------+------------------------------+-----------+---------------+----------
- *  T5    GPIOL1    VPIDE       SCU90[5:4]!=0 & SCU84[17]=1    NDCD1       SCU84[17]=1     GPIOL1
- * -----+---------+-----------+------------------------------+-----------+---------------+----------
- *
- * The high priority signal configuration is best thought of in terms of its
- * exploded form, with reference to the SCU90[5:4] bits:
- *
- * * SCU90[5:4]=00: disable
- * * SCU90[5:4]=01: 18 bits (R6/G6/B6) video mode.
- * * SCU90[5:4]=10: 24 bits (R8/G8/B8) video mode.
- * * SCU90[5:4]=11: 30 bits (R10/G10/B10) video mode.
- *
- * Re-writing:
- *
- * -----+---------+-----------+------------------------------+-----------+---------------+----------
- *  T5    GPIOL1    VPIDE      (SCU90[5:4]=1 & SCU84[17]=1)    NDCD1       SCU84[17]=1     GPIOL1
- *                             | (SCU90[5:4]=2 & SCU84[17]=1)
- *                             | (SCU90[5:4]=3 & SCU84[17]=1)
- * -----+---------+-----------+------------------------------+-----------+---------------+----------
- *
- * For reference the SCU84[17] bit configure the "UART1 NDCD1 or Video VPIDE
- * function pin", where the signal itself is determined by whether SCU94[5:4]
- * is disabled or in one of the 18, 24 or 30bit video modes.
- *
- * Other video-input-related pins require an explicit state in SCU90[5:4], e.g.
- * W1 and U5:
- *
- * -----+---------+-----------+------------------------------+-----------+---------------+----------
- *  W1    GPIOL6    VPIB0       SCU90[5:4]=3 & SCU84[22]=1     TXD1        SCU84[22]=1     GPIOL6
- *  U5    GPIOL7    VPIB1       SCU90[5:4]=3 & SCU84[23]=1     RXD1        SCU84[23]=1     GPIOL7
- * -----+---------+-----------+------------------------------+-----------+---------------+----------
- *
- * The examples of T5 and W1 are particularly fertile, as they also demonstrate
- * that despite operating as part of the video input bus each signal needs to
- * be enabled individually via it's own SCU84 (in the cases of T5 and W1)
- * register bit. This is a little crazy if the bus doesn't have optional
- * signals, but is used to decent effect with some of the UARTs where not all
- * signals are required. However, this isn't done consistently - UART1 is
- * enabled on a per-pin basis, and by contrast, all signals for UART6 are
- * enabled by a single bit.
- *
- * Further, the high and low priority signals listed in the table above share
- * a configuration bit. The VPI signals should operate in concert in a single
- * function, but the UART signals should retain the ability to be configured
- * independently. This pushes the implementation down the path of tagging a
- * signal's expressions with the function they participate in, rather than
- * defining masks affecting multiple signals per function. The latter approach
- * fails in this instance where applying the configuration for the UART pin of
- * interest will stomp on the state of other UART signals when disabling the
- * VPI functions on the current pin.
- *
- * Ball |  Default   | P0 Signal | P0 Expression             | P1 Signal | P1 Expression | Other
- * -----+------------+-----------+---------------------------+-----------+---------------+------------
- *  A12   RGMII1TXCK   GPIOT0      SCUA0[0]=1                  RMII1TXEN   Strap[6]=0      RGMII1TXCK
- *  B12   RGMII1TXCTL  GPIOT1      SCUA0[1]=1                  –           Strap[6]=0      RGMII1TXCTL
- * -----+------------+-----------+---------------------------+-----------+---------------+------------
- *
- * A12 demonstrates that the "Other" signal isn't always GPIO - in this case
- * GPIOT0 is a high-priority signal and RGMII1TXCK is Other. Thus, GPIO
- * should be treated like any other signal type with full function expression
- * requirements, and not assumed to be the default case. Separately, GPIOT0 and
- * GPIOT1's signal descriptor bits are distinct, therefore we must iterate all
- * pins in the function's group to disable the higher-priority signals such
- * that the signal for the function of interest is correctly enabled.
- *
- * Finally, three priority levels aren't always enough; the AST2500 brings with
- * it 18 pins of five priority levels, however the 18 pins only use three of
- * the five priority levels.
- *
- * Ultimately the requirement to control pins in the examples above drive the
- * design:
- *
- * * Pins provide signals according to functions activated in the mux
- *   configuration
- *
- * * Pins provide up to five signal types in a priority order
- *
- * * For priorities levels defined on a pin, each priority provides one signal
- *
- * * Enabling lower priority signals requires higher priority signals be
- *   disabled
- *
- * * A function represents a set of signals; functions are distinct if their
- *   sets of signals are not equal
- *
- * * Signals participate in one or more functions
- *
- * * A function is described by an expression of one or more signal
- *   descriptors, which compare bit values in a register
- *
- * * A signal expression is the smallest set of signal descriptors whose
- *   comparisons must evaluate 'true' for a signal to be enabled on a pin.
- *
- * * A function's signal is active on a pin if evaluating all signal
- *   descriptors in the pin's signal expression for the function yields a 'true'
- *   result
- *
- * * A signal at a given priority on a given pin is active if any of the
- *   functions in which the signal participates are active, and no higher
- *   priority signal on the pin is active
- *
- * * GPIO is configured per-pin
- *
- * And so:
- *
- * * To disable a signal, any function(s) activating the signal must be
- *   disabled
- *
- * * Each pin must know the signal expressions of functions in which it
- *   participates, for the purpose of enabling the Other function. This is done
- *   by deactivating all functions that activate higher priority signals on the
- *   pin.
- *
- * As a concrete example:
- *
- * * T5 provides three signals types: VPIDE, NDCD1 and GPIO
- *
- * * The VPIDE signal participates in 3 functions: VPI18, VPI24 and VPI30
- *
- * * The NDCD1 signal participates in just its own NDCD1 function
- *
- * * VPIDE is high priority, NDCD1 is low priority, and GPIOL1 is the least
- *   prioritised
- *
- * * The prerequisit for activating the NDCD1 signal is that the VPI18, VPI24
- *   and VPI30 functions all be disabled
- *
- * * Similarly, all of VPI18, VPI24, VPI30 and NDCD1 functions must be disabled
- *   to provide GPIOL6
- *
- * Considerations
- * --------------
- *
- * If pinctrl allows us to allocate a pin we can configure a function without
- * concern for the function of already allocated pins, if pin groups are
- * created with respect to the SoC functions in which they participate. This is
- * intuitive, but it did not feel obvious from the bit/pin relationships.
- *
- * Conversely, failing to allocate all pins in a group indicates some bits (as
- * well as pins) required for the group's configuration will already be in use,
- * likely in a way that's inconsistent with the requirements of the failed
- * group.
- */
-
-#define ASPEED_IP_SCU		0
-#define ASPEED_IP_GFX		1
-#define ASPEED_IP_LPC		2
-#define ASPEED_NR_PINMUX_IPS	3
-
-/*
- * The "Multi-function Pins Mapping and Control" table in the SoC datasheet
- * references registers by the device/offset mnemonic. The register macros
- * below are named the same way to ease transcription and verification (as
- * opposed to naming them e.g. PINMUX_CTRL_[0-9]). Further, signal expressions
- * reference registers beyond those dedicated to pinmux, such as the system
- * reset control and MAC clock configuration registers. The AST2500 goes a step
- * further and references registers in the graphics IP block.
- */
-#define SCU2C           0x2C /* Misc. Control Register */
-#define SCU3C           0x3C /* System Reset Control/Status Register */
-#define SCU48           0x48 /* MAC Interface Clock Delay Setting */
-#define HW_STRAP1       0x70 /* AST2400 strapping is 33 bits, is split */
-#define HW_REVISION_ID  0x7C /* Silicon revision ID register */
-#define SCU80           0x80 /* Multi-function Pin Control #1 */
-#define SCU84           0x84 /* Multi-function Pin Control #2 */
-#define SCU88           0x88 /* Multi-function Pin Control #3 */
-#define SCU8C           0x8C /* Multi-function Pin Control #4 */
-#define SCU90           0x90 /* Multi-function Pin Control #5 */
-#define SCU94           0x94 /* Multi-function Pin Control #6 */
-#define SCUA0           0xA0 /* Multi-function Pin Control #7 */
-#define SCUA4           0xA4 /* Multi-function Pin Control #8 */
-#define SCUA8           0xA8 /* Multi-function Pin Control #9 */
-#define SCUAC           0xAC /* Multi-function Pin Control #10 */
-#define HW_STRAP2       0xD0 /* Strapping */
-
- /**
-  * A signal descriptor, which describes the register, bits and the
-  * enable/disable values that should be compared or written.
-  *
-  * @ip: The IP block identifier, used as an index into the regmap array in
-  *      struct aspeed_pinctrl_data
-  * @reg: The register offset with respect to the base address of the IP block
-  * @mask: The mask to apply to the register. The lowest set bit of the mask is
-  *        used to derive the shift value.
-  * @enable: The value that enables the function. Value should be in the LSBs,
-  *          not at the position of the mask.
-  * @disable: The value that disables the function. Value should be in the
-  *           LSBs, not at the position of the mask.
-  */
-struct aspeed_sig_desc {
-	unsigned int ip;
-	unsigned int reg;
-	u32 mask;
-	u32 enable;
-	u32 disable;
-};
-
-/**
- * Describes a signal expression. The expression is evaluated by ANDing the
- * evaluation of the descriptors.
- *
- * @signal: The signal name for the priority level on the pin. If the signal
- *          type is GPIO, then the signal name must begin with the string
- *          "GPIO", e.g. GPIOA0, GPIOT4 etc.
- * @function: The name of the function the signal participates in for the
- *            associated expression
- * @ndescs: The number of signal descriptors in the expression
- * @descs: Pointer to an array of signal descriptors that comprise the
- *         function expression
- */
-struct aspeed_sig_expr {
-	const char *signal;
-	const char *function;
-	int ndescs;
-	const struct aspeed_sig_desc *descs;
-};
-
-/**
- * A struct capturing the list of expressions enabling signals at each priority
- * for a given pin. The signal configuration for a priority level is evaluated
- * by ORing the evaluation of the signal expressions in the respective
- * priority's list.
- *
- * @name: A name for the pin
- * @prios: A pointer to an array of expression list pointers
- *
- */
-struct aspeed_pin_desc {
-	const char *name;
-	const struct aspeed_sig_expr ***prios;
-};
-
-/* Macro hell */
-
-#define SIG_DESC_IP_BIT(ip, reg, idx, val) \
-	{ ip, reg, BIT_MASK(idx), val, (((val) + 1) & 1) }
-
-/**
- * Short-hand macro for describing an SCU descriptor enabled by the state of
- * one bit. The disable value is derived.
- *
- * @reg: The signal's associated register, offset from base
- * @idx: The signal's bit index in the register
- * @val: The value (0 or 1) that enables the function
- */
-#define SIG_DESC_BIT(reg, idx, val) \
-	SIG_DESC_IP_BIT(ASPEED_IP_SCU, reg, idx, val)
-
-#define SIG_DESC_IP_SET(ip, reg, idx) SIG_DESC_IP_BIT(ip, reg, idx, 1)
-
-/**
- * A further short-hand macro expanding to an SCU descriptor enabled by a set
- * bit.
- *
- * @reg: The register, offset from base
- * @idx: The bit index in the register
- */
-#define SIG_DESC_SET(reg, idx) SIG_DESC_IP_BIT(ASPEED_IP_SCU, reg, idx, 1)
-
-#define SIG_DESC_LIST_SYM(sig, func) sig_descs_ ## sig ## _ ## func
-#define SIG_DESC_LIST_DECL(sig, func, ...) \
-	static const struct aspeed_sig_desc SIG_DESC_LIST_SYM(sig, func)[] = \
-		{ __VA_ARGS__ }
-
-#define SIG_EXPR_SYM(sig, func) sig_expr_ ## sig ## _ ## func
-#define SIG_EXPR_DECL_(sig, func) \
-	static const struct aspeed_sig_expr SIG_EXPR_SYM(sig, func) = \
-	{ \
-		.signal = #sig, \
-		.function = #func, \
-		.ndescs = ARRAY_SIZE(SIG_DESC_LIST_SYM(sig, func)), \
-		.descs = &(SIG_DESC_LIST_SYM(sig, func))[0], \
-	}
-
-/**
- * Declare a signal expression.
- *
- * @sig: A macro symbol name for the signal (is subjected to stringification
- *        and token pasting)
- * @func: The function in which the signal is participating
- * @...: Signal descriptors that define the signal expression
- *
- * For example, the following declares the ROMD8 signal for the ROM16 function:
- *
- *     SIG_EXPR_DECL(ROMD8, ROM16, SIG_DESC_SET(SCU90, 6));
- *
- * And with multiple signal descriptors:
- *
- *     SIG_EXPR_DECL(ROMD8, ROM16S, SIG_DESC_SET(HW_STRAP1, 4),
- *              { HW_STRAP1, GENMASK(1, 0), 0, 0 });
- */
-#define SIG_EXPR_DECL(sig, func, ...) \
-	SIG_DESC_LIST_DECL(sig, func, __VA_ARGS__); \
-	SIG_EXPR_DECL_(sig, func)
-
-/**
- * Declare a pointer to a signal expression
- *
- * @sig: The macro symbol name for the signal (subjected to token pasting)
- * @func: The macro symbol name for the function (subjected to token pasting)
- */
-#define SIG_EXPR_PTR(sig, func) (&SIG_EXPR_SYM(sig, func))
-
-#define SIG_EXPR_LIST_SYM(sig) sig_exprs_ ## sig
-
-/**
- * Declare a signal expression list for reference in a struct aspeed_pin_prio.
- *
- * @sig: A macro symbol name for the signal (is subjected to token pasting)
- * @...: Signal expression structure pointers (use SIG_EXPR_PTR())
- *
- * For example, the 16-bit ROM bus can be enabled by one of two possible signal
- * expressions:
- *
- *     SIG_EXPR_DECL(ROMD8, ROM16, SIG_DESC_SET(SCU90, 6));
- *     SIG_EXPR_DECL(ROMD8, ROM16S, SIG_DESC_SET(HW_STRAP1, 4),
- *              { HW_STRAP1, GENMASK(1, 0), 0, 0 });
- *     SIG_EXPR_LIST_DECL(ROMD8, SIG_EXPR_PTR(ROMD8, ROM16),
- *              SIG_EXPR_PTR(ROMD8, ROM16S));
- */
-#define SIG_EXPR_LIST_DECL(sig, ...) \
-	static const struct aspeed_sig_expr *SIG_EXPR_LIST_SYM(sig)[] = \
-		{ __VA_ARGS__, NULL }
-
-/**
- * A short-hand macro for declaring a function expression and an expression
- * list with a single function.
- *
- * @func: A macro symbol name for the function (is subjected to token pasting)
- * @...: Function descriptors that define the function expression
- *
- * For example, signal NCTS6 participates in its own function with one group:
- *
- *     SIG_EXPR_LIST_DECL_SINGLE(NCTS6, NCTS6, SIG_DESC_SET(SCU90, 7));
- */
-#define SIG_EXPR_LIST_DECL_SINGLE(sig, func, ...) \
-	SIG_DESC_LIST_DECL(sig, func, __VA_ARGS__); \
-	SIG_EXPR_DECL_(sig, func); \
-	SIG_EXPR_LIST_DECL(sig, SIG_EXPR_PTR(sig, func))
-
-#define SIG_EXPR_LIST_DECL_DUAL(sig, f0, f1) \
-	SIG_EXPR_LIST_DECL(sig, SIG_EXPR_PTR(sig, f0), SIG_EXPR_PTR(sig, f1))
-
-#define SIG_EXPR_LIST_PTR(sig) (&SIG_EXPR_LIST_SYM(sig)[0])
-
-#define PIN_EXPRS_SYM(pin) pin_exprs_ ## pin
-#define PIN_EXPRS_PTR(pin) (&PIN_EXPRS_SYM(pin)[0])
-#define PIN_SYM(pin) pin_ ## pin
-
-#define MS_PIN_DECL_(pin, ...) \
-	static const struct aspeed_sig_expr **PIN_EXPRS_SYM(pin)[] = \
-		{ __VA_ARGS__, NULL }; \
-	static const struct aspeed_pin_desc PIN_SYM(pin) = \
-		{ #pin, PIN_EXPRS_PTR(pin) }
-
-/**
- * Declare a multi-signal pin
- *
- * @pin: The pin number
- * @other: Macro name for "other" functionality (subjected to stringification)
- * @high: Macro name for the highest priority signal functions
- * @low: Macro name for the low signal functions
- *
- * For example:
- *
- *     #define A8 56
- *     SIG_EXPR_DECL(ROMD8, ROM16, SIG_DESC_SET(SCU90, 6));
- *     SIG_EXPR_DECL(ROMD8, ROM16S, SIG_DESC_SET(HW_STRAP1, 4),
- *              { HW_STRAP1, GENMASK(1, 0), 0, 0 });
- *     SIG_EXPR_LIST_DECL(ROMD8, SIG_EXPR_PTR(ROMD8, ROM16),
- *              SIG_EXPR_PTR(ROMD8, ROM16S));
- *     SIG_EXPR_LIST_DECL_SINGLE(NCTS6, NCTS6, SIG_DESC_SET(SCU90, 7));
- *     MS_PIN_DECL(A8, GPIOH0, ROMD8, NCTS6);
- */
-#define MS_PIN_DECL(pin, other, high, low) \
-	SIG_EXPR_LIST_DECL_SINGLE(other, other); \
-	MS_PIN_DECL_(pin, \
-			SIG_EXPR_LIST_PTR(high), \
-			SIG_EXPR_LIST_PTR(low), \
-			SIG_EXPR_LIST_PTR(other))
-
-#define PIN_GROUP_SYM(func) pins_ ## func
-#define FUNC_GROUP_SYM(func) groups_ ## func
-#define FUNC_GROUP_DECL(func, ...) \
-	static const int PIN_GROUP_SYM(func)[] = { __VA_ARGS__ }; \
-	static const char *FUNC_GROUP_SYM(func)[] = { #func }
-
-/**
- * Declare a single signal pin
- *
- * @pin: The pin number
- * @other: Macro name for "other" functionality (subjected to stringification)
- * @sig: Macro name for the signal (subjected to stringification)
- *
- * For example:
- *
- *     #define E3 80
- *     SIG_EXPR_LIST_DECL_SINGLE(SCL5, I2C5, I2C5_DESC);
- *     SS_PIN_DECL(E3, GPIOK0, SCL5);
- */
-#define SS_PIN_DECL(pin, other, sig) \
-	SIG_EXPR_LIST_DECL_SINGLE(other, other); \
-	MS_PIN_DECL_(pin, SIG_EXPR_LIST_PTR(sig), SIG_EXPR_LIST_PTR(other))
-
-/**
- * Single signal, single function pin declaration
- *
- * @pin: The pin number
- * @other: Macro name for "other" functionality (subjected to stringification)
- * @sig: Macro name for the signal (subjected to stringification)
- * @...: Signal descriptors that define the function expression
- *
- * For example:
- *
- *    SSSF_PIN_DECL(A4, GPIOA2, TIMER3, SIG_DESC_SET(SCU80, 2));
- */
-#define SSSF_PIN_DECL(pin, other, sig, ...) \
-	SIG_EXPR_LIST_DECL_SINGLE(sig, sig, __VA_ARGS__); \
-	SIG_EXPR_LIST_DECL_SINGLE(other, other); \
-	MS_PIN_DECL_(pin, SIG_EXPR_LIST_PTR(sig), SIG_EXPR_LIST_PTR(other)); \
-	FUNC_GROUP_DECL(sig, pin)
-
-#define GPIO_PIN_DECL(pin, gpio) \
-	SIG_EXPR_LIST_DECL_SINGLE(gpio, gpio); \
-	MS_PIN_DECL_(pin, SIG_EXPR_LIST_PTR(gpio))
-
 /**
  * @param The pinconf parameter type
  * @pins The pin range this config struct covers, [low, high]
-- 
2.20.1




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