Apply clang-format with Chromium-style without column limit.

third_party/WebKit/Source/wtf/asm/SaturatedArithmeticARM.h

Index: third_party/WebKit/Source/wtf/asm/SaturatedArithmeticARM.h
diff --git a/third_party/WebKit/Source/wtf/asm/SaturatedArithmeticARM.h b/third_party/WebKit/Source/wtf/asm/SaturatedArithmeticARM.h
index 5527cacf9b2a3f47988c7963d2d2101cc8353b9e..60b4b6fcafbb976aa6e6fcbb0258657fc20115ee 100644
--- a/third_party/WebKit/Source/wtf/asm/SaturatedArithmeticARM.h
+++ b/third_party/WebKit/Source/wtf/asm/SaturatedArithmeticARM.h
@@ -9,97 +9,92 @@
 #include <limits>
 #include <stdint.h>
 
-ALWAYS_INLINE int32_t saturatedAddition(int32_t a, int32_t b)
-{
-    int32_t result;
+ALWAYS_INLINE int32_t saturatedAddition(int32_t a, int32_t b) {
+  int32_t result;
 
-    asm("qadd %[output],%[first],%[second]"
-        :   [output]  "=r"  (result)
-        :   [first]   "r"   (a),
-            [second]  "r"   (b));
+  asm("qadd %[output],%[first],%[second]"
+      : [output] "=r"(result)
+      : [first] "r"(a),
+        [second] "r"(b));
 
-    return result;
+  return result;
 }
 
-ALWAYS_INLINE int32_t saturatedSubtraction(int32_t a, int32_t b)
-{
-    int32_t result;
+ALWAYS_INLINE int32_t saturatedSubtraction(int32_t a, int32_t b) {
+  int32_t result;
 
-    asm("qsub %[output],%[first],%[second]"
-        :   [output] "=r"  (result)
-        :   [first]  "r"   (a),
-            [second] "r"   (b));
+  asm("qsub %[output],%[first],%[second]"
+      : [output] "=r"(result)
+      : [first] "r"(a),
+        [second] "r"(b));
 
-    return result;
+  return result;
 }
 
-inline int getMaxSaturatedSetResultForTesting(int FractionalShift)
-{
-    // For ARM Asm version the set function maxes out to the biggest
-    // possible integer part with the fractional part zero'd out.
-    // e.g. 0x7fffffc0.
-    return std::numeric_limits<int>::max() & ~((1 << FractionalShift)-1);
+inline int getMaxSaturatedSetResultForTesting(int FractionalShift) {
+  // For ARM Asm version the set function maxes out to the biggest
+  // possible integer part with the fractional part zero'd out.
+  // e.g. 0x7fffffc0.
+  return std::numeric_limits<int>::max() & ~((1 << FractionalShift) - 1);
 }
 
-inline int getMinSaturatedSetResultForTesting(int FractionalShift)
-{
-    return std::numeric_limits<int>::min();
+inline int getMinSaturatedSetResultForTesting(int FractionalShift) {
+  return std::numeric_limits<int>::min();
 }
 
-ALWAYS_INLINE int saturatedSet(int value, int FractionalShift)
-{
-    // Figure out how many bits are left for storing the integer part of
-    // the fixed point number, and saturate our input to that
-    const int saturate = 32 - FractionalShift;
-
-    int result;
-
-    // The following ARM code will Saturate the passed value to the number of
-    // bits used for the whole part of the fixed point representation, then
-    // shift it up into place. This will result in the low <FractionShift> bits
-    // all being 0's. When the value saturates this gives a different result
-    // to from the C++ case; in the C++ code a saturated value has all the low
-    // bits set to 1 (for a +ve number at least). This cannot be done rapidly
-    // in ARM ... we live with the difference, for the sake of speed.
-
-    asm("ssat %[output],%[saturate],%[value]\n\t"
-        "lsl  %[output],%[shift]"
-        :   [output]    "=r"  (result)
-        :   [value]     "r"   (value),
-            [saturate]  "n"   (saturate),
-            [shift]     "n"   (FractionalShift));
-
-    return result;
+ALWAYS_INLINE int saturatedSet(int value, int FractionalShift) {
+  // Figure out how many bits are left for storing the integer part of
+  // the fixed point number, and saturate our input to that
+  const int saturate = 32 - FractionalShift;
+
+  int result;
+
+  // The following ARM code will Saturate the passed value to the number of
+  // bits used for the whole part of the fixed point representation, then
+  // shift it up into place. This will result in the low <FractionShift> bits
+  // all being 0's. When the value saturates this gives a different result
+  // to from the C++ case; in the C++ code a saturated value has all the low
+  // bits set to 1 (for a +ve number at least). This cannot be done rapidly
+  // in ARM ... we live with the difference, for the sake of speed.
+
+  asm(
+      "ssat %[output],%[saturate],%[value]\n\t"
+      "lsl  %[output],%[shift]"
+      : [output] "=r"(result)
+      : [value] "r"(value),
+        [saturate] "n"(saturate),
+        [shift] "n"(FractionalShift));
+
+  return result;
 }
 
-
-ALWAYS_INLINE int saturatedSet(unsigned value, int FractionalShift)
-{
-    // Here we are being passed an unsigned value to saturate,
-    // even though the result is returned as a signed integer. The ARM
-    // instruction for unsigned saturation therefore needs to be given one
-    // less bit (i.e. the sign bit) for the saturation to work correctly; hence
-    // the '31' below.
-    const int saturate = 31 - FractionalShift;
-
-    // The following ARM code will Saturate the passed value to the number of
-    // bits used for the whole part of the fixed point representation, then
-    // shift it up into place. This will result in the low <FractionShift> bits
-    // all being 0's. When the value saturates this gives a different result
-    // to from the C++ case; in the C++ code a saturated value has all the low
-    // bits set to 1. This cannot be done rapidly in ARM, so we live with the
-    // difference, for the sake of speed.
-
-    int result;
-
-    asm("usat %[output],%[saturate],%[value]\n\t"
-        "lsl  %[output],%[shift]"
-        :   [output]    "=r"  (result)
-        :   [value]     "r"   (value),
-            [saturate]  "n"   (saturate),
-            [shift]     "n"   (FractionalShift));
-
-    return result;
+ALWAYS_INLINE int saturatedSet(unsigned value, int FractionalShift) {
+  // Here we are being passed an unsigned value to saturate,
+  // even though the result is returned as a signed integer. The ARM
+  // instruction for unsigned saturation therefore needs to be given one
+  // less bit (i.e. the sign bit) for the saturation to work correctly; hence
+  // the '31' below.
+  const int saturate = 31 - FractionalShift;
+
+  // The following ARM code will Saturate the passed value to the number of
+  // bits used for the whole part of the fixed point representation, then
+  // shift it up into place. This will result in the low <FractionShift> bits
+  // all being 0's. When the value saturates this gives a different result
+  // to from the C++ case; in the C++ code a saturated value has all the low
+  // bits set to 1. This cannot be done rapidly in ARM, so we live with the
+  // difference, for the sake of speed.
+
+  int result;
+
+  asm(
+      "usat %[output],%[saturate],%[value]\n\t"
+      "lsl  %[output],%[shift]"
+      : [output] "=r"(result)
+      : [value] "r"(value),
+        [saturate] "n"(saturate),
+        [shift] "n"(FractionalShift));
+
+  return result;
 }
 
-#endif // SaturatedArithmeticARM_h
+#endif  // SaturatedArithmeticARM_h