Apple Watch X-ray Teardown手順の10履歴

	[* black] And here it is. The [http://en.wikipedia.org/wiki/Apple_S1\|Apple S1\|new_window=true] computer-on-chip. Where we were earlier thwarted, we've got a better look with some interesting analysis.
-	[* black] By encasing the S1 in resin, Apple was able to make use of wire bonding to make many of the connections between chips in PoP stacks. These are incredibly small bonds, typically 10-17 microns.
+	[* black] By encasing the S1 in resin, Apple was able to make use of wire bonding to make many of the connections between chips in [http://en.wikipedia.org/wiki/Package_on_package\|Package on Package\|new_window=true] (PoP) stacks. These are incredibly small bonds, typically 10-17 microns.
	[* black] This saves space, as soldered packages would be thicker, but requires a whole new level of manufacturing expertise.
	[* red] Here's the [guide\|40655\|one exposed chip\|stepid=93693\|new_window=true] on the S1, an STMicroelectronics gyroscope and accelerometer.

	[* black] And here it is. The [http://en.wikipedia.org/wiki/Apple_S1\|Apple S1\|new_window=true] computer-on-chip. Where we were earlier thwarted, we've got a better look with some interesting analysis.
-	[* black] By encasing the S1 in resin, Apple was able to make use of wire bonding to make many of the connections between chips in PoP stacks. These are incredibly small bonds, typically 10-17 microns.
+	[* black] By encasing the S1 in resin, Apple was able to make use of wire bonding to make many of the connections between chips in [http://en.wikipedia.org/wiki/Package_on_package\|Package on Package\|new_window=true] (PoP) stacks. These are incredibly small bonds, typically 10-17 microns.
	[* black] This saves space, as soldered packages would be thicker, but requires a whole new level of manufacturing expertise.
	[* red] Here's the [guide\|40655\|one exposed chip\|stepid=93693\|new_window=true] on the S1, an STMicroelectronics gyroscope and accelerometer.