diff --git a/src/devices/tech/config/low-ram.jd b/src/devices/tech/config/low-ram.jd
index ca0dd71..f6d9566 100644
--- a/src/devices/tech/config/low-ram.jd
+++ b/src/devices/tech/config/low-ram.jd
@@ -26,9 +26,9 @@
 
 <h2 id="intro">Introduction</h2>
 
-<p>Android now supports devices with 512MB of RAM. This documentation is intended 
-to help OEMs optimize and configure Android 4.4 for low-memory devices. Several 
-of these optimizations are generic enough that they can be applied to previous 
+<p>Android now supports devices with 512MB of RAM. This documentation is intended
+to help OEMs optimize and configure Android 4.4 for low-memory devices. Several
+of these optimizations are generic enough that they can be applied to previous
 releases as well.</p>
 
 <h2 id="optimizations">Android 4.4 platform optimizations</h2>
@@ -38,8 +38,8 @@
 <li>Validated memory-saving kernel configurations: Kernel Same-page Merging
 (KSM), and Swap to ZRAM.</li>
 <li>Kill cached processes if about to be uncached and too large.</li>
-<li>Don’t allow large services to put themselves back into A Services (so they
-can’t cause the launcher to be killed).</li>
+<li>Don't allow large services to put themselves back into A Services (so they
+can't cause the launcher to be killed).</li>
 <li>Kill processes (even ordinarily unkillable ones such as the current IME)
 that get too large in idle maintenance.</li>
 <li>Serialize the launch of background services.</li>
@@ -73,31 +73,32 @@
 <p>
 New memtrack HAL to track graphics memory allocations, additional information
 in dumpsys meminfo, clarified summaries in meminfo (for example reported free
-RAM includes RAM of cached processes, so that OEMs don’t try to optimize the
+RAM includes RAM of cached processes, so that OEMs don't try to optimize the
 wrong thing).
 </p>
 
 <h2 id="build-time">Build-time configuration</h2>
 <h3 id="flag">Enable Low Ram Device flag</h3>
-<p>We are introducing a new API called <code>ActivityManager.isLowRamDevice()</code> for applications to  determine if they should turn off specific memory-intensive 
+<p>We are introducing a new API called
+<code>ActivityManager.isLowRamDevice()</code> for applications to  determine if
+they should turn off specific memory-intensive
   features that work poorly on low-memory devices.</p>
-<p>For 512MB devices, this API is expected to return: "true" It can be enabled by 
+<p>For 512MB devices, this API is expected to return: "true" It can be enabled by
   the following system property in the device makefile.<br/>
 <code>PRODUCT_PROPERTY_OVERRIDES += ro.config.low_ram=true</code></p>
 
 <h3 id="jit">Disable JIT</h3>
 
-  <p>System-wide JIT memory usage is dependent on the number of applications 
-  running and the code footprint of those applications. The JIT establishes a 
-  maximum translated code cache size and touches the pages within it as needed. 
+  <p>System-wide JIT memory usage is dependent on the number of applications
+  running and the code footprint of those applications. The JIT establishes a
+  maximum translated code cache size and touches the pages within it as needed.
   JIT costs somewhere between 3M and 6M across a typical running system.<br/>
   <br/>
-  The large apps tend to max out the code cache fairly quickly (which by default 
-  has been 1M). On average, JIT cache usage runs somewhere between 100K and 200K 
-  bytes per app. Reducing the max size of the cache can help somewhat with 
-  memory usage, but if set too low will send the JIT into a thrashing mode.  For 
-the really low-memory devices, we recommend the JIT be disabled entirely.<code>
-</code></p>
+  The large apps tend to max out the code cache fairly quickly (which by default
+  has been 1M). On average, JIT cache usage runs somewhere between 100K and 200K
+  bytes per app. Reducing the max size of the cache can help somewhat with
+  memory usage, but if set too low will send the JIT into a thrashing mode.  For
+the really low-memory devices, we recommend the JIT be disabled entirely.</p>
 
 <p>This can be achieved by adding the following line to the product makefile:<br/>
 <code>PRODUCT_PROPERTY_OVERRIDES += dalvik.vm.jit.codecachesize=0</code></p>
@@ -112,93 +113,135 @@
 <h3 id="kernel-tuning">Tuning kernel/ActivityManager to reduce direct reclaim </h3>
 
 
-  <p>Direct reclaim happens when a process or the kernel tries to allocate a page 
-  of memory (either directly or due to faulting in a new page) and the kernel 
-  has used all available free memory. This requires the kernel to block the 
-  allocation while it frees up a page. This in turn often requires disk I/O to 
-  flush out a dirty file-backed page or waiting for <code>lowmemorykiller</code> to kill a 
+  <p>Direct reclaim happens when a process or the kernel tries to allocate a page
+  of memory (either directly or due to faulting in a new page) and the kernel
+  has used all available free memory. This requires the kernel to block the
+  allocation while it frees up a page. This in turn often requires disk I/O to
+  flush out a dirty file-backed page or waiting for <code>lowmemorykiller</code> to kill a
   process. This can result in extra I/O in any thread, including a UI thread.</p>
-  
-  <p>To avoid direct reclaim, the kernel has watermarks that trigger <code>kswapd</code> or 
-  background reclaim.  This is a thread that tries to free up pages so the next 
-  time a real thread allocates it can succeed quickly.</p>
-  
-  <p>The default threshold to trigger background reclaim is fairly low, around 2MB 
-  on a 2GB device and 636KB on a 512MB device. And the kernel reclaims only a 
-  few MB of memory in background reclaim. This means any process that quickly 
-  allocates more than a few megabytes is going to quickly hit direct reclaim.</p>
-  
-<p>Support for a new kernel tunable is added in the android-3.4 kernel branch as 
-  patch 92189d47f66c67e5fd92eafaa287e153197a454f ("add extra free kbytes 
-  tunable").  Cherry-picking this patch to a device's kernel will allow 
-  ActivityManager to tell the kernel to try to keep 3 full-screen 32 bpp buffers 
-  of memory free.</p>
-  
-<p>These thresholds can be configured via the framework config.xml</p>
-<p><code> &lt;!-- Device configuration setting the /proc/sys/vm/extra_free_kbytes tunable in the kernel (if it exists).  A high value will increase the amount of memory that the kernel tries to keep free, reducing allocation time and causing the lowmemorykiller to kill earlier.  A low value allows more memory to be used by processes but may cause more allocations to block waiting on disk I/O or lowmemorykiller.  Overrides the default value chosen by ActivityManager based on screen size.  0 prevents keeping any extra memory over what the kernel keeps by default.  -1 keeps the default. --&gt;<br />
-&lt;integer name=&quot;config_extraFreeKbytesAbsolute&quot;&gt;-1&lt;/integer&gt;</code></p>
 
-<code>
-<p> &lt;!-- Device configuration adjusting the /proc/sys/vm/extra_free_kbytes tunable in the kernel (if it exists).  0 uses the default value chosen by ActivityManager.  A positive value  will increase the amount of memory that the kernel tries to keep free, reducing allocation time and causing the lowmemorykiller to kill earlier.  A negative value allows more memory to be used by processes but may cause more allocations to block waiting on disk I/O or lowmemorykiller.  Directly added to the default value chosen by  ActivityManager based on screen size. --&gt;<br />
-  &lt;integer name=&quot;config_extraFreeKbytesAdjust&quot;&gt;0&lt;/integer&gt;</code>
+  <p>To avoid direct reclaim, the kernel has watermarks that trigger <code>kswapd</code> or
+  background reclaim.  This is a thread that tries to free up pages so the next
+  time a real thread allocates it can succeed quickly.</p>
+
+  <p>The default threshold to trigger background reclaim is fairly low, around 2MB
+  on a 2GB device and 636KB on a 512MB device. And the kernel reclaims only a
+  few MB of memory in background reclaim. This means any process that quickly
+  allocates more than a few megabytes is going to quickly hit direct reclaim.</p>
+
+<p>Support for a new kernel tunable is added in the android-3.4 kernel branch as
+  patch 92189d47f66c67e5fd92eafaa287e153197a454f ("add extra free kbytes
+  tunable").  Cherry-picking this patch to a device's kernel will allow
+  ActivityManager to tell the kernel to try to keep 3 full-screen 32 bpp buffers
+  of memory free.</p>
+
+<p>These thresholds can be configured via the framework config.xml</p>
+
+<pre>
+&lt;!-- Device configuration setting the /proc/sys/vm/extra_free_kbytes tunable
+in the kernel (if it exists).  A high value will increase the amount of memory
+that the kernel tries to keep free, reducing allocation time and causing the
+lowmemorykiller to kill earlier.  A low value allows more memory to be used by
+processes but may cause more allocations to block waiting on disk I/O or
+lowmemorykiller.  Overrides the default value chosen by ActivityManager based
+on screen size.  0 prevents keeping any extra memory over what the kernel keeps
+by default.  -1 keeps the default. --&gt;
+&lt;integer name=&quot;config_extraFreeKbytesAbsolute&quot;&gt;-1&lt;/integer&gt;
+</pre>
+
+<pre>
+&lt;!-- Device configuration adjusting the /proc/sys/vm/extra_free_kbytes
+tunable in the kernel (if it exists).  0 uses the default value chosen by
+ActivityManager.  A positive value  will increase the amount of memory that the
+kernel tries to keep free, reducing allocation time and causing the
+lowmemorykiller to kill earlier.  A negative value allows more memory to be
+used by processes but may cause more allocations to block waiting on disk I/O
+or lowmemorykiller.  Directly added to the default value chosen by
+ActivityManager based on screen size. --&gt;
+&lt;integer name=&quot;config_extraFreeKbytesAdjust&quot;&gt;0&lt;/integer&gt;
+</pre>
 
 <h3 id="lowmem">Tuning LowMemoryKiller</h3>
 
-
-  <p>ActivityManager configures the thresholds of the LowMemoryKiller to match its 
-  expectation of the working set of file-backed pages (cached pages) required to 
-  run the processes in each priority level bucket.  If a device has high 
-  requirements for the working set, for example if the vendor UI requires more 
+<p>ActivityManager configures the thresholds of the LowMemoryKiller to match its
+expectation of the working set of file-backed pages (cached pages) required to
+run the processes in each priority level bucket.  If a device has high
+requirements for the working set, for example if the vendor UI requires more
 memory or if more services have been added, the thresholds can be increased. </p>
-<p>The thresholds can be reduced if too much memory is being reserved for file 
-  backed pages, so that background processes are being killed long before disk 
+
+<p>The thresholds can be reduced if too much memory is being reserved for file
+backed pages, so that background processes are being killed long before disk
 thrashing would occur due to the cache getting too small.</p>
-<p> <code>&lt;!-- Device configuration setting the minfree tunable in the lowmemorykiller in the kernel.  A high value will cause the lowmemorykiller to fire earlier, keeping more memory in the file cache and preventing I/O thrashing, but allowing fewer processes to stay in memory.  A low value will keep more processes in memory but may cause thrashing if set too low.  Overrides the default value chosen by ActivityManager based on screen size and total memory for the largest lowmemorykiller bucket, and scaled proportionally to the smaller buckets.  -1 keeps the default. --&gt;<br />
-  &lt;integer name=&quot;config_lowMemoryKillerMinFreeKbytesAbsolute&quot;&gt;-1&lt;/integer&gt;</code></p>
-<p> <code>&lt;!-- Device configuration adjusting the minfree tunable in the lowmemorykiller in the kernel.  A high value will cause the lowmemorykiller to fire earlier, keeping more memory in the file cache and preventing I/O thrashing, but allowing fewer processes to stay in memory.  A low value will keep more processes in memory but may cause thrashing if set too low.  Directly added to the default value chosen by          ActivityManager based on screen size and total memory for the largest lowmemorykiller bucket, and scaled proportionally to the smaller buckets. 0 keeps the default. --&gt;<br />
-  &lt;integer name=&quot;config_lowMemoryKillerMinFreeKbytesAdjust&quot;&gt;0&lt;/integer&gt;</code></p>
+
+<pre>
+&lt;!-- Device configuration setting the minfree tunable in the lowmemorykiller
+in the kernel.  A high value will cause the lowmemorykiller to fire earlier,
+keeping more memory in the file cache and preventing I/O thrashing, but
+allowing fewer processes to stay in memory.  A low value will keep more
+processes in memory but may cause thrashing if set too low.  Overrides the
+default value chosen by ActivityManager based on screen size and total memory
+for the largest lowmemorykiller bucket, and scaled proportionally to the
+smaller buckets.  -1 keeps the default. --&gt;
+&lt;integer name=&quot;config_lowMemoryKillerMinFreeKbytesAbsolute&quot;&gt;-1&lt;/integer&gt;
+</pre>
+
+<pre>
+&lt;!-- Device configuration adjusting the minfree tunable in the
+lowmemorykiller in the kernel.  A high value will cause the lowmemorykiller to
+fire earlier, keeping more memory in the file cache and preventing I/O
+thrashing, but allowing fewer processes to stay in memory.  A low value will
+keep more processes in memory but may cause thrashing if set too low.  Directly
+added to the default value chosen by          ActivityManager based on screen
+size and total memory for the largest lowmemorykiller bucket, and scaled
+proportionally to the smaller buckets. 0 keeps the default. --&gt;
+&lt;integer name=&quot;config_lowMemoryKillerMinFreeKbytesAdjust&quot;&gt;0&lt;/integer&gt;
+</pre>
+
 <h3 id="ksm">KSM (Kernel samepage merging)</h3>
 
+<p>KSM is a kernel thread that runs in the background and compares pages in
+memory that have been marked <code>MADV_MERGEABLE</code> by user-space. If two pages are
+found to be the same, the KSM thread merges them back as a single
+copy-on-write page of memory.</p>
 
-  <p>KSM is a kernel thread that runs in the background and compares pages in 
-  memory that have been marked <code>MADV_MERGEABLE</code> by user-space. If two pages are 
-  found to be the same, the KSM thread merges them back as a single 
-  copy-on-write page of memory.</p>
-  
-  <p>KSM will save memory over time on a running system, gaining memory duplication 
-  at a cost of CPU power, which could have an impact on battery life. You should 
-  measure whether the power tradeoff is worth the memory savings you get by 
-  enabling KSM.</p>
-  
-  <p>To test KSM, we recommend looking at long running devices (several hours) and 
-  seeing whether KSM makes any noticeable improvement on launch times and 
-  rendering times.</p>
-  
-<p>To enable KSM, enable <code>CONFIG_KSM</code> in the kernel and then add the following lines to your` <code>init.&lt;device&gt;.rc</code> file:<br>
-  <code>write /sys/kernel/mm/ksm/pages_to_scan 100<br>
-  write /sys/kernel/mm/ksm/sleep_millisecs 500<br>
-write /sys/kernel/mm/ksm/run 1</code></p>
-<p>Once enabled, there are few utilities that will help in the debugging namely : 
-  procrank, librank, &amp; ksminfo. These utilities allow you to see which KSM 
-  memory is mapped to what process, which processes use the most KSM memory. 
-  Once you have found a chunk of memory that looks worth exploring you can use 
-  either the hat utility if it's a duplicate object on the dalvik heap. </p>
+<p>KSM will save memory over time on a running system, gaining memory duplication
+at a cost of CPU power, which could have an impact on battery life. You should
+measure whether the power tradeoff is worth the memory savings you get by
+enabling KSM.</p>
+
+<p>To test KSM, we recommend looking at long running devices (several hours) and
+seeing whether KSM makes any noticeable improvement on launch times and
+rendering times.</p>
+
+<p>To enable KSM, enable <code>CONFIG_KSM</code> in the kernel and then add the
+following lines to your` <code>init.&lt;device&gt;.rc</code> file:<br>
+
+<pre>
+write /sys/kernel/mm/ksm/pages_to_scan 100
+write /sys/kernel/mm/ksm/sleep_millisecs 500
+write /sys/kernel/mm/ksm/run 1
+</pre>
+
+<p>Once enabled, there are few utilities that will help in the debugging namely :
+procrank, librank, &amp; ksminfo. These utilities allow you to see which KSM
+memory is mapped to what process, which processes use the most KSM memory.
+Once you have found a chunk of memory that looks worth exploring you can use
+either the hat utility if it's a duplicate object on the dalvik heap. </p>
+
 <h3 id="zram">Swap to zRAM</h3>
 
+<p>zRAM swap can increase the amount of memory available in the system by
+compressing memory pages and putting them in a dynamically allocated swap area
+of memory.</p>
 
-  <p>zRAM swap can increase the amount of memory available in the system by 
-  compressing memory pages and putting them in a dynamically allocated swap area 
-  of memory.</p>
-  
-  <p>Again, since this is trading off CPU time for a small increase in memory, you 
-  should be careful about measuring the performance impact zRAM swap has on your 
-  system.</p>
-
+<p>Again, since this is trading off CPU time for a small increase in memory, you
+should be careful about measuring the performance impact zRAM swap has on your
+system.</p>
 
 <p>Android handles swap to zRAM at several levels:</p>
 
 <ul>
-  <li>First, the following kernel options must be enabled to use zRAM swap 
+  <li>First, the following kernel options must be enabled to use zRAM swap
     effectively:
     <ul>
       <li><code>CONFIG_SWAP</code></li>
@@ -210,11 +253,11 @@
   <li>Then, you should add a line that looks like this to your fstab:<br />
     <code>/dev/block/zram0 none swap defaults zramsize=&lt;size in bytes&gt;,swapprio=&lt;swap partition priority&gt;</code><br />
   <code><br />
-  zramsize</code> is mandatory and indicates how much uncompressed memory you want 
-    the zram area to hold. Compression ratios in the 30-50% range are usually 
+  zramsize</code> is mandatory and indicates how much uncompressed memory you want
+    the zram area to hold. Compression ratios in the 30-50% range are usually
   observed.<br />
   <br />
-  <code>swapprio</code> is optional and not needed if you don't have more than one swap 
+  <code>swapprio</code> is optional and not needed if you don't have more than one swap
   area.<br />
   <br />
   You should also be sure to label the associated block device as a swap_block_device
@@ -223,43 +266,45 @@
   <code>/dev/block/zram0 u:object_r:swap_block_device:s0</code><br />
   <br />
   </li>
-  <li>By default, the Linux kernel swaps in 8 pages of memory at a time. When 
-    using ZRAM, the incremental cost of reading 1 page at a time is negligible 
-    and may help in case the device is under extreme memory pressure. To read 
-    only 1 page at a time, add the following to your init.rc:<br />
-  `write /proc/sys/vm/page-cluster 0`</li>
-  <li>In your init.rc, after the `mount_all /fstab.X` line, add:<br />
-  `swapon_all /fstab.X`</li>
-  <li>The memory cgroups are automatically configured at boot time if the 
+  <li>By default, the Linux kernel swaps in 8 pages of memory at a time. When
+    using ZRAM, the incremental cost of reading 1 page at a time is negligible
+    and may help in case the device is under extreme memory pressure. To read
+    only 1 page at a time, add the following to your <code>init.rc</code>:<br />
+  <code>write /proc/sys/vm/page-cluster 0</code></li>
+  <li>In your <code>init.rc</code> after the <code>mount_all /fstab.X</code> line, add:<br />
+  <code>swapon_all /fstab.X</code></li>
+  <li>The memory cgroups are automatically configured at boot time if the
     feature is enabled in kernel.</li>
-  <li>If memory cgroups are available, the ActivityManager will mark lower 
-    priority threads as being more swappable than other threads. If memory is 
-    needed, the Android kernel will start migrating memory pages to zRAM swap, 
-    giving a higher priority to those memory pages that have been marked by 
+  <li>If memory cgroups are available, the ActivityManager will mark lower
+    priority threads as being more swappable than other threads. If memory is
+    needed, the Android kernel will start migrating memory pages to zRAM swap,
+    giving a higher priority to those memory pages that have been marked by
     ActivityManager. </li>
 </ul>
+
 <h3 id="carveouts">Carveouts, Ion and Contiguous Memory Allocation (CMA)</h3>
 
-  <p>It is especially important on low memory devices to be mindful about 
-  carveouts, especially those that will not always be fully utilized -- for 
-  example a carveout for secure video playback. There are several solutions to 
-  minimizing the impact of your carveout regions that depend on the exact 
-  requirements of your hardware.</p>
-  <p>If hardware permits discontiguous memory 
-  allocations, the ion system heap allows memory allocations from system memory, 
-  eliminating the need for a carveout. It also attempts to make large 
-  allocations to eliminate TLB pressure on peripherals. If memory regions must 
-  be contiguous or confined to a specific address range, the contiguous memory 
-  allocator (CMA) can be used.</p>
-<p>This creates a carveout that the system can also 
-  use of for movable pages. When the region is needed, movable pages will be 
-  migrated out of it, allowing the system to use a large carveout for other 
-  purposes when it is free. CMA can be used directly or more simply via ion by 
-  using the ion cma heap.</p>
+<p>It is especially important on low memory devices to be mindful about
+carveouts, especially those that will not always be fully utilized -- for
+example a carveout for secure video playback. There are several solutions to
+minimizing the impact of your carveout regions that depend on the exact
+requirements of your hardware.</p>
+
+<p>If hardware permits discontiguous memory allocations, the ion system heap
+allows memory allocations from system memory,
+eliminating the need for a carveout. It also attempts to make large
+allocations to eliminate TLB pressure on peripherals. If memory regions must
+be contiguous or confined to a specific address range, the contiguous memory
+allocator (CMA) can be used.</p>
+
+<p>This creates a carveout that the system can also use of for movable pages.
+When the region is needed, movable pages will be migrated out of it, allowing
+the system to use a large carveout for other purposes when it is free. CMA can
+be used directly or more simply via ion by using the ion cma heap.</p>
 
 <h2 id="app-opts">Application optimization tips</h2>
 <ul>
-   <li>Review <a 
+   <li>Review <a
 href="http://developer.android.com/training/articles/memory.html">Managing your
 App's Memory</a> and these past blog posts on the same topic:
   <ul>
@@ -273,7 +318,7 @@
 href="http://tools.android.com/recent/lintperformancechecks">http://tools.android.com/recent/lintperformancechecks</a></li>
     </ul>
 </li>
-  <li>Check/remove any unused assets from preinstalled apps - 
+  <li>Check/remove any unused assets from preinstalled apps -
 development/tools/findunused (should help make the app smaller).</li>
 <li>Use PNG format for assets, especially when they have transparent areas</li>
 <li>If writing native code, use calloc() rather than malloc/memset</li>
@@ -289,73 +334,74 @@
 
   <ul>
   <li><p>SERVICE - SERVICE_RESTARTING<br/>
-  Applications that are making themselves run in the background for their own 
-  reason.  Most common problem apps have when they run in the background too 
-  much.  %duration * pss is probably a good "badness" metric, although this set 
-  is so focused that just doing %duration is probably better to focus on the 
+  Applications that are making themselves run in the background for their own
+  reason.  Most common problem apps have when they run in the background too
+  much.  %duration * pss is probably a good "badness" metric, although this set
+  is so focused that just doing %duration is probably better to focus on the
   fact that we just don't want them running at all.</p></li>
   <li><p>IMPORTANT_FOREGROUND - RECEIVER<br/>
-  Applications running in the background (not directly interacting with the 
-  user) for any reason.  These all add memory load to the system.  In this case 
-  the (%duration * pss) badness value is probably the best ordering of such 
-  processes, because many of these will be always running for good reason, and 
+  Applications running in the background (not directly interacting with the
+  user) for any reason.  These all add memory load to the system.  In this case
+  the (%duration * pss) badness value is probably the best ordering of such
+  processes, because many of these will be always running for good reason, and
   their pss size then is very important as part of their memory load.</p></li>
   <li><p>PERSISTENT<br/>
-  Persistent system processes.  Track pss to watch for these processes getting 
+  Persistent system processes.  Track pss to watch for these processes getting
   too large.</p></li>
   <li><p>TOP<br/>
-  Process the user is currently interacting with.  Again, pss is the important 
+  Process the user is currently interacting with.  Again, pss is the important
   metric here, showing how much memory load the app is creating while in use.</p></li>
   <li><p>HOME - CACHED_EMPTY<br/>
-  All of these processes at the bottom are ones that the system is keeping 
-  around in case they are needed again; but they can be freely killed at any 
-  time and re-created if needed.  These are the basis for how we compute the 
-  memory state -- normal, moderate, low, critical is based on how many of these 
-  processes the system can keep around.  Again the key thing for these processes 
-  is the pss; these processes should try to get their memory footprint down as 
-  much as possible when they are in this state, to allow for the maximum total 
-  number of processes to be kept around.  Generally a well behaved app will have 
-  a pss footprint that is significantly smaller when in this state than when 
+  All of these processes at the bottom are ones that the system is keeping
+  around in case they are needed again; but they can be freely killed at any
+  time and re-created if needed.  These are the basis for how we compute the
+  memory state -- normal, moderate, low, critical is based on how many of these
+  processes the system can keep around.  Again the key thing for these processes
+  is the pss; these processes should try to get their memory footprint down as
+  much as possible when they are in this state, to allow for the maximum total
+  number of processes to be kept around.  Generally a well behaved app will have
+  a pss footprint that is significantly smaller when in this state than when
   TOP.</p></li>
   <li>
     <p>TOP vs. CACHED_ACTIVITY-CACHED_ACTIVITY_CLIENT<em><br/>
-  </em>The difference in pss between when a process is TOP vs. when it is in either 
-  of these specific cached states is the best data for seeing how well it is 
-  releasing memory when going into the background.  Excluding CACHED_EMPTY state 
-  makes this data better, since it removes situations when the process has 
-  started for some reasons besides doing UI and so will not have to deal with 
+  </em>The difference in pss between when a process is TOP vs. when it is in either
+  of these specific cached states is the best data for seeing how well it is
+  releasing memory when going into the background.  Excluding CACHED_EMPTY state
+  makes this data better, since it removes situations when the process has
+  started for some reasons besides doing UI and so will not have to deal with
   all of the UI overhead it gets when interacting with the user.</p></li>
   </ul>
 
-
 <h2 id="analysis">Analysis</h2>
+
 <h3 id="app-startup">Analyzing app startup time</h3>
 
+<p>Use <code>$ adb shell am start</code> with the <code>-P</code> or
+<code>--start-profiler</code> option to run the profiler when your app starts.
+This will start the profiler almost immediately after your process is forked
+from zygote, before any of your code is loaded into it.</p>
 
-  <p>Use "<code>adb shell am start</code>" with the <code>-P</code> or <code>--start-profiler</code> option to run 
-  the profiler when your app starts. This will start the profiler almost 
-  immediately after your process is forked from zygote, before any of your code 
-is loaded into it.</p>
 <h3 id="bug-reports">Analyze using bugreports </h3>
 
+<p>Now contains various information that can be used for debugging. The
+services include <code>batterystats</code>, <code>netstats</code>,
+<code>procstats</code>, and <code>usagestats</code>. You can find them with
+lines like this:</p>
 
-  <p>Now contains various information that can be used for debugging. The services 
-  include <code>batterystats</code>, <code>netstats</code>, <code>procstats</code>, and <code>usagestats</code>.  You can 
-  find them with lines like this:</p>
-
-
-<pre>------ CHECKIN BATTERYSTATS (dumpsys batterystats --checkin) ------
+<pre>
+------ CHECKIN BATTERYSTATS (dumpsys batterystats --checkin) ------
 7,0,h,-2558644,97,1946288161,3,2,0,340,4183
 7,0,h,-2553041,97,1946288161,3,2,0,340,4183
 </pre>
+
 <h3 id="persistent">Check for any persistent processes</h3>
 
-
-  <p>Reboot the device and check the processes.<br/>
-  Run for a few hours and check the processes again. There should not be any 
+<p>Reboot the device and check the processes.<br/>
+Run for a few hours and check the processes again. There should not be any
 long running processes.</p>
+
 <h3 id="longevity">Run longevity tests</h3>
 
-
-  <p>Run for longer durations and track the memory of the process. Does it 
-  increase? Does it stay constant? Create Canonical use cases and run longevity tests on these scenarios</p>
+<p>Run for longer durations and track the memory of the process. Does it
+increase? Does it stay constant? Create Canonical use cases and run longevity
+tests on these scenarios</p>