X-Git-Url: https://git.gag.com/?p=web%2Fgag.com;a=blobdiff_plain;f=bdale%2Fblog%2Fposts%2FBatteries_and_Pyro_Circuits.mdwn;h=53addad6ee5db860d196189bd23eda40088178a4;hp=3b07af266179bdc756f1c5cca070751d557e6db9;hb=208872608d8ccb5a25e012164ec37b04ec29c83a;hpb=e622f1fb4bdb86a8876b66f5b6366d291ba089b2

diff --git a/bdale/blog/posts/Batteries_and_Pyro_Circuits.mdwn b/bdale/blog/posts/Batteries_and_Pyro_Circuits.mdwn
index 3b07af2..53addad 100644
--- a/bdale/blog/posts/Batteries_and_Pyro_Circuits.mdwn
+++ b/bdale/blog/posts/Batteries_and_Pyro_Circuits.mdwn
@@ -47,8 +47,8 @@ at a 500mA discharge rate.
 
 Importantly for use in pyro circuits, LiPo cells have a *very* low source 
 impedance, which means they can source immense amounts of current.  It's not
-unusual for cells in the 1000mAh range to have ratings in excess of 30C!  
-Because this rapid discharge ability can pose a risk of fire, it's common
+unusual for cells in the 1000mAh range to have ratings in excess of 
+30C!  Because this rapid discharge ability can pose a risk of fire, it's common
 for LiPo cells to come with a "protection board" integrated into the battery 
 assembly that is designed to limit the current to some rate such as 2C
 continuous duty.