Thank you everybody, Your comments makes it better
sh -c "$(curl -fsSL https://raw.github.com/ohmyzsh/ohmyzsh/master/tools/install.sh)"
import os | |
import sys | |
import time | |
import struct | |
import select | |
import binascii | |
import bluetooth | |
from bluetooth import _bluetooth as bt |
Thank you everybody, Your comments makes it better
sh -c "$(curl -fsSL https://raw.github.com/ohmyzsh/ohmyzsh/master/tools/install.sh)"
STEPS
Click on Help menu
Select Enter License
Then paste given KEY given at bottom
Finally click on Use License
//Custom configuration | |
atom-text-editor { | |
text-rendering: optimizeLegibility; | |
-webkit-font-smoothing: antialiased; | |
font-family: "Operator Mono"; | |
font-size: 16px; | |
font-weight: 500; | |
line-height: 1.5; | |
} |
--- automake.in 2015-01-06 03:25:55.000000000 +0800 | |
+++ automake.in.patched 2017-07-26 13:58:07.086205701 +0800 | |
@@ -3878,7 +3878,7 @@ | |
sub substitute_ac_subst_variables | |
{ | |
my ($text) = @_; | |
- $text =~ s/\${([^ \t=:+{}]+)}/substitute_ac_subst_variables_worker ($1)/ge; | |
+ $text =~ s/\$\{([^ \t=:+{}]+)\}/substitute_ac_subst_variables_worker ($1)/ge; | |
return $text; | |
} |
These results are with glibc malloc on x86_64. The last public PaX and grsecurity patches don't support arm64 which is one of the two architectures (x86_64 kernels including x32/x86_32 and arm64 kernels including armv7 userspace) focused on by linux-hardened. There isn't anything other than x86_64 to compare across all 3 kernels although linux-hardened has the same end result for both x86_64 and arm64 (with slightly different starting points) and there are few mainline differences. The linux-hardened implementation of ASLR is a very minimal modification of the mainline implementation to fix the weaknesses compared to grsecurity. The intention is to upstream all of these changes, although care needs to be taken to properly justify them to avoid getting anything rejected unnecessarily.
Explanation of differences between kernels:
These commands generate and use private keys in unencrypted binary (not Base64 “PEM”) PKCS#8 format. The PKCS#8 format is used here because it is the most interoperable format when dealing with software that isn't based on OpenSSL.
OpenSSL has a variety of commands that can be used to operate on private
key files, some of which are specific to RSA (e.g. openssl rsa
and
openssl genrsa
) or which have other limitations. Here we always use
The following are examples of the four types rate limiters discussed in the accompanying blog post. In the examples below I've used pseudocode-like Ruby, so if you're unfamiliar with Ruby you should be able to easily translate this approach to other languages. Complete examples in Ruby are also provided later in this gist.
In most cases you'll want all these examples to be classes, but I've used simple functions here to keep the code samples brief.
This uses a basic token bucket algorithm and relies on the fact that Redis scripts execute atomically. No other operations can run between fetching the count and writing the new count.
<!-- Operator Tweaks -->
<dict>
<key>name</key>
Italic HTML attribute names
These are instructions for setting up git to authenticate with GitHub when you have 2-factor authentication set up. This authentication should be inherited by any GUI client you are using. These are intentionally brief instructions, with links to more detail in the appropriate places.
Download and install the git command-line client (if required).
Open the git bash window and introduce yourself to git (if required):
git config --global user.name 'Firstname Lastname'
git config --global user.email '[email protected]'