Results:

Arm - Beagleboard

80x86 64bit (4 core but single thread)

Test Code:

# -*- coding: utf-8 -*-
import time

__author__ = 'ozgur'
__creation_date__ = '4/1/16' '4:11 PM'

TEST_STRING = '''The hierarchy shown above is relative to a PREFIX directory. PREFIX is computed by starting from the directory where the executable resides, and “walking up” the filesystem until we find a directory containing lib_pypy and lib-python/2.7.
The archives (.tar.bz2 or .zip) containing PyPy releases already contain the correct hierarchy, so to run PyPy it’s enough to unpack the archive, and run the bin/pypy executable.
To install PyPy system wide on unix-like systems, it is recommended to put the whole hierarchy alone (e.g. in /opt/pypy2.1) and put a symlink to the pypy executable into /usr/bin or /usr/local/bin
If the executable fails to find suitable libraries, it will report debug: WARNING: library path not found, using compiled-in sys.path and then attempt to continue normally. If the default path is usable, most code will be fine. However, the sys.prefix will be unset and some existing libraries assume beni bul that this is never the case.'''


class StressSuite():
    def __init__(self):
        pass

    @staticmethod
    def test_array():
        a = []
        for y in range(1000000):
            txt_arr = "deneme".split()
            for item in txt_arr:
                a.append(item)
        del (a)

    @staticmethod
    def test_float():
        a = 0.5612342
        b = 653.324556
        c = a + b
        d = a * b
        e = b / a
        f = a - b

    @staticmethod
    def test_int():
        a = 5612342
        b = 653324556
        c = a + b
        d = a * b
        e = b / a
        f = a - b

    @staticmethod
    def test_string():
        b = TEST_STRING.find("beni bul")

    def runtest(self, label, loop, func_exec):
        print "Testing : ", label
        s_time = time.time()
        for x in range(loop):
            func_exec()
        print "%s exec time : %.3f sn." % (label, (time.time() - s_time))

    def run(self):
        s_time = time.time()
        self.runtest("Array Copy", 100, StressSuite.test_array)
        self.runtest("Float Arithmetic", 100000000, StressSuite.test_float)
        self.runtest("Integer Arithmetic", 100000000, StressSuite.test_int)
        self.runtest("String Search", 10000000, StressSuite.test_string)
        print "Total exec time : %.3f sn." % (time.time() - s_time)


if __name__ == '__main__':
    ss = StressSuite()
    ss.run()

This driver :

1) Creates a character device called kbdozgur

2) Handles an interrupt(keyboard) , buffers it

-  send buffered data when kbdozgur opened for read

- prints into dmesg when you put a message in kbdozgur

#include <linux/init.h>           // Macros used to mark up functions e.g. __init __exit
#include <linux/module.h>         // Core header for loading LKMs into the kernel
#include <linux/device.h>         // Header to support the kernel Driver Model
#include <linux/kernel.h>         // Contains types, macros, functions for the kernel
#include <linux/fs.h>             // Header for the Linux file system support
#include <asm/uaccess.h>          // Required for the copy to user function
#include <linux/interrupt.h>
#include <asm/io.h>

#define  DEVICE_NAME "kbdozgur"   ///< The device will appear at /dev/kbdozgur using this value
#define  CLASS_NAME  "kbdozgur"   ///< The device class -- this is a character device driver
MODULE_AUTHOR("Mehmet Ozgur Bayhan");
MODULE_LICENSE("GPL");
MODULE_DESCRIPTION("Kill all the white men!");
MODULE_VERSION("0.2");

#define BUFFER_SIZE 200
static unsigned char messageFromInterrupt[BUFFER_SIZE]; //buffer that holds interrupt values
static short bufferCounter = 0; //buffer counter for loop

static int majorNumber; ///< Stores the device number -- determined automatically
static char messageFromUser[BUFFER_SIZE] = { 0 }; ///< Memory for the string that is passed from userspace
//static short size_of_message; ///< Used to remember the size of the string stored
static int numberOpens = 0; ///< Counts the number of times the device is opened
static struct class* kbdozgurcharClass = NULL; ///< The device-driver class struct pointer
static struct device* kbdozgurcharDevice = NULL; ///< The device-driver device struct pointer

// The prototype functions for the character driver -- must come before the struct definition
static int dev_open(struct inode *, struct file *);
static int dev_release(struct inode *, struct file *);
static ssize_t dev_read(struct file *, char *, size_t, loff_t *);
static ssize_t dev_write(struct file *, const char *, size_t, loff_t *);

static struct file_operations fops = { .open = dev_open, .read = dev_read, .write = dev_write, .release = dev_release, };

irq_handler_t irq_handler(int irq, void *dev_id, struct pt_regs *regs) {
	static unsigned char scancode;
	//Read keyboard status
	scancode = inb(0x60);

	if (scancode == 0x01) {
		printk(KERN_INFO "MOB: Inputs are > %s\n", messageFromInterrupt);
		bufferCounter = 0;
		memset(&messageFromInterrupt[0], 0, sizeof(messageFromInterrupt));
	}
	else if (scancode == 0x1E) {
		messageFromInterrupt[bufferCounter] = 'a';
		bufferCounter++;
	}
	else if (scancode == 0x1F) {
		messageFromInterrupt[bufferCounter] = 's';
		bufferCounter++;
	}
	else if (scancode == 0x20) {
		messageFromInterrupt[bufferCounter] = 'd';
		bufferCounter++;
	}
	else if (scancode == 0x21) {
		messageFromInterrupt[bufferCounter] = 'f';
		bufferCounter++;
	}
	else if (scancode == 0x22) {
		messageFromInterrupt[bufferCounter] = 'g';
		bufferCounter++;
	}
	else if (scancode == 0x23) {
		messageFromInterrupt[bufferCounter] = 'h';
		bufferCounter++;
	}
	else if (scancode == 0x24) {
		messageFromInterrupt[bufferCounter] = 'j';
		bufferCounter++;
	}
	if (bufferCounter >= BUFFER_SIZE) {
		bufferCounter = 0;
		memset(&messageFromInterrupt[0], 0, sizeof(messageFromInterrupt));
	}

	return (irq_handler_t) IRQ_HANDLED;
}

static int init_mod(void) {
	int result;

	/*
	 *****************************
	 * Create Character device
	 *****************************
	 */

	// Try to dynamically allocate a major number for the device
	majorNumber = register_chrdev(0, DEVICE_NAME, &fops);
	if (majorNumber < 0) {
		printk(KERN_ALERT "MOB: kbdozgurcharClass failed to register a major number\n");
		return majorNumber;
	}
	printk(KERN_INFO "MOB: registered correctly with major number %d\n", majorNumber);
	// Register the device class
	kbdozgurcharClass = class_create(THIS_MODULE, CLASS_NAME);
	if (IS_ERR(kbdozgurcharClass)) { // Check for error and clean up if there is
		unregister_chrdev(majorNumber, DEVICE_NAME);
		printk(KERN_ALERT "MOB: Failed to register device class\n");
		return PTR_ERR(kbdozgurcharClass); // Correct way to return an error on a pointer
	}
	printk(KERN_INFO "MOB: device class registered correctly\n");

	// Register the device driver
	kbdozgurcharDevice = device_create(kbdozgurcharClass, NULL, MKDEV(majorNumber, 0), NULL, DEVICE_NAME);
	if (IS_ERR(kbdozgurcharDevice)) { // Clean up if there is an error
		class_destroy(kbdozgurcharClass); // Repeated code but the alternative is goto statements
		unregister_chrdev(majorNumber, DEVICE_NAME);
		printk(KERN_ALERT "MOB: Failed to create the device\n");
		return PTR_ERR(kbdozgurcharDevice);
	}
	printk(KERN_INFO "MOB: device class created correctly\n"); // Made it! device was initialized
	
	/*
	 *****************************
	 * Bind interrupt
	 *****************************
	 */

	//	Request IRQ 1, the keyboard IRQ, to go to our irq_handler SA_SHIRQ means we're willing to have othe handlers on this IRQ. SA_INTERRUPT can be used to make the handler into a fast interrupt.

	result = request_irq(1, (irq_handler_t) irq_handler, IRQF_SHARED, "kbdozgur", (void *) (irq_handler));
	if (result) printk(KERN_INFO "MOB: can't get shared interrupt for keyboard\n");

	printk(KERN_INFO "MOB: kbdozgur loaded.\n");
	return result;

}

static void exit_mod(void) {
	/*
	 * ****************************
	 * Destroy Character Device
	 * ****************************
	 */
	device_unregister(kbdozgurcharDevice);
	device_destroy(kbdozgurcharClass, MKDEV(majorNumber, 0)); // remove the device
	class_unregister(kbdozgurcharClass); // unregister the device class
	class_destroy(kbdozgurcharClass); // remove the device class
	unregister_chrdev(majorNumber, DEVICE_NAME); // unregister the major number
	printk(KERN_INFO "MOB: Goodbye from the LKM!\n");

	/*
	 * ****************************
	 * Free IRQ bind
	 * ****************************
	 */
	free_irq(1, (void *) (irq_handler));
	printk(KERN_INFO "MOB: kbdozgur unloaded.\n");
}

// Default open function for device
static int dev_open(struct inode *inodep, struct file *filep) {
	numberOpens++;
	printk(KERN_INFO "MOB: Device has been opened %d time(s)\n", numberOpens);
	return 0;
}

/** @brief This function is called whenever device is being read from user space i.e. data is
 *  being sent from the device to the user. In this case is uses the copy_to_user() function to
 *  send the buffer string to the user and captures any errors.
 *  KERNEL SPACE > USER SPACE
 *  @param filep A pointer to a file object (defined in linux/fs.h)
 *  @param buffer The pointer to the buffer to which this function writes the data
 *  @param len The length of the buffer
 *  @param offset The offset if required
 */
static ssize_t dev_read(struct file *filep, char *buffer, size_t len, loff_t *offset) {
	size_t size_requested;
	if (len >= bufferCounter) size_requested = bufferCounter;
	else size_requested = len;

	//	if (copy_to_user(buffer, messageFromInterrupt, size_requested)) {
	//		bufferCounter = bufferCounter - size_requested;
	//		memset(&messageFromInterrupt[0], 0, sizeof(messageFromInterrupt));
	//		return -EFAULT;
	//	}
	//	else return size_requested;

	copy_to_user(buffer, messageFromInterrupt, size_requested);
	bufferCounter = bufferCounter - size_requested;
	memset(&messageFromInterrupt[0], 0, sizeof(messageFromInterrupt));

	return size_requested;
}

/** @brief This function is called whenever the device is being written to from user space i.e.
 *  data is sent to the device from the user. The data is copied to the messageFromUser[] array in this
 *  LKM using the sprintf() function along with the length of the string.
 *  USER SPACE > KERNEL SPACE
 *  @param filep A pointer to a file object
 *  @param buffer The buffer to that contains the string to write to the device
 *  @param len The length of the array of data that is being passed in the const char buffer
 *  @param offset The offset if required
 */
static ssize_t dev_write(struct file *filep, const char *buffer, size_t len, loff_t *offset) {
	short size_of_message;
	copy_from_user(messageFromUser, buffer, len);
	size_of_message = strlen(messageFromUser); // store the length of the stored message
	printk(KERN_INFO "MOB: Received %d characters from the user >> %s", len, messageFromUser);
	return len;
}

/** @brief The device release function that is called whenever the device is closed/released by
 *  the userspace program
 *  @param inodep A pointer to an inode object (defined in linux/fs.h)
 *  @param filep A pointer to a file object (defined in linux/fs.h)
 */
static int dev_release(struct inode *inodep, struct file *filep) {
	printk(KERN_INFO "MOB: Device successfully closed\n");
	return 0;
}
module_init(init_mod);
module_exit(exit_mod);

Here's a summary of the ways to call external programs and the advantages and disadvantages of each:

1. os.system("some_command with args") passes the command and arguments to your system's shell. This is nice because you can actually run multiple commands at once in this manner and set up pipes and input/output redirection. For example,
   os.system("some_command < input_file | another_command > output_file")
   However, while this is convenient, you have to manually handle the escaping of shell characters such as spaces, etc. On the other hand, this also lets you run commands which are simply shell commands and not actually external programs.
   see documentation

2. stream = os.popen("some_command with args") will do the same thing as os.systemexcept that it gives you a file-like object that you can use to access standard input/output for that process. There are 3 other variants of popen that all handle the i/o slightly differently. If you pass everything as a string, then your command is passed to the shell; if you pass them as a list then you don't need to worry about escaping anything.
   see documentation

3. The Popen class of the subprocess module. This is intended as a replacement for os.popen but has the downside of being slightly more complicated by virtue of being so comprehensive. For example, you'd say

   print subprocess.Popen("echo Hello World", shell=True, stdout=subprocess.PIPE).stdout.read()

   instead of

   print os.popen("echo Hello World").read()

   but it is nice to have all of the options there in one unified class instead of 4 different popen functions.
   see documentation

4. The call function from the subprocess module. This is basically just like the Popen class and takes all of the same arguments, but it simply waits until the command completes and gives you the return code. For example:

   return_code = subprocess.call("echo Hello World", shell=True)  

   see documentation

5. If you're on Python 3.5 or later, you can use the new subprocess.run function, which is a lot like the above but even more flexible and returns a CompletedProcess object when the command finishes executing.

6. The os module also has all of the fork/exec/spawn functions that you'd have in a C program, but I don't recommend using them directly.

The subprocess module should probably be what you use.

Finally please be aware that for all methods where you pass the final command to be executed by the shell as a string and you are responsible for escaping it there are serious security implications if any part of the string that you pass can not be fully trusted (for example if a user is entering some/any part of the string). If unsure only use these methods with constants. To give you a hint of the implications consider this code

print subprocess.Popen("echo %s " % user_input, stdout=PIPE).stdout.read()

and imagine that the user enters "my mama didnt love me && rm -rf /".

Database :

Storm

https://github.com/Said007/iterable_orm

https://github.com/EliotBerriot/lifter

GUI:

https://pypi.python.org/pypi/htmlPy/

1. Pinta 
2. Dia
3. pycharm
4. ninja
5. sqliteman
6. brackets
7. sublime
8. codelite
9. geany
10. wxformbuilder
11. meld
12. mono
13. subcommander
14. playonlinux
15. dia
16. ffmpeg
17. dropbox
18. google-chrome
19. oracle-java
20. wireshark
21. team-viewer
22. youtube-dl
23. audacious
24. avidemux
25. mkvtoolnix
26. vlc
27. skype
28. bleachbit
29. bum
30. boot repair
31. nmapgui
32. virtualbox
33. filelight,jdiskreport,baobab
34. freefilesync
35. wxhexeditor
36. numix
37. conky
38. thunderbird
39. pinta
40. subversion
41. git
42. libav
43. fortunes-ubuntu-server
44. filezilla
45. acetone iso
46. free file sync

Theme:

-Quartz

-Arc

-Numix  >> KDE Stuff

-4k flat material

wallpaper -> material design

qtcurve -> numix

color scheme -> material

window decoration qtcurve

cursor -> oxygen neon

Desktop theme -> arc dark

https://github.com/Bash-it/bash-it

Python Threading Örneği:

#!/usr/bin/env python2

import threading
import time


class MyThread (threading.Thread):
    def __init__(self, thread_id, name, some_more_variable):
        threading.Thread.__init__(self)
        self.thread_id = thread_id
        self.name = name
        self.some_more_variable = some_more_variable
        self.daemon = True # Ana islem sonlandiginda thread'de sonlanacak

    def run(self):
        # thread islemi
        pass


# Yeni threadler yarat
thread1 = MyThread(1, "Thread-1","other_variable")
thread2 = MyThread(2, "Thread-2","other_variable")

# Yeni threadleri baslat
thread1.start()
thread2.start()

sleep(50) # Ana thread. Buraya kod gelecek

# threadler bir sekilde kesilirse sonlandırıldığını garantilememiz gerekiyor
thread1.join() 
thread2.join()

Fonksiyonları:

• run(): thread.start() ile tetiklenen fonksiyon. Asıl işi yapan method burası
• start(): thread.start() , multhreading başlatır ve  run()  methodunu çağırır.
• join([n]): n saniye sonra thread'i sonlandırır
• isAlive(): thread hala çalışıyormu kontrol eder
• getName(): thread'in adını döndürür
• setName(): thread'in adını set eder

Fastest way to construct a string :

text = "%d,C100,%s,,%s,V101,%s,0,1,#" % (self.message_counter, str(self.device_id), time_str, data_list[5]))

Rounding a float:

'%.5f' % .12345678

Read file and split by lines :

with open("test.txt", "a") as myfile:
    myfile.write("appended text")

Open Modes:

Disk Erişim Hızını İyileştirme:

Dikteki dosyaların her okunduğunda bir de okundu bilgisinin yazılmaması için noatime kullanılır(nodiratime da içerir). Journal 'i kapatmak için data=writeback, kullanılır.

/etc/fstab >> 

UUID=7f5392f8-939b-4149-9f04-8b377ad0cdb4 /  ext4  defaults,noatime,data=writeback,errors=remount-ro 0       1

# /tmp dizinini RAM'e bağlama
tmpfs /tmp tmpfs defaults,noatime,nosuid,nodev,noexec,mode=1777,size=512M 0 0

Bellek İyileştirmeleri:

/etc/sysctl.conf >>

#Swap kullanim oranini azaltir
vm.swappiness=10

# Inode kullanan sistem nesnelerinin daha uzun sure cache de kalmarini saglar
vm.vfs_cache_pressure=50

TTY Sayısını 3 e İndirmek:

/etc/default/console-setup >>

ACTIVE_CONSOLES=”/dev/tty[1-3]

sudo rm /etc/init/tty6.conf /etc/init/tty5.conf /etc/init/tty4.conf

Preload İle Sık Kullanılan Programları Önyüklemek:

sudo apt-get install preload

Hybernate Ve Sleep i kinit 'de başlatılmasını engellemek:

# Başına # koyarak yorum satırı haline getir:

# RESUME=UUID=427075a3-381d-466b-a8d4-d08e8d183b6c

APT:

dpkg --get-selections | grep -v deinstall # list installed files
apt-get clean # clean apt cache
apt-get clean all # clean apt cache
apt-get autoremove # clean unneeded files