Documentation - Revision history

Omicronadmin at 10:35, 8 November 2016

2016-11-08T10:35:01Z

Omicronadmin: /* SDR */

2016-08-16T11:16:10Z

‎SDR

Omicronadmin at 10:30, 16 August 2016

2016-08-16T10:30:16Z

Omicronadmin at 10:20, 22 June 2016

2016-06-22T10:20:21Z

Omicronadmin at 10:15, 22 June 2016

2016-06-22T10:15:23Z

Omicronadmin at 08:59, 14 June 2016

2016-06-14T08:59:55Z

Omicronadmin: /* USRP B210 */

2016-06-14T08:51:49Z

‎USRP B210

Omicronadmin: /* Features */

2016-06-14T08:49:59Z

‎Features

Omicronadmin: /* Features */

2016-06-14T08:47:42Z

‎Features

Omicronadmin: /* SDR */

2016-06-14T08:45:15Z

‎SDR

@@ Line 35: / Line 35: @@
 The GNU Radio software provides the framework and tools to build and run software radio or just general signal processing applications. The GNU Radio applications themselves are generally known as 'flowgraphs', which are a series of signal processing blocks connected together, thus describing a data flow. As with all software-defined radio systems, reconfigurability is a key feature. Instead of using different radios designed for specific but disparate purposes, a single, general-purpose, radio can be used as the radio front-end, and the signal-processing software (here, GNU Radio), handles the processing specific to the radio application.
-== GNU Radio Companion ==
+=== GNU Radio Companion ===
 GNU Radio Companion (GRC) is a graphical tool for creating signal flow graphs and generating flow-graph source code, making easier working with GNU Radio.
@@ Line 41: / Line 41: @@
 These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.

@@ Line 34: / Line 34: @@
 === Overview ===
 The GNU Radio software provides the framework and tools to build and run software radio or just general signal processing applications. The GNU Radio applications themselves are generally known as 'flowgraphs', which are a series of signal processing blocks connected together, thus describing a data flow. As with all software-defined radio systems, reconfigurability is a key feature. Instead of using different radios designed for specific but disparate purposes, a single, general-purpose, radio can be used as the radio front-end, and the signal-processing software (here, GNU Radio), handles the processing specific to the radio application.
 These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.

← Older revision		Revision as of 10:30, 16 August 2016
Line 36:		Line 36:

	These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.		These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.
−
−
−	~~= [http://tsc.urjc.es/wikiOMICRON/index.php/Experiments Experiments] =~~

← Older revision		Revision as of 10:20, 22 June 2016
Line 37:		Line 37:
	These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.		These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.

−
−	~~= [http://tsc.urjc.es/wikiOMICRON/index.php/Code Code] =~~

	= [http://tsc.urjc.es/wikiOMICRON/index.php/Experiments Experiments] =		= [http://tsc.urjc.es/wikiOMICRON/index.php/Experiments Experiments] =

@@ Line 1: / Line 1: @@
 = SDR =
-== USRP B210 ==
+== [https://www.ettus.com/product/details/UB210-KIT USRP B210] ==
 The USRP (Universal Software Radio Peripheral) is a flexible and affordable transceiver that turns a standard PC into a powerful wireless prototyping system.
@@ Line 28: / Line 29: @@
 * Prototyping platform for Analog Devices AD9361 RFIC.
-== GNU Radio ==
+== [http://gnuradio.org/ GNU Radio] ==
 GNU Radio is a free software development toolkit that provides signal processing blocks to implement software-defined radios and signal processing systems. It can be used with external RF hardware to create software-defined radios, or without hardware in a simulation-like environment. It is widely used in hobbyist, academic, and commercial environments to support both wireless communications research and real-world radio systems.
@@ Line 36: / Line 37: @@
 These flowgraphs can be written in either C++ or the Python programming language. The GNU Radio infrastructure is written entirely in C++, and many of the user tools are written in Python.
 = [http://tsc.urjc.es/wikiOMICRON/index.php/Code Code] =
 = [http://tsc.urjc.es/wikiOMICRON/index.php/Experiments Experiments] =

@@ Line 1: / Line 1: @@
-== SDR ==
+= SDR =
-=== USRP B210 ===
+== USRP B210 ==
-−
-==== Overview ====
 The USRP (Universal Software Radio Peripheral) is a flexible and affordable transceiver that turns a standard PC into a powerful wireless prototyping system.
 The USRP B210 comes straight from the R&D labs of Ettus Research providing early access to cutting edge experimental hardware covering 70MHz – 6GHz with integrated RFIC technology, a Spartan6 FPGA, and USB 3.0 connectivity. This new platform enables experimentation with wide range of applications including:  FM and TV broadcast, cellular, WiFi, ISM, and more. The USRP B210 features two receive and two transmit channels, incorporates an open FPGA and includes an external power supply.  It uses new Analog Devices RFIC to deliver a cost-effective experimentation platform and a high bandwidth USB 3.0 bus with up to 56 MHz of instantaneous bandwidth in 1x1 operation and up to 32MHz of instantaneous bandwidth in 2x2 operation  on select USB 3.0 chipsets (backwards compatibly to USB 2.0 for 6MHz of instantaneous bandwidth).  The two transmit pairs and receive pairs each share a local oscillator for fully coherent MIMO applications.
 With this new kit, users can develop their GNU Radio applications and seamlessly port their designs to higher performance USRP systems such as USRP N210 with industry proven 1 Gigabit Ethernet connectivity or the USRP E100 embedded form factor, both including discrete RF boards with higher sensitivity, dynamic range, and IP3 performance using the common USRP Hardware Driver (UHD) framework.
-==== Features ====
+=== Features ===
 * Radio functionality
@@ Line 29: / Line 28: @@
 * Prototyping platform for Analog Devices AD9361 RFIC.
-== [http://tsc.urjc.es/wikiOMICRON/index.php/articles Related Articles and Conferences] ==
+== GNU Radio ==
-== [http://tsc.urjc.es/wikiOMICRON/index.php/Code Code] ==
+= [http://tsc.urjc.es/wikiOMICRON/index.php/Code Code] =
-== [http://tsc.urjc.es/wikiOMICRON/index.php/Experiments Experiments] ==
+= [http://tsc.urjc.es/wikiOMICRON/index.php/Experiments Experiments] =

@@ Line 8: / Line 8: @@
 ==== Features ====
-<ul>
-<li>
+* Radio functionality
- Radio functionality
+** 2 Transmit, 2 Receive
-  * 2 Transmit, 2 Receive
+** Full duplex or half duplex
-  * Full duplex or half duplex
+** Frequency range: 70 MHz to 6 GHz
-  * Frequency range: 70 MHz to 6 GHz
+** Baseband: 12-bit ADC/DAC
-  * Baseband: 12-bit ADC/DAC
+** Up to to 61.44 MS/s allows up to 56 MHz of real time bandwidth per channel
-  * Up to to 61.44 MS/s allows up to 56 MHz of real time bandwidth per channel
+** Up to 32 MHz of real time bandwidth in 2x2 MIMO mode
-  * Up to 32 MHz of real time bandwidth in 2x2 MIMO mode
-</li>
+* USB 3.0 interfaceFPGA – Spartan 6 XC6SLX75
-<li>
+** Up to 3.2Gb/s sustainable transfer rates
- USB 3.0 interfaceFPGA – Spartan 6 XC6SLX75
+** Supports USB 2.0 controllers
-  * Up to 3.2Gb/s sustainable transfer rates
-  * Supports USB 2.0 controllers
+* USRP Hardware Driver™ (UHD) compatible
-</li>
-<li>
+* Prototyping platform for Analog Devices AD9361 RFIC.
- USRP Hardware Driver™ (UHD) compatible
-</li>
+* Prototyping platform for Analog Devices AD9361 RFIC.
-<li>
- Prototyping platform for Analog Devices AD9361 RFIC.
-</li>
-<li>
 Prototyping platform for Analog Devices AD9361 RFIC.
-</li>
-</ul>
 == [http://tsc.urjc.es/wikiOMICRON/index.php/articles Related Articles and Conferences] ==

← Older revision		Revision as of 08:45, 14 June 2016
Line 1:		Line 1:
	== SDR ==		== SDR ==
		+
		+	=== USRP B210 ===
		+
		+	==== Overview ====
		+	The USRP B210 comes straight from the R&D labs of Ettus Research providing early access to cutting edge experimental hardware covering 70MHz – 6GHz with integrated RFIC technology, a Spartan6 FPGA, and USB 3.0 connectivity. This new platform enables experimentation with wide range of applications including: FM and TV broadcast, cellular, WiFi, ISM, and more. The USRP B210 features two receive and two transmit channels, incorporates an open FPGA and includes an external power supply. It uses new Analog Devices RFIC to deliver a cost-effective experimentation platform and a high bandwidth USB 3.0 bus with up to 56 MHz of instantaneous bandwidth in 1x1 operation and up to 32MHz of instantaneous bandwidth in 2x2 operation on select USB 3.0 chipsets (backwards compatibly to USB 2.0 for 6MHz of instantaneous bandwidth). The two transmit pairs and receive pairs each share a local oscillator for fully coherent MIMO applications.
		+	With this new kit, users can develop their GNU Radio applications and seamlessly port their designs to higher performance USRP systems such as USRP N210 with industry proven 1 Gigabit Ethernet connectivity or the USRP E100 embedded form factor, both including discrete RF boards with higher sensitivity, dynamic range, and IP3 performance using the common USRP Hardware Driver (UHD) framework.
		+
		+	==== Features ====
		+	* Radio functionality
		+	** 2 Transmit, 2 Receive
		+	** Full duplex or half duplex
		+	** Frequency range: 70 MHz to 6 GHz
		+	** Baseband: 12-bit ADC/DAC
		+	** Up to to 61.44 MS/s allows up to 56 MHz of real time bandwidth per channel
		+	** Up to 32 MHz of real time bandwidth in 2x2 MIMO mode
		+	* USB 3.0 interfaceFPGA – Spartan 6 XC6SLX75
		+	** Up to 3.2Gb/s sustainable transfer rates
		+	** Supports USB 2.0 controllers
		+	* USRP Hardware Driver™ (UHD) compatible
		+	* Prototyping platform for Analog Devices AD9361 RFIC.
		+	Prototyping platform for Analog Devices AD9361 RFIC.

	== [http://tsc.urjc.es/wikiOMICRON/index.php/articles Related Articles and Conferences] ==		== [http://tsc.urjc.es/wikiOMICRON/index.php/articles Related Articles and Conferences] ==