Altera recommends the Following system configuration: * Pentium II 400 with 512-MB system memory (faster systems give better software performance) * SVGA monitor * CD-ROM drive * One or more of the Following I/O ports: - USB port (if using Windows XP or Windows 2000) for USB-Blaster(TM) or MasterBlaster(TM) communications cables, or APU programming unit - Parallel port for ByteBlasterMV(TM) or ByteBlaster(TM) II download cables - Serial port for MasterBlaster communications cable * TCP/IP networking protocol installed * Windows 2000, Windows NT 4.0 with Service Pack 3 or later, or Windows XP * Internet Explorer 5.0 or later Memory & Disk Space Requirements USB開發(fā)
a collection of M-files to study concepts in the Following areas of Fuzzy-Set-Theory: Fuzzy or Multivalued Logic, The Calculus of Fuzzy, Quantities, Approximate Reasoning, Possibility Theory, Fuzzy Control, Neuro-Fuzzy Systems.
The Following Philips LPC2k CAN examples in this directory
were provided by ESAcademy.
LPC2_CANAll_V110:
Receives all CAN messages in a receive queue.
LPC2_CANFull_V110:
Uses Full-CAN-like reception filtering.
LPC2_CANBlinky_V130:
Minimal example of MicroCANopen, uses Full-CAN-like
reception filtering and implements both Rx and Tx
Interrupt Service Routines.
The Following Philips LPC2k CAN examples in this directory
were provided by ESAcademy.
LPC2_CANAll_V110:
Receives all CAN messages in a receive queue.
LPC2_CANFull_V110:
Uses Full-CAN-like reception filtering.
LPC2_CANBlinky_V130:
Minimal example of MicroCANopen, uses Full-CAN-like
reception filtering and implements both Rx and Tx
Interrupt Service Routines.
The Following Philips LPC2k CAN examples in this directory
were provided by ESAcademy.
LPC2_CANAll_V110:
Receives all CAN messages in a receive queue.
LPC2_CANFull_V110:
Uses Full-CAN-like reception filtering.
LPC2_CANBlinky_V130:
Minimal example of MicroCANopen, uses Full-CAN-like
reception filtering and implements both Rx and Tx
Interrupt Service Routines.
This example program shows how to configure and use the A/D Converter of the Following microcontroller:
STMicroelectronics ST10F166
After configuring the A/D, the program reads the A/D result and outputs the converted value using the serial port.
To run this program...
Build the project (Project Menu, Build Target)
Start the debugger (Debug Menu, Start/Stop Debug Session)
View the Serial Window (View Menu, Serial Window #1)
View the A/D converter peripheral (Peripheral Menu, A/D Converter)
Run the program (Debug Menu, Go)
A debug script (debug.ini) creates buttons that set different analog values in A/D channels. As the program runs, you will see the A/D input and output change.
Other buttons create signals that generate sine wave or sawtooth patterns as analog inputs. µ Vision3 users may enable the built-in Logic Analyzer to view, measure and compare these input signals graphically.
The tar file contains the Following files:
ptfsf.c: heart of the perfect TFSF code
ptfsf.h: header file for same
ptfsf-demo.c: FDTD code which demonstrates use of perfect TFSF code. Essentially this program used to generate results shown in the paper
ptfsf-file-maker.c: code to generate an incident-field file using the "perfect" incident fields
ptfsf-demo-file.c: FDTD code which uses the perfect incident fields stored in a file
fdtdgen.h: defines macros used in much of my code
Makefile: simple make-file to compile programs
Also include are some simple script files to run the programs with reasonable values.
The code assumes a two-dimensional computational domain with TMz polarization (i.e., non-zero field Ez, Hx, and Hy). The program is currently written so that the incident field always strikes the lower-left corner of the total-field region first. (If you want a different corner, that should be a fairly simple tweak to the code, but for now you ll have to make that tweak yourself.)
graspForth is my humble attempt at a Forth-in-C that has the Following goals:
GCC ......... to support all 32-bit micros that GCC cross-compiles to.
Relocatable . to be able to run in-place in either Flash or Ram.
Fast ........ to be "not much" slower than an assembly based native Forth.
Small ....... to fit-in approx 300 words in less than 25Kbytes on a 32-bit machine.
Portable .... to achieve a 5 minute port to a new 32bit micro-processor, or micro-controller.
his folder contains the Following files:
1. 02490rxP802-15_SG3a-Channel-Modeling-Subcommittee-Report-Final.doc: This is the final
report of the channel modeling sub-committee.
2. cmx_imr.csv (x=1, 2, 3, and 4) represent the files containing the actual 100 channel
realizations for CM1, CM2, CM3, and CM4. The columns are organized as (time, amp, time, amp,...)
3. cmx_imr_np.csv (x=1, 2, 3, and 4) represent the files containing the number of paths in
each of the 100 multipath realizations.
4. cmx_imr.mat (x=1, 2, 3, and 4) are the .mat files that can be loaded directly into
Matlab (TM).
5. *.m files are the Matlab (TM) files used to generate the various channel realizations.
