CY8C20236A Evaluation Tools
All evaluation tools are sold at the Cypress Online Store.
CY3210-MiniProg1
The CY3210-MiniProg1 kit enables the user to program PSoC
devices via the MiniProg1 programming unit. The MiniProg is a
small, compact prototyping programmer that connects to the PC
via a provided USB 2.0 cable. The kit includes:
■ MiniProg Programming Unit
■ MiniEval Socket Programming and Evaluation Board
■ 28-Pin CY8C29466A-24PXI PDIP PSoC Device Sample
■ 28-Pin CY8C27443A-24PXI PDIP PSoC Device Sample
■ PSoC Designer Software CD
■ Getting Started Guide
■ USB 2.0 Cable
CY3210-PSoCEval1
The CY3210-PSoCEval1 kit features an evaluation board and
the MiniProg1 programming unit. The evaluation board includes
an LCD module, potentiometer, LEDs, and plenty of breadboarding space to meet all of your evaluation needs. The kit
includes:
■ Evaluation Board with LCD Module
■ MiniProg Programming Unit
■ 28-Pin CY8C29466A-24PXI PDIP PSoC Device Sample (2)
■ PSoC Designer Software CD
■ Getting Started Guide
■ USB 2.0 Cable
CY3280-20x66 Universal CapSense Controller
The CY3280-20X66 CapSense Controller Kit is designed for
easy prototyping and debug of CY8C20xx6A CapSense Family
designs with pre-defined control circuitry and plug-in hardware.
Programming hardware and an I2C-to-USB bridge are included
for tuning and data acquisition.
The kit includes:
■ CY3280-20x66 CapSense Controller Board
■ CY3240-I2USB Bridge
■ CY3210 MiniProg1 Programmer
■ USB 2.0 Retractable Cable
■ CY3280-20x66 Kit CD
Device Programmers
All device programmers are purchased from the Cypress Online
Store.
CY3207ISSP In-System Serial Programmer (ISSP)
The CY3207ISSP is a production programmer. It includes
protection circuitry and an industrial case that is more robust than
the MiniProg in a production programming environment.
Note that CY3207ISSP needs special software and is not
compatible with PSoC Programmer. The kit includes:
■ CY3207 Programmer Unit
■ PSoC ISSP Software CD
■ 110 ~ 240 V Power Supply, Euro-Plug Adapter
■ USB 2.0 Cable
Friday, October 26, 2012
Thursday, October 18, 2012
CY7C09359AV-9AXC Code Extract
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Features
True dual ported memory cells which allow simultaneous
access of the same memory location
Two flow-through/pipelined devices
4 K × 18 organization (CY7C09349AV)
8 K × 18 organization (CY7C09359AV)
Three modes
Flow-through
Pipelined
Burst
Pipelined output mode on both ports allows fast 67-MHz
operation
0.35-micron complementary metal oxide semiconductor
(CMOS) for optimum speed/power
High-speed clock to data access 9 and 12 ns (max)
3.3 V low operating power
Active = 135 mA (typical)
Standby = 10 μA (typical)
Fully synchronous interface for easier operation
Burst counters increment addresses internally
Shorten cycle times
Minimize bus noise
Supported in flow-through and pipelined modes
Dual chip enables for easy depth expansion
Upper and lower byte controls for bus matching
Automatic power-down
Available in 100-pin thin quad flat pack (TQFP)
Features
True dual ported memory cells which allow simultaneous
access of the same memory location
Two flow-through/pipelined devices
4 K × 18 organization (CY7C09349AV)
8 K × 18 organization (CY7C09359AV)
Three modes
Flow-through
Pipelined
Burst
Pipelined output mode on both ports allows fast 67-MHz
operation
0.35-micron complementary metal oxide semiconductor
(CMOS) for optimum speed/power
High-speed clock to data access 9 and 12 ns (max)
3.3 V low operating power
Active = 135 mA (typical)
Standby = 10 μA (typical)
Fully synchronous interface for easier operation
Burst counters increment addresses internally
Shorten cycle times
Minimize bus noise
Supported in flow-through and pipelined modes
Dual chip enables for easy depth expansion
Upper and lower byte controls for bus matching
Automatic power-down
Available in 100-pin thin quad flat pack (TQFP)
CY7C09569V-100AXC Code Extract
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The CY7C09569V and CY7C09579V are high-speed 3.3 V
synchronous CMOS 16 K and 32 K × 36 dual-port static RAMs.
Two ports are provided, permitting independent, simultaneous
access for reads and writes to any location in memory. Registers
on control, address, and data lines allow for minimal set-up and
hold times. In pipelined output mode, data is registered for
decreased cycle time. Clock to data valid tCD2
= 5 ns (pipelined).
Flow-through mode can also be used to bypass the pipelined
output register to eliminate access latency. In flow-through mode
data will be available tCD1
= 12.5 ns after the address is clocked
into the device. Pipelined output or flow-through mode is
selected via the FT/Pipe pin.
Each port contains a burst counter on the input address register.
The internal write pulse width is independent of the external R/W
LOW duration. The internal write pulse is self-timed to allow the
shortest possible cycle times.
A HIGH on CE for one clock cycle will power down the internal
circuitry to reduce the static power consumption. In the pipelined
mode, one cycle is required with CE LOW to reactivate the
outputs.
Counter Enable Inputs are provided to stall the operation of the
address input and utilize the internal address generated by the
internal counter for fast interleaved memory applications. A
port’s burst counter is loaded with the port’s Address Strobe
(ADS). When the port’s Count Enable (CNTEN) is asserted, the
address counter will increment on each LOW-to-HIGH transition
of that port’s clock signal. This will read/write one word from/into
each successive address location until CNTEN is deasserted.
The counter can address the entire memory array and will loop
back to the start. Counter Reset (CNTRST) is used to reset the
burst counter.
Parts are available in 144-pin Thin Quad Plastic Flatpack
(TQFP), 144-pin Pb-free Thin Quad Plastic Flatpack (TQFP) and
172-ball Ball Grid Array (BGA) packages.
The CY7C09569V and CY7C09579V are high-speed 3.3 V
synchronous CMOS 16 K and 32 K × 36 dual-port static RAMs.
Two ports are provided, permitting independent, simultaneous
access for reads and writes to any location in memory. Registers
on control, address, and data lines allow for minimal set-up and
hold times. In pipelined output mode, data is registered for
decreased cycle time. Clock to data valid tCD2
= 5 ns (pipelined).
Flow-through mode can also be used to bypass the pipelined
output register to eliminate access latency. In flow-through mode
data will be available tCD1
= 12.5 ns after the address is clocked
into the device. Pipelined output or flow-through mode is
selected via the FT/Pipe pin.
Each port contains a burst counter on the input address register.
The internal write pulse width is independent of the external R/W
LOW duration. The internal write pulse is self-timed to allow the
shortest possible cycle times.
A HIGH on CE for one clock cycle will power down the internal
circuitry to reduce the static power consumption. In the pipelined
mode, one cycle is required with CE LOW to reactivate the
outputs.
Counter Enable Inputs are provided to stall the operation of the
address input and utilize the internal address generated by the
internal counter for fast interleaved memory applications. A
port’s burst counter is loaded with the port’s Address Strobe
(ADS). When the port’s Count Enable (CNTEN) is asserted, the
address counter will increment on each LOW-to-HIGH transition
of that port’s clock signal. This will read/write one word from/into
each successive address location until CNTEN is deasserted.
The counter can address the entire memory array and will loop
back to the start. Counter Reset (CNTRST) is used to reset the
burst counter.
Parts are available in 144-pin Thin Quad Plastic Flatpack
(TQFP), 144-pin Pb-free Thin Quad Plastic Flatpack (TQFP) and
172-ball Ball Grid Array (BGA) packages.
CY7C0851AV-167BBXC Code Extract
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The FLEx36? family includes 2M, 4M, and 9M pipelined,
synchronous, true dual-port static RAMs that are high-speed,
low-power 3.3 V CMOS. Two ports are provided, permitting
independent, simultaneous access to any location in memory.
The result of writing to the same location by more than one port
at the same time is undefined. Registers on control, address, and
data lines allow for minimal setup and hold time.
During a Read operation, data is registered for decreased cycle
time. Each port contains a burst counter on the input address
register. After externally loading the counter with the initial
address, the counter increments the address internally (more
details to follow). The internal Write pulse width is independent
of the duration of the R/W input signal. The internal Write pulse
is self-timed to allow the shortest possible cycle times.
A HIGH on CE0
or LOW on CE1
for one clock cycle powers down
the internal circuitry to reduce the static power consumption. One
cycle with chip enables asserted is required to reactivate the
outputs.
Additional features include: readback of burst-counter internal
address value on address lines, counter-mask registers to
control the counter wrap-around, counter interrupt (CNTINT)
flags, readback of mask register value on address lines,
retransmit functionality, interrupt flags for message passing,
JTAG for boundary scan, and asynchronous Master Reset
(MRST).
The CY7C0853V/CY7C0853AV device in this family has limited
features. Please see Address Counter and Mask Register
Operations on page 9 for details.
The FLEx36? family includes 2M, 4M, and 9M pipelined,
synchronous, true dual-port static RAMs that are high-speed,
low-power 3.3 V CMOS. Two ports are provided, permitting
independent, simultaneous access to any location in memory.
The result of writing to the same location by more than one port
at the same time is undefined. Registers on control, address, and
data lines allow for minimal setup and hold time.
During a Read operation, data is registered for decreased cycle
time. Each port contains a burst counter on the input address
register. After externally loading the counter with the initial
address, the counter increments the address internally (more
details to follow). The internal Write pulse width is independent
of the duration of the R/W input signal. The internal Write pulse
is self-timed to allow the shortest possible cycle times.
A HIGH on CE0
or LOW on CE1
for one clock cycle powers down
the internal circuitry to reduce the static power consumption. One
cycle with chip enables asserted is required to reactivate the
outputs.
Additional features include: readback of burst-counter internal
address value on address lines, counter-mask registers to
control the counter wrap-around, counter interrupt (CNTINT)
flags, readback of mask register value on address lines,
retransmit functionality, interrupt flags for message passing,
JTAG for boundary scan, and asynchronous Master Reset
(MRST).
The CY7C0853V/CY7C0853AV device in this family has limited
features. Please see Address Counter and Mask Register
Operations on page 9 for details.
CY7C0852AV-133BBI Code Extract
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Features
True dual-ported memory cells that allow simultaneous access
of the same memory location
Synchronous pipelined operation
Organization of 2-Mbit, 4-Mbit, and 9-Mbit devices
Pipelined output mode allows fast operation
0.18-micron Complimentary metal oxide semiconductor
(CMOS) for optimum speed and power
High-speed clock to data access
3.3 V low power
Active as low as 225 mA (typ)
Standby as low as 55 mA (typ)
Mailbox function for message passing
Global master reset
Separate byte enables on both ports
Commercial and industrial temperature ranges
IEEE 1149.1-compatible Joint test action group (JTAG)
boundary scan
172-Ball fine-pitch ball grid array (FBGA) (1 mm pitch)
(15 mm × 15 mm)
176-Pin thin quad plastic flatpack (TQFP)
(24 mm × 24 mm × 1.4 mm)
Counter wrap around control
Internal mask register controls counter wrap-around
Counter-interrupt flags to indicate wrap-around
Memory block retransmit operation
Counter readback on address lines
Mask register readback on address lines
Dual chip enables on both ports for easy depth expansion
Features
True dual-ported memory cells that allow simultaneous access
of the same memory location
Synchronous pipelined operation
Organization of 2-Mbit, 4-Mbit, and 9-Mbit devices
Pipelined output mode allows fast operation
0.18-micron Complimentary metal oxide semiconductor
(CMOS) for optimum speed and power
High-speed clock to data access
3.3 V low power
Active as low as 225 mA (typ)
Standby as low as 55 mA (typ)
Mailbox function for message passing
Global master reset
Separate byte enables on both ports
Commercial and industrial temperature ranges
IEEE 1149.1-compatible Joint test action group (JTAG)
boundary scan
172-Ball fine-pitch ball grid array (FBGA) (1 mm pitch)
(15 mm × 15 mm)
176-Pin thin quad plastic flatpack (TQFP)
(24 mm × 24 mm × 1.4 mm)
Counter wrap around control
Internal mask register controls counter wrap-around
Counter-interrupt flags to indicate wrap-around
Memory block retransmit operation
Counter readback on address lines
Mask register readback on address lines
Dual chip enables on both ports for easy depth expansion
CY7C0853AV-100BBI Code Extract
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The FLEx36? family includes 2M, 4M, and 9M pipelined,
synchronous, true dual-port static RAMs that are high-speed,
low-power 3.3 V CMOS. Two ports are provided, permitting
independent, simultaneous access to any location in memory.
The result of writing to the same location by more than one port
at the same time is undefined. Registers on control, address, and
data lines allow for minimal setup and hold time.
During a Read operation, data is registered for decreased cycle
time. Each port contains a burst counter on the input address
register. After externally loading the counter with the initial
address, the counter increments the address internally (more
details to follow). The internal Write pulse width is independent
of the duration of the R/W input signal. The internal Write pulse
is self-timed to allow the shortest possible cycle times.
A HIGH on CE0
or LOW on CE1
for one clock cycle powers down
the internal circuitry to reduce the static power consumption. One
cycle with chip enables asserted is required to reactivate the
outputs.
Additional features include: readback of burst-counter internal
address value on address lines, counter-mask registers to
control the counter wrap-around, counter interrupt (CNTINT)
flags, readback of mask register value on address lines,
retransmit functionality, interrupt flags for message passing,
JTAG for boundary scan, and asynchronous Master Reset
(MRST).
The CY7C0853V/CY7C0853AV device in this family has limited
features. Please see Address Counter and Mask Register
Operations on page 9 for details.
The FLEx36? family includes 2M, 4M, and 9M pipelined,
synchronous, true dual-port static RAMs that are high-speed,
low-power 3.3 V CMOS. Two ports are provided, permitting
independent, simultaneous access to any location in memory.
The result of writing to the same location by more than one port
at the same time is undefined. Registers on control, address, and
data lines allow for minimal setup and hold time.
During a Read operation, data is registered for decreased cycle
time. Each port contains a burst counter on the input address
register. After externally loading the counter with the initial
address, the counter increments the address internally (more
details to follow). The internal Write pulse width is independent
of the duration of the R/W input signal. The internal Write pulse
is self-timed to allow the shortest possible cycle times.
A HIGH on CE0
or LOW on CE1
for one clock cycle powers down
the internal circuitry to reduce the static power consumption. One
cycle with chip enables asserted is required to reactivate the
outputs.
Additional features include: readback of burst-counter internal
address value on address lines, counter-mask registers to
control the counter wrap-around, counter interrupt (CNTINT)
flags, readback of mask register value on address lines,
retransmit functionality, interrupt flags for message passing,
JTAG for boundary scan, and asynchronous Master Reset
(MRST).
The CY7C0853V/CY7C0853AV device in this family has limited
features. Please see Address Counter and Mask Register
Operations on page 9 for details.
CY7C09089V-12AXI Code Extract
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Features
True Dual-Ported memory cells which enable simultaneous
access of the same memory location
Flow-through and Pipelined devices
32 K × 9 organizations (CY7C09179V)
64 K × 8 organizations (CY7C09089V)
128 K × 8/9 organizations (CY7C09099V/199V)
3 Modes
Flow-through
Pipelined
Burst
Pipelined output mode on both ports enables fast 100 MHz
operation
0.35-micron CMOS for optimum speed and power
High speed clock to data access 6.5
[1]
/7.5
[1]
/9/12 ns (max.)
3.3 V low operating power
Active = 115 mA (typical)
Standby = 10 ?A (typical)
Fully synchronous interface for easier operation
Burst counters increment addresses internally
Shorten cycle times
Minimize bus noise
Supported in Flow-through and Pipelined modes
Dual Chip Enables for easy depth expansion Automatic power down
Commercial and Industrial temperature ranges
Available in 100-pin TQFP
Pb-free packages available
Features
True Dual-Ported memory cells which enable simultaneous
access of the same memory location
Flow-through and Pipelined devices
32 K × 9 organizations (CY7C09179V)
64 K × 8 organizations (CY7C09089V)
128 K × 8/9 organizations (CY7C09099V/199V)
3 Modes
Flow-through
Pipelined
Burst
Pipelined output mode on both ports enables fast 100 MHz
operation
0.35-micron CMOS for optimum speed and power
High speed clock to data access 6.5
[1]
/7.5
[1]
/9/12 ns (max.)
3.3 V low operating power
Active = 115 mA (typical)
Standby = 10 ?A (typical)
Fully synchronous interface for easier operation
Burst counters increment addresses internally
Shorten cycle times
Minimize bus noise
Supported in Flow-through and Pipelined modes
Dual Chip Enables for easy depth expansion Automatic power down
Commercial and Industrial temperature ranges
Available in 100-pin TQFP
Pb-free packages available
Wednesday, October 10, 2012
M32C/80 Renesas series chip decryption
M32C/80 Renesas series chip decryption, code extraction,
programm reading.
The M32C/80 is based on the M32C/80 CPU Core and has 16MB of
address space.Maximum operating frequency is 32MHz. A ROM-less
programm reading.
The M32C/80 is based on the M32C/80 CPU Core and has 16MB of
address space.Maximum operating frequency is 32MHz. A ROM-less
M32C/80 Key Features
Key Features:
16-bit Multifunction Timer (Timer A and B, incl. 3-phase
inverter motorcontrol function): 11 channels
Clock Synchronous / Asynchronous Serial Interface: 5 channels
10-bit A/D Converter: 10 channels
8-bit D/A Converter: 2
DMAC: 4 channels
DMAC II: Can be activated by all peripheral function interrupt
factors
Intelligent I/O
Communication Function: 2 channels
CRC Calculation Circuit
X/Y Converter
Watchdog Timer
Clock Generation Circuits: Main Clock Generation Circuit, Sub
ClockGeneration Circuit, On-chip Oscillator, PLL Synthesizer
Oscillation Stop Detection Function
I/O Ports: 47
External Interrupt Pins: 11
16-bit Multifunction Timer (Timer A and B, incl. 3-phase
inverter motorcontrol function): 11 channels
Clock Synchronous / Asynchronous Serial Interface: 5 channels
10-bit A/D Converter: 10 channels
8-bit D/A Converter: 2
DMAC: 4 channels
DMAC II: Can be activated by all peripheral function interrupt
factors
Intelligent I/O
Communication Function: 2 channels
CRC Calculation Circuit
X/Y Converter
Watchdog Timer
Clock Generation Circuits: Main Clock Generation Circuit, Sub
ClockGeneration Circuit, On-chip Oscillator, PLL Synthesizer
Oscillation Stop Detection Function
I/O Ports: 47
External Interrupt Pins: 11
Key Applications
M32C/80 Key Applications:
Audio, Cameras, Office Equipment, Communication/Portable Devices
M30800SAFP M30800SAFP-BL M30800SAGP M30800SAGP-BL
M32C/80 Renesas series chip decryption
M32C/80 Renesas series chip decryption, code extraction,
programm reading.
The M32C/80 is based on the M32C/80 CPU Core and has 16MB of
address space.Maximum operating frequency is 32MHz. A ROM-less
Version is available.
Key Features:
16-bit Multifunction Timer (Timer A and B, incl. 3-phase
inverter motorcontrol function): 11 channels
Clock Synchronous / Asynchronous Serial Interface: 5 channels
10-bit A/D Converter: 10 channels
8-bit D/A Converter: 2
DMAC: 4 channels
DMAC II: Can be activated by all peripheral function interrupt
factors
Intelligent I/O
Communication Function: 2 channels
CRC Calculation Circuit
X/Y Converter
Watchdog Timer
Clock Generation Circuits: Main Clock Generation Circuit, Sub
ClockGeneration Circuit, On-chip Oscillator, PLL Synthesizer
Oscillation Stop Detection Function
I/O Ports: 47
External Interrupt Pins: 11
Key Applications:
Audio, Cameras, Office Equipment, Communication/Portable Devices
M30800SAFP M30800SAFP-BL M30800SAGP M30800SAGP-BL
programm reading.
The M32C/80 is based on the M32C/80 CPU Core and has 16MB of
address space.Maximum operating frequency is 32MHz. A ROM-less
Version is available.
Key Features:
16-bit Multifunction Timer (Timer A and B, incl. 3-phase
inverter motorcontrol function): 11 channels
Clock Synchronous / Asynchronous Serial Interface: 5 channels
10-bit A/D Converter: 10 channels
8-bit D/A Converter: 2
DMAC: 4 channels
DMAC II: Can be activated by all peripheral function interrupt
factors
Intelligent I/O
Communication Function: 2 channels
CRC Calculation Circuit
X/Y Converter
Watchdog Timer
Clock Generation Circuits: Main Clock Generation Circuit, Sub
ClockGeneration Circuit, On-chip Oscillator, PLL Synthesizer
Oscillation Stop Detection Function
I/O Ports: 47
External Interrupt Pins: 11
Key Applications:
Audio, Cameras, Office Equipment, Communication/Portable Devices
M30800SAFP M30800SAFP-BL M30800SAGP M30800SAGP-BL
M32C/83 Key Applications
M32C/83 Key Applications:
Automobiles, Audio, Cameras, Office Equipment,
Communication/PortableDevices
M30833FJFP M30833FJGP M30835FJGP
M32C/83 chip decryption
M32C/83 Renesas series chip decryption, code extraction,
programm reading.
The M32C/83 is based on the M32C/80 CPU Core and has 16MB of
address space.Maximum operating frequency is 32MHz. A Flash
Memory Version is available.Internal Flash Memory is
programmable on a single power source.
Key Features:
16-bit Multifunction Timer (Timer A and B, incl. 3-phase
inverter motorcontrol function): 11 channels
Clock Synchronous / Asynchronous Serial Interface: 5 channels
10-bit A/D Converter: 2 circuits, 34 channels*
8-bit D/A Converter: 2
DMAC: 4 channels
DMAC II: Can be activated by all peripheral function interrupt
factors
DRAMC
Intelligent I/O
Time Measurement (Input Capture) Function: 16-bit x 12 channels*
Waveform Generating (Output Compare) Function: 16-bit x 28
channels*
Communication Function
2-phase Pulse Signal Processing (2-phase encoder input)
CAN: 1 channel (2.0B)
CRC Calculation Circuit
X/Y Converter
Watchdog Timer
Clock Generation Circuits: Main Clock Generation Circuit, Sub
ClockGeneration Circuit, On-chip Oscillator, PLL Synthesizer
Oscillation Stop Detection Function
I/O Ports: 123*
External Interrupt Pins: 11
*: Spec of 144-pin version.
Key Applications:
Automobiles, Audio, Cameras, Office Equipment,
Communication/PortableDevices
M30833FJFP M30833FJGP M30835FJGP
programm reading.
The M32C/83 is based on the M32C/80 CPU Core and has 16MB of
address space.Maximum operating frequency is 32MHz. A Flash
Memory Version is available.Internal Flash Memory is
programmable on a single power source.
Key Features:
16-bit Multifunction Timer (Timer A and B, incl. 3-phase
inverter motorcontrol function): 11 channels
Clock Synchronous / Asynchronous Serial Interface: 5 channels
10-bit A/D Converter: 2 circuits, 34 channels*
8-bit D/A Converter: 2
DMAC: 4 channels
DMAC II: Can be activated by all peripheral function interrupt
factors
DRAMC
Intelligent I/O
Time Measurement (Input Capture) Function: 16-bit x 12 channels*
Waveform Generating (Output Compare) Function: 16-bit x 28
channels*
Communication Function
2-phase Pulse Signal Processing (2-phase encoder input)
CAN: 1 channel (2.0B)
CRC Calculation Circuit
X/Y Converter
Watchdog Timer
Clock Generation Circuits: Main Clock Generation Circuit, Sub
ClockGeneration Circuit, On-chip Oscillator, PLL Synthesizer
Oscillation Stop Detection Function
I/O Ports: 123*
External Interrupt Pins: 11
*: Spec of 144-pin version.
Key Applications:
Automobiles, Audio, Cameras, Office Equipment,
Communication/PortableDevices
M30833FJFP M30833FJGP M30835FJGP
Tuesday, September 18, 2012
PIC12F683 MCU Code Extraction
PIC12F683 MCU Code Extraction, Microcontroller
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
256 bytes of EEPROM data memory
Extended WDT
MPLAB® ICD-2 programming support or debugging support with optional header adapter
Precision internal oscillator – software selectable 8 MHz – 32 KHz.
nanoWatt Technology
Software selectable BOR
The Low Pin-count (8) PIC® Flash microcontroller products offer all of the advantages of the well recognized mid-range x14 architecture with standardized features including a wide operating voltage of 2.0-5.5 volts, on-board EEPROM Data Memory, and nanoWatt Technology. Standard analog peripherals include up to 4 channels of 10-bit A/D, an analog comparator module with a single comparator, programmable on-chip voltage reference and a Standard Capture/Compare/PWM (CCP) module.
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
256 bytes of EEPROM data memory
Extended WDT
MPLAB® ICD-2 programming support or debugging support with optional header adapter
Precision internal oscillator – software selectable 8 MHz – 32 KHz.
nanoWatt Technology
Software selectable BOR
The Low Pin-count (8) PIC® Flash microcontroller products offer all of the advantages of the well recognized mid-range x14 architecture with standardized features including a wide operating voltage of 2.0-5.5 volts, on-board EEPROM Data Memory, and nanoWatt Technology. Standard analog peripherals include up to 4 channels of 10-bit A/D, an analog comparator module with a single comparator, programmable on-chip voltage reference and a Standard Capture/Compare/PWM (CCP) module.
PIC12F635 MCU Code Extraction
PIC12F635 MCU Code Extraction, Microcontroller
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
KEELOQ® ,PLVD, 128 bytes of EEPROM data memory MPLAB® ICD-2 programming support or debugging support with optional header adapter 8 MHz Internal oscillator software programmable.
This powerful yet easy-to-program (only 35 single word instructions) CMOS Flash-based 8-bit microcontroller packs Microchip’s powerful PIC® MCU architecture and features such as KeeLoq® compatible Cryptographic Module, PLVD, 1 comparator and 128 bytes of EEPROM data memory into an 8-pin package. This device is easily adapted for automotive, industrial, appliance or consumer product applications that require field re-programmability combined with authentication security. In addition, Microchip’s nanoWatt technology provides outstanding low power performance for optimizing battery powered applications.
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
KEELOQ® ,PLVD, 128 bytes of EEPROM data memory MPLAB® ICD-2 programming support or debugging support with optional header adapter 8 MHz Internal oscillator software programmable.
This powerful yet easy-to-program (only 35 single word instructions) CMOS Flash-based 8-bit microcontroller packs Microchip’s powerful PIC® MCU architecture and features such as KeeLoq® compatible Cryptographic Module, PLVD, 1 comparator and 128 bytes of EEPROM data memory into an 8-pin package. This device is easily adapted for automotive, industrial, appliance or consumer product applications that require field re-programmability combined with authentication security. In addition, Microchip’s nanoWatt technology provides outstanding low power performance for optimizing battery powered applications.
PIC12F1840 MCU Code Extraction
PIC12F1840 MCU Code Extraction, Microcontroller
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Enhanced Mid-range Core with 49 Instruction, 16 Stack Levels
Flash Program Memory with self read/write capability
Internal 32MHz oscillator
Integrated Capacitive mTouch Sensing Module
Data Signal Modulator Module
MI2C, SPI, EUSART w/auto baud
ECCP (Enhanced/Capture Compare PWM) Module
Comparator with selectable Voltage Reference
4 Channel 10b ADC with Voltage Reference
25mA Source/Sink current I/O
Two 8-bit Timers (TMR0/TMR2)
One 16-bit Timer (TMR1)
Extended Watchdog Timer (EWDT)
Enhanced Power-On/Off-Reset
Brown-Out Reset (BOR)
In Circuit Serial Programming (ICSP)
On Board In-Circuit Debug
Wide Operating Voltage (1.8V – 5.5V)
Low Power PIC12LF182x variants (1.8V – 3.6V)
Standby Current (PIC12LF1840): 20 nA @ 1.8V, typical
Active Current (PIC12LF1840): 50uA/MHz @ 1.8V, typical
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Enhanced Mid-range Core with 49 Instruction, 16 Stack Levels
Flash Program Memory with self read/write capability
Internal 32MHz oscillator
Integrated Capacitive mTouch Sensing Module
Data Signal Modulator Module
MI2C, SPI, EUSART w/auto baud
ECCP (Enhanced/Capture Compare PWM) Module
Comparator with selectable Voltage Reference
4 Channel 10b ADC with Voltage Reference
25mA Source/Sink current I/O
Two 8-bit Timers (TMR0/TMR2)
One 16-bit Timer (TMR1)
Extended Watchdog Timer (EWDT)
Enhanced Power-On/Off-Reset
Brown-Out Reset (BOR)
In Circuit Serial Programming (ICSP)
On Board In-Circuit Debug
Wide Operating Voltage (1.8V – 5.5V)
Low Power PIC12LF182x variants (1.8V – 3.6V)
Standby Current (PIC12LF1840): 20 nA @ 1.8V, typical
Active Current (PIC12LF1840): 50uA/MHz @ 1.8V, typical
PIC12F675 MCU Code Extraction
PIC12F675 MCU Code Extraction, Microcontroller
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
This powerful (200 nanosecond instruction execution) yet easy-to-program (only 35 single word instructions) CMOS Flash-based 8-bit microcontroller packs Microchip’s powerful PIC® MCU architecture into an 8-pin package and features 4 channels for the10-bit Analog-to-Digital (A/D) converter, 1 channel comparator and 128 bytes of EEPROM data memory. This device is easily adapted for automotive, industrial, appliances and consumer entry-level product applications that require field re-programmability.
Features
128 bytes of EEPROM data memory, Programmable pull-up resistors, MPLAB® ICD-2 programming support or debugging support with optional header adapter, 4 oscillator selections including 4 MHz RC oscillator with programmable calibration and Power-On Reset.
PIC12F1822 MCU Code Extraction
PIC12F1822 MCU Code Extraction, Microcontroller
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
Features
Enhanced Mid-range Core with 49 Instruction, 16 Stack Levels
Flash Program Memory with self read/write capability
Internal 32MHz oscillator
Integrated Capacitive mTouch Sensing Module
Data Signal Modulator Module
MI2C, SPI, EUSART w/auto baud
ECCP (Enhanced/Capture Compare PWM) Module
Comparator with selectable Voltage Reference
4 Channel 10b ADC with Voltage Reference
25mA Source/Sink current I/O
Two 8-bit Timers (TMR0/TMR2)
One 16-bit Timer (TMR1)
Extended Watchdog Timer (EWDT)
Enhanced Power-On/Off-Reset
Brown-Out Reset (BOR)
In Circuit Serial Programming (ICSP)
On Board In-Circuit Debug
Wide Operating Voltage (1.8V – 5.5V)
Low Power PIC12LF182x variants (1.8V – 3.6V)
Standby Current (PIC12LF182X): 20 nA @ 1.8V, typical
Active Current(PIC12LF1822): 50 uA/MHz @ 1.8V, typical
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
Features
Enhanced Mid-range Core with 49 Instruction, 16 Stack Levels
Flash Program Memory with self read/write capability
Internal 32MHz oscillator
Integrated Capacitive mTouch Sensing Module
Data Signal Modulator Module
MI2C, SPI, EUSART w/auto baud
ECCP (Enhanced/Capture Compare PWM) Module
Comparator with selectable Voltage Reference
4 Channel 10b ADC with Voltage Reference
25mA Source/Sink current I/O
Two 8-bit Timers (TMR0/TMR2)
One 16-bit Timer (TMR1)
Extended Watchdog Timer (EWDT)
Enhanced Power-On/Off-Reset
Brown-Out Reset (BOR)
In Circuit Serial Programming (ICSP)
On Board In-Circuit Debug
Wide Operating Voltage (1.8V – 5.5V)
Low Power PIC12LF182x variants (1.8V – 3.6V)
Standby Current (PIC12LF182X): 20 nA @ 1.8V, typical
Active Current(PIC12LF1822): 50 uA/MHz @ 1.8V, typical
PIC12F629 MCU Code Extraction
PIC12F629 MCU Code Extraction, Microcontroller
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
This powerful (200 nanosecond instruction execution) yet easy-
to-program (only 35 single word instructions) CMOS Flash-based
8-bit microcontroller packs Microchip’s powerful PIC® MCU
architecture into an 8-pin package and features 1 channel
comparator and 128 bytes of EEPROM data memory. This device is
easily adapted for automotive, industrial, appliances and
consumer entry-level product applications that require field re
-programmability.
128 bytes of EEPROM data memory, Programmable pull-up resistors,
MPLAB® ICD-2 programming support or debugging support with
optional header adapter, 4 oscillator selections including 4 MHz
RC oscillator with programmable calibration and Power-On Reset.
Decryption,Microchip Pic MCU code extraction, Microchip reverse
engineering, Microchip chip crack. Microchip chip reverse.
Features
This powerful (200 nanosecond instruction execution) yet easy-
to-program (only 35 single word instructions) CMOS Flash-based
8-bit microcontroller packs Microchip’s powerful PIC® MCU
architecture into an 8-pin package and features 1 channel
comparator and 128 bytes of EEPROM data memory. This device is
easily adapted for automotive, industrial, appliances and
consumer entry-level product applications that require field re
-programmability.
128 bytes of EEPROM data memory, Programmable pull-up resistors,
MPLAB® ICD-2 programming support or debugging support with
optional header adapter, 4 oscillator selections including 4 MHz
RC oscillator with programmable calibration and Power-On Reset.
Wednesday, September 12, 2012
Tuesday, September 11, 2012
ATxmega256A3 MCU code extraction
ATxmega256A3 MCU code extraction, Chip decryption, MCU code extraction,Atmel IC reverse, atmel DSP Crack, PCB cloning ,PCB copying.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-Byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system, and up to 32 MIPS throughput at 32MHz. The ATxmega A3 series features 64-pin packages.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-Byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system, and up to 32 MIPS throughput at 32MHz. The ATxmega A3 series features 64-pin packages.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices.
ATxmega256A3B MCU code extraction
ATxmega256A3B MCU code extraction, Chip decryption, MCU code extraction,Atmel IC reverse, atmel DSP Crack, PCB cloning ,PCB copying.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system. It also includes dual 12-bit ADC, 2 12-bit DAC channels, 4 analog comparators, AES and DES crypto engines, 7 16-bit timer/counters, 6 USART, 2 SPI, and 2 TWIs, RTC battery backup system, 4-channel DMA controller, and 8-channel event system.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices. This ATxmega series features 64-pin packages.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system. It also includes dual 12-bit ADC, 2 12-bit DAC channels, 4 analog comparators, AES and DES crypto engines, 7 16-bit timer/counters, 6 USART, 2 SPI, and 2 TWIs, RTC battery backup system, 4-channel DMA controller, and 8-channel event system.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices. This ATxmega series features 64-pin packages.
ATxmega256A3BU MCU code extraction
ATxmega256A3BU MCU code extraction, Chip decryption, MCU code extraction,Atmel IC reverse, atmel DSP Crack, PCB cloning ,PCB copying.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system. It also includes dual 12-bit ADC, 2 12-bit DAC channels, 4 analog comparators, AES and DES crypto engines, 7 16-bit timer/counters, 6 USART, 2 SPI, and 2 TWIs, RTC battery backup system, 4-channel DMA controller, and 8-channel event system.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices. This ATxmega series features 64-pin packages.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system. It also includes dual 12-bit ADC, 2 12-bit DAC channels, 4 analog comparators, AES and DES crypto engines, 7 16-bit timer/counters, 6 USART, 2 SPI, and 2 TWIs, RTC battery backup system, 4-channel DMA controller, and 8-channel event system.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices. This ATxmega series features 64-pin packages.
ATxmega256A3U MCU code extraction
ATxmega256A3U MCU code extraction, Chip decryption, MCU code extraction,Atmel IC reverse, atmel DSP Crack, PCB cloning ,PCB copying.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-Byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system, and up to 32 MIPS throughput at 32MHz. The ATxmega A3 series features 64-pin packages.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices.
Low power, high performance 8/16-bit AVR microcontroller featuring 256KB self-programming flash program memory, 8KB boot code section, 16KB SRAM, 4096-Byte EEPROM, external bus interface, 4-channel DMA controller, 8-channel event system, and up to 32 MIPS throughput at 32MHz. The ATxmega A3 series features 64-pin packages.
The device can be used in a wide range of applications, such as building, industrial, motor, board, and climate control; hand-held battery applications; factory automation; power tools; HVAC; networking, metering, large home appliances, and optical and medical devices.
ATxmega256C3 MCU code extraction
ATxmega256C3 MCU code extraction, Chip decryption, MCU code extraction,Atmel IC reverse, atmel DSP Crack, PCB cloning ,PCB copying.
The high-performance, low-power 8/16-bit AVR XMEGA microcontroller combines 256KB in-system programmable flash memory (8KB boot code section) with read-while-write capabilities, 4KB EEPROM, 16KB SRAM, a four-channel event system, a programmable multi-level interrupt controller, 50 general purpose I/O lines, a 16-bit real time counter, five flexible 16-bit timer/counters with capture, compare and PWM channels, USB Full-speed Device, three USARTs, two two-wire interfaces, two serial peripheral interfaces, one 16-channel/12-bit ADC with programmable gain, two analog comparators with window mode, a programmable watchdog timer with separate internal oscillator, accurate internal oscillators with PLL and prescaler, and a programmable brown-out detection.
ATxmega256D3 MCU code extraction
ATxmega256D3 MCU code extraction, Chip decryption, MCU code extraction,Atmel IC reverse, atmel DSP Crack, PCB cloning ,PCB copying.
The high-performance, low-power 8/16-bit AVR XMEGA microcontroller combines 256KB ISP flash memory (8KB boot code section) with read-while-write capabilities, 4KB EEPROM, 16KB SRAM, a four-channel event system, a programmable multi-level interrupt controller, 50 general purpose I/O lines, a 16-bit real time counter, five flexible 16-bit timer/counters with compare modes and PWM, three USARTs, two 2-wire interfaces, two serial peripheral interfaces, one 16-channel/12-bit A/D converter with optional differential input with programmable gain, two analog comparators with window mode, a programmable watchdog timer with separate internal oscillator, accurate internal oscillators with PLL and prescaler, and a programmable brown-out detection. The Program and Debug Interface (PDI), a fast 2-pin interface for programming and debugging, is available. By executing powerful instructions in a single clock cycle, the device achieves throughputs approaching 1 MIPS per MHz, balancing power consumption and processing speed.
Wednesday, August 29, 2012
MPC89E54 Crack
STC's STC89 and STC12 series are produced by Megawin, pasted and sold by Shenzhen Hongjing. The Megawin's MPC89E series microcontrollers can be completely compatible instead of STC89 Series MCU, MPC82 series of microcontrollers can be fully compatible instead of STC12 Series MCU, which means you can replace the STC MCU.We offer the full range of Megawin MCU crack service.
MPCseries
MPC89E51 MPC89E52 MPC89E53 MPC89E54 MPC89E58 MPC89E515
MPC89LE51 MPC89LE52 MPC89LE53 MPC89LE54 MPC89LE58 MPC89LE515
MPC82E52 MPC82E54 MPC82LE52 MPC82LE54
MPCseries
MPC89E51 MPC89E52 MPC89E53 MPC89E54 MPC89E58 MPC89E515
MPC89LE51 MPC89LE52 MPC89LE53 MPC89LE54 MPC89LE58 MPC89LE515
MPC82E52 MPC82E54 MPC82LE52 MPC82LE54
Wednesday, August 15, 2012
TMS320 DSP Standard Interface for Negotiating DMA Resources
TMS320 DSP Standard Interface for Negotiating DMA Resources
TMS320 DSP Algorithm Standard (xDAIS) compliant algorithms designed for the ‘C64x+ EDMA3 controller must implement the IDMA3 interface to publish and acquire DMA resources they will use. The application framework DMA Resource Manager (DMAN3 is one reference implementation provided by the Framework Components) calls IDMA3 interface functions to query and subsequently allocate and grant the requested DMA resources. The IDMA3 interface is similar to the xDAIS IDMA2 interface in terms of its definition and role. IDMA3 introduces the notion of a logical DMA channels abstraction via a handle similar to that used in IDMA2.
DMA Transfer Configuration Settings
DMA Transfer Configuration Settings
The purpose of acquiring logical channel handles is to submit DMA transfer requests. Each submitted DMA transfer request specifies a source and destination memory region. A background DMA activity asynchronously carries out the copying of the contents of the source memory region to the destination.
The configuration setting of a logical channel is similar to the hardware register settings of the underlying EDMA3.0 hardware DMA device. However, each logical channel retains its configured DMA transfer settings. The most recently configured transfer settings at the time the ACPY3_start function is called apply to the asynchronously started DMA transfer.
Two properties of DMA transfers make them desirable and performance critical for algorithms:
The physical transfer/copy operation takes place in the “background” under the close control of specialized circuitry and controllers. This allows algorithms to issue transfer requests in advance and to perform other useful operations while data is being copied in the background.
The physical layout of source or destination DMA transfer blocks need not be a single contiguous chunk of memory. By setting a few channel configuration parameters, algorithms can specify complex layout patterns. This can lead to significant performance improvements even if the algorithm cannot take advantage of asynchronous execution and the CPU sits idle while waiting for the transfer to complete.
The unit of DMA transfer is a block composed of frames and elements. Each DMA transfer is submitted on a logical channel via the ACPY3_start function. The source and destination addresses for the blocks and the number of elements in each frame are now part of the channel’s configuration settings. The configuration parameters are intrinsic properties of each logical channel and are set exclusively when the algorithm calls ACPY3 configuration functions. The previously configured properties of each logical channel at the time of an ACPY3_start request determine the actual memory copied from source to destination. Each DMA transfer is characterized by the following list configurable attributes. (Figure 2 illustrates the memory layout of a DMA transfer block characterized by these configuration parameters). Note that the element and frame index parameters can be configured independently for both source and destination.
transferType. 1D-to-1D, 1D-to-2D, 2D-to-1D or 2D-to-2D
elementSize. The number of 8-bit bytes per element. The element size for ACPY3 transfers can be a variable number, 1 <= number <= 65535, whereas the IDMA2/ACPY2 specification required this to be either 1,2, or 4.
numFrames. The number of frames in a block, 1 <= number <= 65535.
SrcElementIndex and DstElementIndex. The offset in 8-bit bytes between the start addresses of two consecutive elements in a frame. Element indexes must be specified only when the source or destination is a 2D transfer. They are ignored for 1D transfers. Element indexes can be signed (i.e. negative) values in the range: -32767 <= number <= 32768.
SrcFrameIndex and DstFrameIndex 1. The offset in 8-bit bytes between the start addresses of the first elements of two consecutive frames. (NOTE: This corresponds to the AB-synched SRC/DST CIDX settings in the EDMA3.0 DMA parameters.) Frame indexes must be specified only when the number of frames > 1, otherwise they are ignored. Frame indexes can be signed (negative or positive) values in the range: -32767 <= number <= 32768.
numElements. The number of elements per frame, 1 <= number <= 65535.
srcAddr and dstAddr. 8-bit byte-addresses.
The purpose of acquiring logical channel handles is to submit DMA transfer requests. Each submitted DMA transfer request specifies a source and destination memory region. A background DMA activity asynchronously carries out the copying of the contents of the source memory region to the destination.
The configuration setting of a logical channel is similar to the hardware register settings of the underlying EDMA3.0 hardware DMA device. However, each logical channel retains its configured DMA transfer settings. The most recently configured transfer settings at the time the ACPY3_start function is called apply to the asynchronously started DMA transfer.
Two properties of DMA transfers make them desirable and performance critical for algorithms:
The physical transfer/copy operation takes place in the “background” under the close control of specialized circuitry and controllers. This allows algorithms to issue transfer requests in advance and to perform other useful operations while data is being copied in the background.
The physical layout of source or destination DMA transfer blocks need not be a single contiguous chunk of memory. By setting a few channel configuration parameters, algorithms can specify complex layout patterns. This can lead to significant performance improvements even if the algorithm cannot take advantage of asynchronous execution and the CPU sits idle while waiting for the transfer to complete.
The unit of DMA transfer is a block composed of frames and elements. Each DMA transfer is submitted on a logical channel via the ACPY3_start function. The source and destination addresses for the blocks and the number of elements in each frame are now part of the channel’s configuration settings. The configuration parameters are intrinsic properties of each logical channel and are set exclusively when the algorithm calls ACPY3 configuration functions. The previously configured properties of each logical channel at the time of an ACPY3_start request determine the actual memory copied from source to destination. Each DMA transfer is characterized by the following list configurable attributes. (Figure 2 illustrates the memory layout of a DMA transfer block characterized by these configuration parameters). Note that the element and frame index parameters can be configured independently for both source and destination.
transferType. 1D-to-1D, 1D-to-2D, 2D-to-1D or 2D-to-2D
elementSize. The number of 8-bit bytes per element. The element size for ACPY3 transfers can be a variable number, 1 <= number <= 65535, whereas the IDMA2/ACPY2 specification required this to be either 1,2, or 4.
numFrames. The number of frames in a block, 1 <= number <= 65535.
SrcElementIndex and DstElementIndex. The offset in 8-bit bytes between the start addresses of two consecutive elements in a frame. Element indexes must be specified only when the source or destination is a 2D transfer. They are ignored for 1D transfers. Element indexes can be signed (i.e. negative) values in the range: -32767 <= number <= 32768.
SrcFrameIndex and DstFrameIndex 1. The offset in 8-bit bytes between the start addresses of the first elements of two consecutive frames. (NOTE: This corresponds to the AB-synched SRC/DST CIDX settings in the EDMA3.0 DMA parameters.) Frame indexes must be specified only when the number of frames > 1, otherwise they are ignored. Frame indexes can be signed (negative or positive) values in the range: -32767 <= number <= 32768.
numElements. The number of elements per frame, 1 <= number <= 65535.
srcAddr and dstAddr. 8-bit byte-addresses.
Channel Privacy and Synchronization
Channel Privacy and Synchronization
Algorithms have exclusive ownership of each received logical channel and can operate safely without fear of external components (such as other algorithms or other system code) accessing the channel and issuing transfer requests or changing channel configuration settings. They must, however, follow the ACPY3 API to activate and deactivate each IDMA3 channel during instance activation and deactivation, respectively.
All synchronization calls are issued on a per channel basis, as opposed to a per transfer basis. An algorithm can issue either a blocking wait, or a non-blocking query call to synchronize with a logical channel’s completion status.
Algorithms have exclusive ownership of each received logical channel and can operate safely without fear of external components (such as other algorithms or other system code) accessing the channel and issuing transfer requests or changing channel configuration settings. They must, however, follow the ACPY3 API to activate and deactivate each IDMA3 channel during instance activation and deactivation, respectively.
All synchronization calls are issued on a per channel basis, as opposed to a per transfer basis. An algorithm can issue either a blocking wait, or a non-blocking query call to synchronize with a logical channel’s completion status.
Tuesday, August 14, 2012
DSP chip’s important significance in our life
DSP chip’s important significance in our life
DSP also called digital siganal processor, it is a special structure of the microprocessor. The interior of DSP used the Harvard architecture that progarm and data separated, with special hardware multiplier, widely used in line operation, provide special DSP instructions, can be used to quickly achieve all kinds of digital siganl processing algorithms.
The modern science and technology product "heart" is chip, the DSP and the CPU is the two core technologies in the chip industry, the DSP for digital diganl processing, the CPU for computing capabilities.
DSP chip was widely used in many applications, such as the siganl processing, image processing, instrments, audio language, control, military, communication, medical, applicances.
Because DSP has great significance in our life, the decryption is needed in our life, we can crack all the series of DSP, If you have this need, please contact techip688@gmail.com or visit www.dspcrack.com.
Tags: DSP crack, DSP break, DSP reverse, MCU crack, MCU reverse, MCU attack, microcontroller, chip, semiconductor, IC break, PCB clone
DSP also called digital siganal processor, it is a special structure of the microprocessor. The interior of DSP used the Harvard architecture that progarm and data separated, with special hardware multiplier, widely used in line operation, provide special DSP instructions, can be used to quickly achieve all kinds of digital siganl processing algorithms.
The modern science and technology product "heart" is chip, the DSP and the CPU is the two core technologies in the chip industry, the DSP for digital diganl processing, the CPU for computing capabilities.
DSP chip was widely used in many applications, such as the siganl processing, image processing, instrments, audio language, control, military, communication, medical, applicances.
Because DSP has great significance in our life, the decryption is needed in our life, we can crack all the series of DSP, If you have this need, please contact techip688@gmail.com or visit www.dspcrack.com.
Tags: DSP crack, DSP break, DSP reverse, MCU crack, MCU reverse, MCU attack, microcontroller, chip, semiconductor, IC break, PCB clone
R8C family series MCU crack R5F212A crack
R8C family is a kind of 16-bit CISC MCU with high ROM effciency, low noise, low power consumption and high processing performance. Because it's rich timer function and various serial communication function built-in peripheral functions, the R8C Family apply to multiple applications. Mainly used in automotive electronics, audio equipment, home appliances, housing equipment (sensors, security systems), office equipment, industrial equipment.
R5F1006 R5F1007 R5F1008 R5F100A R5F100B R5F100C R5F100E R5F100F R5F100G R5F100J R5F100L R5F100M, R5F100P R5F100P R5F100S
R5F21102 R5F21103 R5F21104 R5F21112 R5F2113 R5F2114 R5F21122 R5F21123 R5F21133 R5F21134 R5F21142 R5F21143 R5F21144 R5F21152 R5F21153 R5F21162 R5F21163 R5F21164 R5F21172 R5F21174 R5F21206 R5F21207 R5F21208 R5F2120A R5F2120C R5F21216 R5F21218 R5F2121A R5F2121C R5F2121J R5F21227 R5F21228 R5F2122A R5F2122C R5F21236 R5F21237 R5F21238 R5F2123A R5F2123C R5F21244 R5F21245 R5F21246 R5F21247 R5F21248 R5F21254 R5F21256 R5F21257 R5F21258 R5F21262 R5F21264 R5F21265 R5F21266 R5F21272 R5F21274 R5F21275 R5F21276 R5F21282 R5F21284 R5F21292 R5F21294 R5F212A7 R5F212A8 R5F212AA R5F212B R5F212D R5F212H R5F212J R5F212K R5F212L
R5F21346 R5F21356 R5F21358 R5F2L367 R5F2L368 R5F2L387 R5F2L3A7
R5F363A R5F364 R5F3650 R5F562T R5F615 R5F61653 R5F6172 R5F64110 R5F6411 R5F6175 R5F6179 R5F6185 R5F6460
We can't all listed due to the variety of the R8C family model. More informaiton about R8C MCU crack, please contact sichip888@hotmail.com or visit http://www.dspcrack.com/. We provide whole R5F series MCU crack.
Tags: R8C family crack, R5F series MCU break, MCU reverse, IC attack, IC break, DSP crack, DSP break, CPLD decryption
R5F1006 R5F1007 R5F1008 R5F100A R5F100B R5F100C R5F100E R5F100F R5F100G R5F100J R5F100L R5F100M, R5F100P R5F100P R5F100S
R5F21102 R5F21103 R5F21104 R5F21112 R5F2113 R5F2114 R5F21122 R5F21123 R5F21133 R5F21134 R5F21142 R5F21143 R5F21144 R5F21152 R5F21153 R5F21162 R5F21163 R5F21164 R5F21172 R5F21174 R5F21206 R5F21207 R5F21208 R5F2120A R5F2120C R5F21216 R5F21218 R5F2121A R5F2121C R5F2121J R5F21227 R5F21228 R5F2122A R5F2122C R5F21236 R5F21237 R5F21238 R5F2123A R5F2123C R5F21244 R5F21245 R5F21246 R5F21247 R5F21248 R5F21254 R5F21256 R5F21257 R5F21258 R5F21262 R5F21264 R5F21265 R5F21266 R5F21272 R5F21274 R5F21275 R5F21276 R5F21282 R5F21284 R5F21292 R5F21294 R5F212A7 R5F212A8 R5F212AA R5F212B R5F212D R5F212H R5F212J R5F212K R5F212L
R5F21346 R5F21356 R5F21358 R5F2L367 R5F2L368 R5F2L387 R5F2L3A7
R5F363A R5F364 R5F3650 R5F562T R5F615 R5F61653 R5F6172 R5F64110 R5F6411 R5F6175 R5F6179 R5F6185 R5F6460
We can't all listed due to the variety of the R8C family model. More informaiton about R8C MCU crack, please contact sichip888@hotmail.com or visit http://www.dspcrack.com/. We provide whole R5F series MCU crack.
Tags: R8C family crack, R5F series MCU break, MCU reverse, IC attack, IC break, DSP crack, DSP break, CPLD decryption
Monday, July 16, 2012
MYSON century chip decryption
MYSON century is a comprehensive semiconductor IC design company, the IC chip designed by whom is widely applied in communication field, audio and vedio field. The MCU designed by MYSON are mainly 8bits MCU with 8051 core. With its advantage on frequency mixing design, the mcu of monitor and OSD has a high global market share. It also offer the complete solutions of flat panel display. Its clients includes panel manufactures and monitor manufactures. Its products include MCU, OSD, Scaler+ADC, TCON, LVDS, TMDS, TFT source driver IC, TFT Gate, and drive IC.
Part of the types of MCU we can crack:
CS8953 CS8954 CS8955 CS8957 CS8958 CS8959 CS8960 CS8961 CS8962 CS8966 CS8967 CS8968
MTV212 MTV230 MTV312 MTV335 MTV336
For more information about MYSON MCU crack, please contact us:techip688@gmail.com
Monday, June 25, 2012
Reverse Engineering
We offer the service of chip decryption engineering service , code extraction engineering service, the chips we can decrypt includes Atmel chip. TI chips, cypress chips, renesas chip .Please contact us or view our website http://www.mcureverse.com for more information.
Wednesday, June 6, 2012
Qualcomm Shows Off Windows 8 Snapdragon 4 Dev Tablet
pcb cloning
At Computex 2012 in Taiwan, Qualcomm, Inc. (QCOM), the largest chipmaker of licensed ARM Holdings plc (LON:ARM) designs, unveiled its Windows-On-ARM (WOA) push: the long rumored and leaked Snapdragon 4 development tablet.
Both The Verge and Engadget placed their paws on the Liquid Development Tablet and took the dual-core 1.5 GHz APQ8060A Snapdragon 4 processor and Release Preview build of Windows 8 RT through the paces.
At Computex 2012 in Taiwan, Qualcomm, Inc. (QCOM), the largest chipmaker of licensed ARM Holdings plc (LON:ARM) designs, unveiled its Windows-On-ARM (WOA) push: the long rumored and leaked Snapdragon 4 development tablet.
Both The Verge and Engadget placed their paws on the Liquid Development Tablet and took the dual-core 1.5 GHz APQ8060A Snapdragon 4 processor and Release Preview build of Windows 8 RT through the paces.
Monday, May 28, 2012
Facebook's Saverin: 'No hard feelings' against Zuckerberg
Facebook co-founder Eduardo Saverin says he bears no resentment against
Mark Zuckerberg for being forced out of the company and even goes so far
to call the social network's CEO a "visionary."
"I have only good things to say about Mark, there are no hard feelings between us," Saverin said in an extensive interview with Brazilian publication Veja, according a Forbes translation. "He was a visionary, he always knew that the only way to get Facebook to grow was to maintain its central idea, that of people truly presenting themselves as they are, without nicknames or pseudonyms."
Saverin expressed similar sentiments earlier this month on his personal Facebook page as the social network put the final touches on its much-anticipated IPO (although he managed to misspell his former partner's name): "... I especially wanted to congratulate Mark Zukerberg on keeping tremendous stead-fast focus, however hard that was, on making the world a more open and connected place."
Saverin, who helped Zuckerberg launch Facebook at Harvard in 2004, was edged out by Zuckerberg the next year when the social network began to take off. Saverin should have been focusing on reforming the company as a Delaware corporation so it could accept investments. But wasn't, and that was the key factor in his ouster.
"I have only good things to say about Mark, there are no hard feelings between us," Saverin said in an extensive interview with Brazilian publication Veja, according a Forbes translation. "He was a visionary, he always knew that the only way to get Facebook to grow was to maintain its central idea, that of people truly presenting themselves as they are, without nicknames or pseudonyms."
Saverin expressed similar sentiments earlier this month on his personal Facebook page as the social network put the final touches on its much-anticipated IPO (although he managed to misspell his former partner's name): "... I especially wanted to congratulate Mark Zukerberg on keeping tremendous stead-fast focus, however hard that was, on making the world a more open and connected place."
Saverin, who helped Zuckerberg launch Facebook at Harvard in 2004, was edged out by Zuckerberg the next year when the social network began to take off. Saverin should have been focusing on reforming the company as a Delaware corporation so it could accept investments. But wasn't, and that was the key factor in his ouster.
Friday, May 18, 2012
chip reverse dsp reverse
The PIC12F and PIC16Fwww.mcureverse.com product families have an 8-bit CPU that can operate at speeds up to 5 MIPS. Device variants in the PIC12F family have 8 pins, while PIC16F variants are offered in 14-pin through 64-pin packages. Some variants in the PIC16F family have one or more Enhanced Capture Compare PWM Peripheral (ECCP) modules. The ECCP module is optimized for controlling 1/2 bridge or H-bridge motor drive circuits. It can also be used to steer PWM control signals among 4 output pins for BLDC motor commutation or stepper motor control.
Features:
· 4 ch. PWM 10-bit
· 256 bytes of EEPROM data memory
· Extended WDT
· MPLAB® ICD 3 programming support or debugging support with optional header adapter
· Precision internal oscillator-software selectable 8 MHz-32 KHz
· nanoWatt Technology
· Software selectable BOR
Thursday, May 3, 2012
Inphi LRDIMM Memory Buffers Unleash Memory Speed, Capacity for Intel Xeon® Processor E5 Family
Inphi Corporation today announced that load-reduced dual-inline memory
modules (LRDIMMs) with Inphi's Isolation Memory Buffer (iMB) technology
are now available on HP ProLiant Generation 8 (Gen8) server systems
based on the Intel Xeon Processor E5 family. Performance, memory
capacity and cost efficiencies of Intel Xeon Processor E5 family-based
servers designed for cloud, data center and enterprise applications now
can be optimized through next-generation LRDIMM technology.
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