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On April 1 , 2010, NEC Electronics Corporation merged with Renesas Technology Corporation, and Renesas Electronics Corporation took over all the business of both companies. Therefore, although the old company name remains in this document, it is a valid Renesas Electronics document. We appreciate your understanding.
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Renesas Electronics. Renesas Electronics shall not be in any way liable for any damages or losses incurred by you or third parties arising from the use of any Renesas Electronics product for an application categorized as “Specific”...
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User's Manual PFESiP/V850EP1 ® 32-bit Microcontroller Dedicated to PFESiP EP-1 Product Data Document No. A19069EJ2V0UM00 (2nd Edition) Date published September 2009 NS 2008...
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NOTES FOR CMOS DEVICES VOLTAGE APPLICATION WAVEFORM AT INPUT PIN Waveform distortion due to input noise or a reflected wave may cause malfunction. If the input of the CMOS device stays in the area between V (MAX) and V (MIN) due to noise, etc., the device may malfunction.
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PFESiP is a registered trademark of NEC Electronics Corporation in Japan, Germany, and United Kingdom. All other trademarks or registered trademarks are the property of their respective owners. • The information in this document is current as of September, 2009. The information is subject to change without notice.
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Major Revisions in This Edition Location Contents p.16 Modification of Table.1-8 Input Clock Timing p.17 Modification of 1.7.1 (2) Output Clock The mark <R> shows major revised points. The revised points can be easily searched by copying an "<R>" in the PDF file and specifying it in the "Find what:" field. To obtain the latest documents when designing, contact an NEC sales office or a distributor.
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PREFACE Readers This manual is intended for users who understand the functions of the microcontroller function chip with an on-chip V850E2 CPU core (PFESiP/V850EP1) and wish to evaluate developing PFESiP EP-1 Series products using the chip. Purpose This manual is intended to give users an understanding of the electrical specifications of the PFESiP/V850EP1.
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This manual PFESiP/V850EP1 Hardware (CPU Function) User’s Manual A19070E PFESiP/V850EP1 Hardware (USB Function) User’s Manual A19071E PFESiP/V850EP1 Hardware USB Function Sample Software Application Note A19349E Documents related to PFESiP EP-1 Evaluation Board Document Name Document No. PFESiP EP-1 Evaluation Board Technical Information User’s Manual A19350E PFESiP EP-1 Evaluation Board Lite Technical Information User’s Manual...
= 0 V. High-level input voltage For voltage applied to the input of PFESiP/V850EP1, this value indicates the voltage of the high-level state in which the input buffer operates normally. ● If voltage greater than the MIN. value is applied, the input voltage is assured to be high level.
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CHAPTER 1 PRODUCT SPECIFCATIONS Table 1-3. Terminology for DC Characteristics Item Symbol Definition Static current consumption In the state where there is no voltage change in the input and output pins, indicates the current that flows in from the power supply pin at the specified power supply voltage. OFF state output current For a 3-state output, this value indicates the current that flows through the output pin at the specified voltage when the output is at high impedance.
CHAPTER 1 PRODUCT SPECIFCATIONS 1.2 Absolute Maximum Rating Value Table 1-4. Absolute Maximum Rating Values Item Symbol Definition Item Unit −0.5 to +2.0 Power supply voltage 1.5 V system −0.5 to +4.6 3.3 V system Input/Output voltage 3.3 V buffer, V <...
CHAPTER 1 PRODUCT SPECIFCATIONS 1.4 DC Characteristics = 3.3 ±0.3 V, T = 0 to +70 °C) Table 1-6. DC Characteristics (V Item Symbol Conditions MIN. TYP. MAX. Unit Supply current Normal (200 MHz operation) HALT IDLE Note 1 Output short-circuit current = GND −250 ±...
116.4 kΩ 1.6 Power Supply Application/Interruption Procedure The PFESiP/V850EP1 has two power supply pins: a power supply pin for internal units (IV ) and a power supply pin for external pins (EV ). The I/O status of an alternate-function I/O pin may be undefined outside the range in which the operation is guaranteed.
In an application design using the PFESiP/V850EP1, these load conditions may be exceeded, depending on the configuration of external circuits. In such a case, the electrical specifications will be inferior to those of the PFESiP/V850EP1 by itself. 1.7.3 External memory interface pins (1) Access Timing (SRAM, external ROM, external I/O) Table 1-12.
CHAPTER 1 PRODUCT SPECIFCATIONS (b) Write timing (SDRAM access) Figure 1-10. Write Timing (SDRAM Access) TACT BUSCLK (output) < t > < t > < t > < t > < t > < t > < t > D KA A0-A25 (output) <...
CHAPTER 1 PRODUCT SPECIFCATIONS (3) Bus hold timing Table 1-14. Bus Hold Timing Parameter Symbol MIN. MAX. Unit HLDRQZ setup time (to BUSCLK ↑ ) − SHRK HLDRQZ hold time (from BUSCLK ↑ ) − HKHR Delay time from BUSCLK ↑ to HLDAKZ 11.0 DKHA HLDRQZ high-level width...
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CHAPTER 1 PRODUCT SPECIFCATIONS Figure 1-12. Bus Hold Timing BUSCLK (output) < t > HKHR < t > < t > HKH R SHRK < t > SHRK < t > < t > SHRK WHQH HLDRQZ (input) < t >...
CHAPTER 1 PRODUCT SPECIFCATIONS (2) Bus hold timing Table 1-16. Bus Hold Timing Parameter Symbol MIN. MAX. Unit SHLDRQZ setup time (to SBUSCLK ↑ ) − SHRK SHLDRQZ hold time (from SBUSCLK ↑ ) − HKHR Delay time from SBUSCLK ↑ to SHLDAKZ 11.0 DKHA SHLDRQZ high-level width...
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CHAPTER 1 PRODUCT SPECIFCATIONS Figure 1-19. Bus Hold Timing SBUSCLK (output) < t > HKHR < t > < t > HKHR SH RK < t > SHRK < t > < t > SHRK WHQH SHLDRQZ (input) < t >...
CHAPTER 1 PRODUCT SPECIFCATIONS 1.7.5 DMA interface pins (3) BUSCLK-synchronization signal The second DMA transfer request disable timing in single transfer is described below. Table 1-17. BUSCLK-synchronization Signal Parameter Symbol MIN. MAX. Unit DMARQZ0-DMARQZ3 setup time(from BUSCLK ↑ ) − SDRK To DMAAKZ ↓...
CHAPTER 1 PRODUCT SPECIFCATIONS 1.7.6 SiP internal-connection DMA interface pins (1) SBUSCLK-synchronization signal The second DMA transfer request disable timing in single transfer is described below. Table 1-18. SBUSCLK-synchronization Signal Parameter Symbol MIN. MAX. Unit SDMARQZ0-SDMARQZ3 setup time (from SBUSCLK ↑ ) −...
CHAPTER 1 PRODUCT SPECIFCATIONS 1.7.7 Bus reset output puns (1) External Memory interface pins The access timing of the external bus reset output pun is described below. Table 1-19. External Bus Reset Output Pin Parameter Symbol MIN. MAX. Unit VBRESTOZ output delay time (from VBCLKOUT ↓ ) 10.0 DVBRESZ Figure 1-22.
CHAPTER 1 PRODUCT SPECIFCATIONS 1.7.8 CSI interface pins The access timing of CSI (Clock-synchronized Serial Interface) is shown below. CSI has a master mode and a slave mode, and they show their respective timings. The operating timing varies depending on CKP and DAP settings. Table 1-21.
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CHAPTER 1 PRODUCT SPECIFCATIONS Figure 1-24. CSI Access Timing (CKP, DAP = 00) < t > CSICYC Note SCKn (output) < t > < t > No te (input) < t > < t > Note (output) n = 0, 1 Note Remark Broken lines indicate high impedance.
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CHAPTER 1 PRODUCT SPECIFCATIONS Figure 1-26. CSI Access Timing (CKP, DAP = 10) < t > CSICYC Note SCKn (output) < t > < t > Not e (input) < t > < t > Note (output) n = 0, 1 Note Remark Broken lines indicate high impedance.
CHAPTER 1 PRODUCT SPECIFCATIONS (2) Debug serial interface The access timing of the debug serial interface is shown below. Table 1-24. Debug Serial Interface Parameter Symbol MIN. MAX. Unit DMS input setup time (to DCK ↑ ) 10.0 − SDMS DMS input hold time (from DCK ↑...
CHAPTER 1 PRODUCT SPECIFCATIONS 1.8 A/D Converter Characteristics Table 1-25. A/D Converter Characteristics (EV = AV = AV = 3.0 to 3.6 V, EV = AV = AV = 0 V) REFP REFM Parameter Symbol Conditions MIN. TYP. MAX. Unit −...
CHAPTER 1 PRODUCT SPECIFCATIONS 1.9 Power Supply Application/Interruption Procedure Pin capacitance is the sum of the interface block capacitance and the package characteristic capacitance. Table 1-27 and 1-28 show the capacitance (C ) of the interface blocks. The pin capacitance is calculated by the following formula: Pin capacitance (C ) = interface block capacitance (C ) + capacitance (C...
CHAPTER 2 INTERNAL SSCG-PLL CHARACTERISTICS The SSCG-PLL incorporated in PFESiP/V850EP1 is a spread spectrum clock generator used to suppress noise, and is effective in reducing the peak value of electromagnetic interference (EMI) noise. 2.1 Block Diagram Figure 2-1. SSCG-PLL Block Diagram...
CHAPTER 2 INTERNAL SSCG-PLL CHARACTERISTICS 2.2 Electrical Specifications 2.2.1 Recommended operating range Parameter Symbol Conditions MIN. MAX. Unit − Oscillation Block Input Frequency 50.0 Input Frequency − 200.0 PFD Input Frequency − Input Duty duty MULT = n / m / p −...
CHAPTER 2 INTERNAL SSCG-PLL CHARACTERISTICS 2.3 Setting SSCG-PLL Operation Mode with Pins To set SSCG-PLL Operation mode, PFESiP/V850EP1 has the following pins. Set the following pins to satisfy the specified operating conditions before turning on power. Pin Name Internal Signal...
CHAPTER 2 INTERNAL SSCG-PLL CHARACTERISTICS 2.3.1 PLLM0-PLLM6, PLLN0-PLLN2, PLLP0-PLLP1 (PLLM, N, P-counter select) These pins set the multiplication factor of an internal PLL. PLLM0 to PLLM6, and PLLP0 and PLLP1 are directly connected to AAPLSCGH of the internal PLL. PLLN0 to PLLN2 are connected to AAPLSCGH, while 92 is added to them, because the input range of AAPLSCGH is 92 to 99 in decimal form.
CHAPTER 2 INTERNAL SSCG-PLL CHARACTERISTICS 2.3.2 SSMDL0 to SSMDL1 (modulation frequency range) (input) Set SSCG-output modulation period. These pins are directly connected to MDL0 and MDL1 of AAPLSCGH. Table 2-2. Setting SSCG-output Modulation Period by SSMDL0 to SSMDL1 PLL13 PLL12 Modulation Period [kHz] SSMDL1 SSMDL0...
CHAPTER 2 INTERNAL SSCG-PLL CHARACTERISTICS 2.3.4 PLLS0 to PLLS1 (S-selector) (input) Set the S-selector as below, according to the value of the PFD input frequency (fpfd) specified in Table 2-1 when these pins are used in frequency diffusion mode. Table 2-4. Setting the S-selector PLL18 PLL17 PFD Input Frequency [MHz]...
CHAPTER 3 DEVELOPMENT TOOLS AND MIDDLEWARE The following development tools and middleware are provided for developing systems using the PFESiP/V850EP1. 3.1 Development Tools Real-time OS Compiler Debugger Server In-circuit emulator Remark Note 1 RX850pro CCV850 MULTI rteserve RTE-2000-TP ( Midas lab Inc. ) No.