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RL5T882S Features:
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| A typical RL5T882S application the RX Data output from the 2nd generation ASH transceiver (or receiver) is applied to the RL5T882S. In receive mode the RL5T882S detects the presence of a specific unique Start Symbol sequence and outputs a Start Detect. The RL5T882S generates data clocking (data valid) and shifts the data into a 12 bit shift register and will rise the data Ready pin when a Symbol is ready to be read. After the packet is received the Start Detect Signal must be reset by Start Detect reset pin going high. The RL5T882S used as an transmitter interface will write in a 12 bit symbol and while TX Enable is high will shift out the data out the data out pin at the Clock Frequency dived by 40(40Mhz clock will obtain a 1Mbps data rate). The RL5T882S supports data rates from 100K C 1000K bits per second (bps).. |
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RL5T882S (Absolute) Maximum Ratings:
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| Notes: 4. CL includes probe and jig capacitance. 5. All input pulses are supplied by generators having the following characteristics: PRR < 100 MHz, Z0 = 50Ω, tR < 2.5 nS, tF < 2.5 nS. 6. The outputs are measured one at a time with one transition per measurement. 7. TPLH and TPHL are the same as tpd. |
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RL5T882S Pinout:
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| The H1084U is a 5A low-dropout positive voltage regulator. It is available in fixed and adjustable output voltage versions. Over Current and thermal protection are integrated onto the chip. Output current will decrease while it reaches the pre-set current or temperature limit. The dropout voltage is specified at 1.2V Maximum at full rated output current. H1084U Series provides excellent regulation over variations due to changes in line, load and temperature. H1084U is three terminal regulator and available in popular packages. |
| Intels Smart 5 boot block flash memory family provides 2-, 4-, and 8-Mbit memories featuring high-density, low-cost, nonvolatile, read/write storage solutions for a wide range of applications. Their asymmetrically- blocked architecture, flexible voltage, and extended cycling provide highly flexible components suitable for embedded code execution applications, such as networking infrastructure and office automation. |
| costs as well as providing improve- ment in system performance and reliability over conventional IGBTs. Design and development effort is simplified and successful drive co- ordination is assured by the inte- gration of the drive and protection circuitry directly into the IPM. Re- duced time to market is only one of the additional benefits of using an IPM. Others include increased sys- tem reliability through automated IPM assembly and test and reduc- tion in the number of components that must be purchased, stored, and assembled. Often the system size can be reduced through smaller heatsink requirements as a result of lower on-state and switch- ing losses. All IPMs use the same standardized gate control interface with logic level control circuits al- lowing extension of the product line without additional drive circuit de- sign. Finally, the ability of the IPM to self protect in fault situations re- duce the chance of device destruc- tion during development testing as well as in field stress situations. |
