It delivers a 200 MHz clock rate and a 3.2 ns access time, operating from a 2.375 V to 2.625 V supply. The NoBL architecture eliminates dead cycles between read and write turns, sustaining full back-to-back throughput — a key advantage in high-bandwidth data paths like network packet buffers, DSP lookup tables, or FPGA cache memory.
A 3.2 ns access time at 200 MHz means the part can deliver data within one clock cycle from the address, with zero wait states on a properly laid-out bus. This is the tier that keeps a 200 MHz FPGA or network processor fed without inserting pipeline bubbles. The parallel interface is 36 bits wide, so a single chip handles a full-word read or write per clock cycle. For designs that need sustained throughput on a wide data bus, this part eliminates the bus-turnaround penalty that standard synchronous SRAMs incur.
If your design is still in the prototype phase, consider qualifying a current-production synchronous SRAM in a compatible package and speed grade to avoid a future last-time-buy scramble.
The 0.8 mm ball pitch is reworkable with a hot-air station if you have a stencil and preforms, but the board needs a solder mask defined pad layout and via-in-pad with tenting on the back side.