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 The most vulnerable parts of a hardware design are its memory structures because they retain their previous values. Therefore, in our chip we have decided to focus on error detection and error correction specifically on flip-flops and registers which are the primary memory storage primitives. Therefore, our design is centered around a register file with 32, 32-bit registers implemented with flip-flops. We have implemented multiple reliability solutions such as different degrees of replication and ECC around this register file, which can be selectively configured and combined (with some limitations), in order to reliably detect whether errors occur, and in case they do, whether they can be corrected. Moreover, we include a redundant Monitoring Unit consisting of detailed event counters for each of the registers. This way, we can also assess the protection level offered by these different reliability methods and study their trade-offs in order to guide future developments. 
 
 In particular, our design has the following characteristics:
-- 32, 32-bit register file implemented with flip-flops, organised in 4 banks which can be used in parallel. Each register value can be individually set or inspected. The register file can be either clocked with a user controled signal, offering full control, or with the default chip clock.
+- 32, 32-bit register file implemented with flip-flops, organised in 8 banks which can be used in parallel. Each register value can be individually set or inspected. The register file can be either clocked with a user controled signal, offering full control, or with the default chip clock.
 
 - 4 different protection mechanisms, each of which can be enabled selectively and in combination with others:
   - Error Correction Code (ECC): ECC with 1 bit correction and 2 bit correction.