Identification of novel CRC pathway genes in familial CRC

Reversing Crc – Theory and Practice. Reversing Crc { Theory and Practice

The Cyclic Redundancy Check (CRC) was developed as a checksum algorithm for the detection of data corruption in the process of data transmission or storage. However, in some scenarios there's a CRC given which a set of data is expected to have, so the data itself has to be modi ed (at the end or at some chosen position) in a way that it computes to the given CRC checksum afterwards. We present ...

Parallel CRC Realization

This paper presents a theoretical result in the context of realizing high speed hardware for parallel CRC checksums. Starting from the serial implementation widely reported in literature, we have identified a recursive formula from which our parallel implementation is derived. In comparison with previous works, the new scheme is faster and more compact and is independent of the technology used ...

CRC: Protected LRU Algorithm

Additional on-chip transistors as well as more aggressive processors have led the way for an ever expanding memory hierarchy. Multi-core architectures often employ the use of a shared L3 cache to reduce accesses to off chip memory. Such memory structures often incur long latency (as much as 30 cycles in our framework) and are configured to retain sets as large as 16 way. A baseline replacement ...

On Parallel CRC Computations

We propose a recursive formula for computing the remainder of a Euclidean division of polynomials (with binary coefficients), which operates in parallel on w bits at a time and takes t new incoming bits at each stage. We use this formula to design a fast parallel Cyclic Redundancy Check (CRC) system which is a look-ahead scheme that trades in arbitrary depth (processing time per cycle) and thro...

Australian Poultry Crc