37. Smith S, Johnson D (1996) Minimizing time stamp size for completely asynchronous
optimistic recovery with minimal rollback. In: Proceedings of the 15th symposium on reliable
distributed systems, SRDS ’96. IEEE Computer Society, Washington, DC, USA, p 66
38. Bhargava B, Lian S, Leu P (1990) Experimental evaluation of concurrent checkpointing and
rollback-recovery algorithms. In: Proceedings of sixth international conference on data
engineering, pp 182–189
39. Tamir Y, Squin C (1984) Error recovery in multicomputers using global checkpoints. In:
International conference on parallel processing, pp 32–41
40. Tong Z, Kain R, Tsai W (1992) Rollback recovery in distributed systems using loosely
synchronized clocks. IEEE Trans Parallel Distrib Syst 3:246–251
41. Koo R, Toueg S (1987) Checkpointing and rollback-recovery for distributed systems. IEEE
Trans Softw Eng 23–31
42. Janakiraman G, Tamir Y (1994) Coordinated checkpointing-rollback error recovery for
distributed shared memory multicomputers. In: Proceedings 13th symposium on reliable
distributed systems, pp 42–51
43. Janssens B, Fuchs WK (1994) Reducing inter-processor dependence in recoverable
distributed shared memory. In: Proceedings of reliable distributed systems, pp 34–41
44. Li K (1986) Shared virtual memory on loosely coupled multiprocessors. PhD thesis, New
Haven, CT, USA. AAI8728365
45. Bershad B, Zekauskas M (1991) Midway: shared memory parallel programming with entry
consistency for distributed memory multiprocessors. Technical report
46. Huang Y, Wang Y (1995) Why optimistic message logging has not been used in
telecommunications systems. In: FTCS-25, pp 459–463
47. Johnson BD (1990) Distributed system fault tolerance using message logging and
checkpointing. PhD thesis, Houston, TX, USA. AAI9110983
48. Lamport L (1978) Time, clocks, and the ordering of events in a distributed system.
Commun ACM 21:558–565
49. Brown L, Wu J (1995) Snooping fault-tolerant distributed shared memories. J Syst Softw
29:149–165
50. Plank J (1993) Efficient checkpointing on MIMD architectures. PhD thesis, Princeton, NJ,
USA, 1993. UMI Order No. GAX93-16087
51. Schagaev I. Algorithms of computation recovery. Automation and Remote Control, 7, 1986.
26, 36, 65, 122
52. Schagaev I (1987) Algorithms for restoring a computing process. Autom Remote Control 48
(4). 26, 65, 122, 141, 149
53. Schagaev I (1989) Instructions retry in microprocessor recovery algorithms. In: IMEKO—
FTSD symposium. 2
54. Schagaev I (1986) Relationship between the formation of program recovery points and
equipment reliability indices. Autom Remote Control 47:124
55. Blaeser L, Monkman S, Schagaev I (2014) Evolving systems Worldcomp 2014. In:
Proceedings of the international conference on foundations of computer science FCS’14.
CSREA Press, ISBN: 1-60132-270-4
56. O’Brian F (1976) Rollback point insertion strategies. In: Digest of papers 6th international
symposium fault-tolerant computing, FTCS-6
57. Wirth N (2008) Oberon-07 language report. Technical report, ETH Zurich
58. Compact Flash Association (2007) Cf+ and compact flash specification revision 4.1.
Technical report
59. ONFi Workgroup (2011) Open NAND flash interface specification 3.0. Technical report,
ONFI Workgroup
60. ONFi Workgroup (2009) Open NAND flash interface specification: block abstracted NAND.
Technical report, ONFi Workgroup
61. SanDisk Corporation (2002) Host design considerations: NAND MMC and SD-based
products. Technical report, SanDisk Corporation
References
139
optimistic recovery with minimal rollback. In: Proceedings of the 15th symposium on reliable
distributed systems, SRDS ’96. IEEE Computer Society, Washington, DC, USA, p 66
38. Bhargava B, Lian S, Leu P (1990) Experimental evaluation of concurrent checkpointing and
rollback-recovery algorithms. In: Proceedings of sixth international conference on data
engineering, pp 182–189
39. Tamir Y, Squin C (1984) Error recovery in multicomputers using global checkpoints. In:
International conference on parallel processing, pp 32–41
40. Tong Z, Kain R, Tsai W (1992) Rollback recovery in distributed systems using loosely
synchronized clocks. IEEE Trans Parallel Distrib Syst 3:246–251
41. Koo R, Toueg S (1987) Checkpointing and rollback-recovery for distributed systems. IEEE
Trans Softw Eng 23–31
42. Janakiraman G, Tamir Y (1994) Coordinated checkpointing-rollback error recovery for
distributed shared memory multicomputers. In: Proceedings 13th symposium on reliable
distributed systems, pp 42–51
43. Janssens B, Fuchs WK (1994) Reducing inter-processor dependence in recoverable
distributed shared memory. In: Proceedings of reliable distributed systems, pp 34–41
44. Li K (1986) Shared virtual memory on loosely coupled multiprocessors. PhD thesis, New
Haven, CT, USA. AAI8728365
45. Bershad B, Zekauskas M (1991) Midway: shared memory parallel programming with entry
consistency for distributed memory multiprocessors. Technical report
46. Huang Y, Wang Y (1995) Why optimistic message logging has not been used in
telecommunications systems. In: FTCS-25, pp 459–463
47. Johnson BD (1990) Distributed system fault tolerance using message logging and
checkpointing. PhD thesis, Houston, TX, USA. AAI9110983
48. Lamport L (1978) Time, clocks, and the ordering of events in a distributed system.
Commun ACM 21:558–565
49. Brown L, Wu J (1995) Snooping fault-tolerant distributed shared memories. J Syst Softw
29:149–165
50. Plank J (1993) Efficient checkpointing on MIMD architectures. PhD thesis, Princeton, NJ,
USA, 1993. UMI Order No. GAX93-16087
51. Schagaev I. Algorithms of computation recovery. Automation and Remote Control, 7, 1986.
26, 36, 65, 122
52. Schagaev I (1987) Algorithms for restoring a computing process. Autom Remote Control 48
(4). 26, 65, 122, 141, 149
53. Schagaev I (1989) Instructions retry in microprocessor recovery algorithms. In: IMEKO—
FTSD symposium. 2
54. Schagaev I (1986) Relationship between the formation of program recovery points and
equipment reliability indices. Autom Remote Control 47:124
55. Blaeser L, Monkman S, Schagaev I (2014) Evolving systems Worldcomp 2014. In:
Proceedings of the international conference on foundations of computer science FCS’14.
CSREA Press, ISBN: 1-60132-270-4
56. O’Brian F (1976) Rollback point insertion strategies. In: Digest of papers 6th international
symposium fault-tolerant computing, FTCS-6
57. Wirth N (2008) Oberon-07 language report. Technical report, ETH Zurich
58. Compact Flash Association (2007) Cf+ and compact flash specification revision 4.1.
Technical report
59. ONFi Workgroup (2011) Open NAND flash interface specification 3.0. Technical report,
ONFI Workgroup
60. ONFi Workgroup (2009) Open NAND flash interface specification: block abstracted NAND.
Technical report, ONFi Workgroup
61. SanDisk Corporation (2002) Host design considerations: NAND MMC and SD-based
products. Technical report, SanDisk Corporation
References
139