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Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways

2018 doctoral thesis by Mutaz Khazaaleh at Lincoln University
Place doctoral_thesis Q112543710
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Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways

Summary

Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways is a doctoral thesis[1].

Key Facts

  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways authored The G1/S checkpoint/DNA-damage signal transduction pathways — author (P50): Mutaz Khazaaleh[2].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's instance of is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — instance of (P31): doctoral thesis[3].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's publisher is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — publisher (P123): Research@Lincoln[4].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's language of work or name is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — language of work or name (P407): English[5].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's country of origin is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — country of origin (P495): New Zealand[6].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's publication date is recorded as +2018-00-00T00:00:00Z[7].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's main subject is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — main subject (P921): medical mathematics[8].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's main subject is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — main subject (P921): conceptual model[9].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's main subject is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — main subject (P921): ordinary differential equation[10].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's main subject is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — main subject (P921): complexity[11].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's work available at URL is recorded as https://researcharchive.lincoln.ac.nz/handle/10182/10385[12].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's Handle ID is recorded as 10182/10385[13].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's title is recorded as Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways[14].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's copyright holder is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — copyright holder (P3931): Mutaz Khazaaleh[15].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's thesis submitted to is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — thesis submitted to (P4101): Lincoln University[16].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's on focus list of Wikimedia project is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — on focus list of Wikimedia project (P5008): NZThesisProject[17].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's copyright status is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — copyright status (P6216): copyrighted[18].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's thesis committee member is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — thesis committee member (P9161): Sandhya Samarasinghe[19].
  • Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's thesis committee member is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — thesis committee member (P9161): Don Kulasiri[20].

Body

Designation and Status

Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways's instance of is recorded as The G1/S checkpoint/DNA-damage signal transduction pathways — instance of (P31): doctoral thesis[3].

References

Programmatic citations — every numbered marker resolves to a verifiable graph row below.

Direct Wikidata claims

  1. [3] ↑ . wikidata.org.
  2. [2] ↑ . wikidata.org.
  3. [4] ↑ . wikidata.org.
  4. [5] ↑ . wikidata.org.
  5. [6] ↑ . wikidata.org.
  6. [7] ↑ . wikidata.org.
  7. [8] ↑ . hdl.handle.net. hdl.handle.net. Provenance: wikidata.org.
  8. [9] ↑ . hdl.handle.net. hdl.handle.net. Provenance: wikidata.org.
  9. [10] ↑ . hdl.handle.net. hdl.handle.net. Provenance: wikidata.org.
  10. [11] ↑ . hdl.handle.net. hdl.handle.net. Provenance: wikidata.org.
  11. [12] ↑ . wikidata.org.
  12. [13] ↑ . wikidata.org.
  13. [14] ↑ . wikidata.org.
  14. [15] ↑ . wikidata.org.
  15. [16] ↑ . wikidata.org.
  16. [17] ↑ . wikidata.org.
  17. [18] ↑ . wikidata.org.
  18. [19] ↑ . wikidata.org.
  19. [20] ↑ . wikidata.org.

Class ancestry

  1. [1] ↑ . Wikidata. wikidata.org.

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APA 4ort.xyz Knowledge Graph. (2026). Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways. Retrieved May 3, 2026, from https://4ort.xyz/entity/two-reduction-methods-to-simplify-complex-ode-mathematical-models-of-biological-networks-and-a-case-study-the-g1-s-checkpoint-dna-damage-signal-transduction-pathways
MLA “Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways.” 4ort.xyz Knowledge Graph, 4ort.xyz, 3 May. 2026, https://4ort.xyz/entity/two-reduction-methods-to-simplify-complex-ode-mathematical-models-of-biological-networks-and-a-case-study-the-g1-s-checkpoint-dna-damage-signal-transduction-pathways.
BibTeX @misc{4ortxyz_two-reduction-methods-to-simplify-complex-ode-mathematical-models-of-biological-networks-and-a-case-study-the-g1-s-checkpoint-dna-damage-signal-transduction-pathways_2026, author = {{4ort.xyz Knowledge Graph}}, title = {{Two reduction methods to simplify complex ODE mathematical models of biological networks and a case study: The G1/S checkpoint/DNA-damage signal transduction pathways}}, year = {2026}, url = {https://4ort.xyz/entity/two-reduction-methods-to-simplify-complex-ode-mathematical-models-of-biological-networks-and-a-case-study-the-g1-s-checkpoint-dna-damage-signal-transduction-pathways}, note = {Accessed: 2026-05-03}}
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