Ecfd:ecfd 3rd edition - Revision history

Moureauv at 07:11, 3 June 2021

2021-06-03T07:11:21Z

Moureauv at 07:10, 3 June 2021

2021-06-03T07:10:19Z

Cailler: /* Project #4: Conservative Heat Transfers in the the Accurate Conservative Level-Set framework */

2020-02-20T17:32:59Z

‎Project #4: Conservative Heat Transfers in the the Accurate Conservative Level-Set framework

Cgguillamon: /* Project #3: Implementation of a secondary atomization model in YALES2 */

2020-02-13T14:04:07Z

‎Project #3: Implementation of a secondary atomization model in YALES2

Cgguillamon: /* Project #3: Implementation of a secondary atomization model in YALES2 */

2020-02-04T08:56:26Z

‎Project #3: Implementation of a secondary atomization model in YALES2

Cnguyenvan: /* Project #18: L’Evaporo O Maıtre */

2020-01-31T11:24:50Z

‎Project #18: L’Evaporo O Maıtre

Benard: /* Project #22: Numerical prediction of wind turbine wakes using AMR */

2020-01-31T11:11:17Z

‎Project #22: Numerical prediction of wind turbine wakes using AMR

Benard: /* Project #7: Modélisation de parois pour la simulation des grandes échelles */

2020-01-31T11:10:38Z

‎Project #7: Modélisation de parois pour la simulation des grandes échelles

Coria: /* Project #6: Accurate numerical predicti􏴇on of vorti􏴇cal flows using AMR */

2020-01-31T11:10:20Z

‎Project #6: Accurate numerical predicti􏴇on of vorti􏴇cal flows using AMR

Fgava: /* Project #2: Hackathon GENCI/ATOS/AMD/CORIA on YALES2 */

2020-01-31T11:09:06Z

‎Project #2: Hackathon GENCI/ATOS/AMD/CORIA on YALES2

@@ Line 28: / Line 28: @@
 == Hackathon white paper ==
-* [[media:ecfd3_white_paper | White paper on AVBP and YALES2 porting on AMD Rome ]]
+* [[media:ecfd3_white_paper.pdf | White paper on AVBP and YALES2 porting on AMD Rome ]]
 == Booklet ==

@@ Line 25: / Line 25: @@
 * [[media:ecfd3_avbp_roadmap_HPC.pdf | Roadmap AVBP (HPC)]]
 * [[media:ecfd3_yales2_roadmap.pdf | Roadmap YALES2]]
 == Booklet ==

@@ Line 80: / Line 80: @@
 ''François Pecquery (ARIANE GROUP), Mélody Cailler (SAFRAN TECH), Romain Janodet (SAFRAN TECH/CORIA) and Vincent Moureau (CORIA)''
-Objectives of the project was to introduce conservative heat transfers in the Accurate Conservative Level-Set framework to be able to describe heat transfers and liquid dynamics in an accurate, robust and conservative manner. A Multi-Phase Transport solver is introduced relying on the conserving and level-set coherent transport of the temperature. The solution is to use the fluxes of a phase indicator that may be sharp, contrarily to the level-set. The new solver was used on a simplified test case where a liquid droplet is transported in a temperature stratified environment. Results show promising capabilities of the new framework. Next work include improvement of the transport equation stability, and of the jump condition at the interface.
+Objectives of the project was to introduce conservative heat transfers in the Accurate Conservative Level-Set framework to be able to describe heat transfers and liquid dynamics in an accurate, robust and conservative manner. A Multi-Phase Transport framework relying on the conserving and level-set coherent transport of the temperature is introduced on the  Spray solver. The solution is to use the fluxes of a phase indicator that may be sharp, contrarily to the level-set. The new solver was used on a simplified test case where a liquid droplet is transported in a temperature stratified environment. Results show promising capabilities of the new framework. Next work include improvement of the transport equation stability, and of the jump condition at the interface.
 [[media:ecfd3_final_project4.pdf | Final presentation of project #4]]

@@ Line 74: / Line 74: @@
 Another model, the stochastic breakup model by Gorokhovski, is also suggested for future work and will be implemented in YALES2.
-[[media:ecfd3_final_project3.ppt | Final presentation of project #3]]
+[[media:Ecfd3_final_project3.zip | Final presentation of project #3]]
 === Project #4: Conservative Heat Transfers in the the Accurate Conservative Level-Set framework ===

@@ Line 74: / Line 74: @@
 Another model, the stochastic breakup model by Gorokhovski, is also suggested for future work and will be implemented in YALES2.
-[[media:ecfd3_final_project3.pdf | Final presentation of project #3]]
+[[media:ecfd3_final_project3.ppt | Final presentation of project #3]]
 === Project #4: Conservative Heat Transfers in the the Accurate Conservative Level-Set framework ===

@@ Line 213: / Line 213: @@
 [[media:ecfd3_final_project17.pdf | Final presentation of project #17]]
-=== Project #18: L’Evaporo O Maıtre ===
+=== Project #18: L’Evaporo O Maître ===
 [[media:ecfd3_final_project18.pdf | Final presentation of project #18]]

← Older revision		Revision as of 11:11, 31 January 2020
Line 273:		Line 273:
	The dynamic adaptation method has been elaborated and some tests were performed to find the best adaptivity parameters.		The dynamic adaptation method has been elaborated and some tests were performed to find the best adaptivity parameters.
	The next step is to fully validate the methodology and consider then a more challenging test case with yaw adaptation.		The next step is to fully validate the methodology and consider then a more challenging test case with yaw adaptation.
		+
		+	[[media:ecfd3_final_project22.pdf \| Final presentation of project #22]]

@@ Line 103: / Line 103: @@
 === Project #7: Modélisation de parois pour la simulation des grandes échelles ===
 ''A. Barge(LEGI), P. Bénard(CORIA) and G. Balarac(LEGI)''
 We ran simulations to benchmark the Dynamic Slip Wall method from (Bose & Moin, PoF, 2014) that we implemented in YALES2. The performances of the method have been compared with those from the classic Log-Law and the method from (Duprat et al., PoF, 2011) on the standard cases of channel flow and periodic hills. The results from the Dynamic Slip wall showed a satisfying efficiency although its precision stays comparable to the method from Duprat et al. Also, we set up the non-stationary test case of oscillating channel flow to enrich the benchmarking with the above-mentioned methods. Finally, we started to work on the implementation of a new approach proposed by M. Gorokhovski, tests are in progress.
 === Project #8: Accurate numerical simulation of contact lines with dynamic mesh adaptation ===

← Older revision		Revision as of 11:10, 31 January 2020
Line 94:		Line 94:

	=== Project #6: Accurate numerical predicti􏴇on of vorti􏴇cal flows using AMR ===		=== Project #6: Accurate numerical predicti􏴇on of vorti􏴇cal flows using AMR ===
		+	''Laurent Bricteux (U. MONS)''

	We try to demonstrate that Eulerian method YALES2 using AMR can do a very good job to capture complex vortical flows at moderate Re=10k		We try to demonstrate that Eulerian method YALES2 using AMR can do a very good job to capture complex vortical flows at moderate Re=10k

@@ Line 53: / Line 53: @@
 === Project #2: Hackathon GENCI/ATOS/AMD/CORIA on YALES2 ===
 ''C. Piechurski (GENCI), S. Jauré (ATOS), P.-A. Harraud (AMD), P. Mohanamuraly (CERFACS), G.Lartigue (CORIA), F. Gava (CORIA), K. Bioche (CORIA), P. Begou (LEGI)''
 [[media:ecfd3_final_project2.pdf | Final presentation of project #2]]