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ConceptsNREC PUMPAL Ballot

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* 2. Please apply a value to every item on the ballot (1-10, with 1 being no interest and 10 being critical).

	1	2	3	4	5	6	7	8	9	10
1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design)	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 1	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 2	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 3	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 4	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 5	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 6	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 7	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 8	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 9	1. Add a design mode wizard for combination inducer-radial pump design (i.e. "turbo pump" design) 10
2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation)	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 1	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 2	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 3	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 4	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 5	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 6	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 7	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 8	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 9	2. Implement cavitation coefficient prediction using Stripling/Acosta (breakdown cavitation) 10
3. Refine preliminary correlation for head/efficiency degradation for cavitation effects	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 1	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 2	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 3	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 4	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 5	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 6	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 7	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 8	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 9	3. Refine preliminary correlation for head/efficiency degradation for cavitation effects 10
4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 1	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 2	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 3	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 4	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 5	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 6	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 7	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 8	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 9	4. Include Thermodynamic Suppression Head (TSH) effects in the calculations of NPSH in inlet designs 10
5. Allow inducer blading to be continuous through radial portion of a turbopump	5. Allow inducer blading to be continuous through radial portion of a turbopump 1	5. Allow inducer blading to be continuous through radial portion of a turbopump 2	5. Allow inducer blading to be continuous through radial portion of a turbopump 3	5. Allow inducer blading to be continuous through radial portion of a turbopump 4	5. Allow inducer blading to be continuous through radial portion of a turbopump 5	5. Allow inducer blading to be continuous through radial portion of a turbopump 6	5. Allow inducer blading to be continuous through radial portion of a turbopump 7	5. Allow inducer blading to be continuous through radial portion of a turbopump 8	5. Allow inducer blading to be continuous through radial portion of a turbopump 9	5. Allow inducer blading to be continuous through radial portion of a turbopump 10
6. Implement simple vaneless radial/axial inlet configurations	6. Implement simple vaneless radial/axial inlet configurations 1	6. Implement simple vaneless radial/axial inlet configurations 2	6. Implement simple vaneless radial/axial inlet configurations 3	6. Implement simple vaneless radial/axial inlet configurations 4	6. Implement simple vaneless radial/axial inlet configurations 5	6. Implement simple vaneless radial/axial inlet configurations 6	6. Implement simple vaneless radial/axial inlet configurations 7	6. Implement simple vaneless radial/axial inlet configurations 8	6. Implement simple vaneless radial/axial inlet configurations 9	6. Implement simple vaneless radial/axial inlet configurations 10
7. Create estimates for hub and tip from meanline calculations for axial pumps	7. Create estimates for hub and tip from meanline calculations for axial pumps 1	7. Create estimates for hub and tip from meanline calculations for axial pumps 2	7. Create estimates for hub and tip from meanline calculations for axial pumps 3	7. Create estimates for hub and tip from meanline calculations for axial pumps 4	7. Create estimates for hub and tip from meanline calculations for axial pumps 5	7. Create estimates for hub and tip from meanline calculations for axial pumps 6	7. Create estimates for hub and tip from meanline calculations for axial pumps 7	7. Create estimates for hub and tip from meanline calculations for axial pumps 8	7. Create estimates for hub and tip from meanline calculations for axial pumps 9	7. Create estimates for hub and tip from meanline calculations for axial pumps 10
8. Add treatment model for stability control devices (SCDs)	8. Add treatment model for stability control devices (SCDs) 1	8. Add treatment model for stability control devices (SCDs) 2	8. Add treatment model for stability control devices (SCDs) 3	8. Add treatment model for stability control devices (SCDs) 4	8. Add treatment model for stability control devices (SCDs) 5	8. Add treatment model for stability control devices (SCDs) 6	8. Add treatment model for stability control devices (SCDs) 7	8. Add treatment model for stability control devices (SCDs) 8	8. Add treatment model for stability control devices (SCDs) 9	8. Add treatment model for stability control devices (SCDs) 10
9. Add Gülich model	9. Add Gülich model 1	9. Add Gülich model 2	9. Add Gülich model 3	9. Add Gülich model 4	9. Add Gülich model 5	9. Add Gülich model 6	9. Add Gülich model 7	9. Add Gülich model 8	9. Add Gülich model 9	9. Add Gülich model 10
10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project.	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 1	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 2	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 3	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 4	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 5	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 6	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 7	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 8	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 9	10. Implement a physics based design mode for exit elements (e.g. the user inputs a limited number of parameters such as diffusion ratio or pressure recovery along with exit swirl to obtain geometry) Note: multi-year project. 10

Please list up to two write-in items in the space below:

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* 3. Please rate the technical capability of this product:

1 Completely Unsatisfactory

2 Somewhat Useful But Needs Significant Improvement

3 Useful But Needs Improvement

4 Very Useful But Needs Minor Improvement

5 Completely Satisfactory

Or, put your own comments here:

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* 4. Please rate the technical support of this product:

1 Completely Unsatisfactory

2 Somewhat Useful But Needs Significant Improvement

3 Useful But Needs Improvement

4 Very Useful But Needs Minor Improvement

5 Completely Satisfactory

Or, put your own comments here:

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* 5. Would you recommend this product to a colleague?

Yes