Majumdar et al., 2021 - Google Patents
Numerical Modeling of No Vent Filling of a Cryogenic Tank with Thermo-dynamic Vent System Assisted InjectorMajumdar et al., 2021
View PDF- Document ID
- 17756093351858071616
- Author
- Majumdar A
- LeClair A
- Hartwig J
- Ghiaasiaan M
- Publication year
- Publication venue
- 29th Space Cryogenics Workshop
External Links
Snippet
This paper presents a multi-node finite volume model of No Vent Filling (NVF) of a cryogenic tank with Thermo-dynamic Vent System (TVS) assisted injector, using the Generalized Fluid System Simulation Program (GFSSP), a general purpose flow network code. NVF tests were …
Similar Documents
Publication | Publication Date | Title |
---|---|---|
Hartwig et al. | Comparison of cryogenic flow boiling in liquid nitrogen and liquid hydrogen chilldown experiments | |
Darr et al. | Numerical simulation of the liquid nitrogen chilldown of a vertical tube | |
Darr et al. | Two-phase pipe quenching correlations for liquid nitrogen and liquid hydrogen | |
Kartuzova et al. | Self-pressurization and spray cooling simulations of the multipurpose hydrogen test bed (MHTB) ground-based experiment | |
Hendricks et al. | Correlation of hydrogen heat transfer in boiling and supercritical pressure states | |
Darr et al. | The effect of reduced gravity on cryogenic nitrogen boiling and pipe chilldown | |
Meyer et al. | Mastering cryogenic propellants | |
Hartwig et al. | Numerical modeling of the transient chilldown of a cryogenic propellant transfer line | |
Keefer et al. | Development and validation of an analytical charge–hold–vent model for cryogenic tank chilldown | |
Kartuzova et al. | CFD modeling of the multipurpose hydrogen test bed (MHTB) self-pressurization and spray bar mixing experiments in normal gravity: effect of the accommodation coefficient on the tank pressure | |
Hartwig et al. | Liquid methane and liquid oxygen horizontal chilldown experiments of a 2.54 and 11.43 cm transfer line | |
Majumdar et al. | Numerical Modeling of No Vent Filling of a Cryogenic Tank | |
Majumdar et al. | Numerical Modeling of No Vent Filling of a Cryogenic Tank with Thermo-dynamic Vent System Assisted Injector | |
Schweickart | Thermodynamic analysis of a demonstration concept for the long-duration storage and transfer of cryogenic propellants | |
Kartuzova et al. | Modeling droplet heat and mass transfer during spray bar pressure control of the multipurpose hydrogen test bed (MHTB) tank in normal gravity | |
Narayanan et al. | Line chilldown and flow boiling heat transfer characteristics of stainless steel tubes | |
Majumdar et al. | Axisymmetric Two-Dimensional Modeling of No Vent Filling of a Cryogenic Tank using Generalized Fluid System Simulation Program | |
Pesich et al. | CFD modeling of cryogenic chilldown in a complex channel under normal and low gravity conditions | |
Hedayat et al. | Test data analysis of a spray bar zero‐gravity liquid hydrogen vent system for upper stages | |
Verthier et al. | Effect of gravity on film boiling heat transfer and rewetting temperature during quenching | |
Ahlman | Assessment of Governing Heat and Mass Transfer Coefficients for Cryogenic No-Vent Top-Off Modeling | |
Hartwig et al. | Development of Universal Two-Phase Heat Transfer Correlations for Cryogenic Transfer Line Chilldown | |
Flachbart et al. | Modeling and test data analysis of a tank rapid chill and fill system for the advanced shuttle upper stage (ASUS) concept | |
Hauser et al. | Mastering the Cryogenic Frontier: Predicting Sloshing in Cryogenic Propellant Tanks | |
Tesny et al. | Thermal Desktop Modeling of 2016 CRYOTE-2 Tank Chill and Fill Testing |