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<feed xmlns="http://www.w3.org/2005/Atom"><title>Hussain Al-Sairfi Research Updates</title><link href="https://hussainalsairfi.github.io/"/><link href="https://hussainalsairfi.github.io/feed.xml" rel="self"/><updated>2026-06-25T00:00:00Z</updated><id>https://hussainalsairfi.github.io/</id>  <entry><title>Hydrodynamic Enhancement of Direct Contact Membrane Distillation Using a Corrugated Feed Channel: A Numerical Study</title><link href="https://hussainalsairfi.github.io/publications/hydrodynamic-enhancement-dcmd-corrugated-feed-channel/"/><id>https://hussainalsairfi.github.io/publications/hydrodynamic-enhancement-dcmd-corrugated-feed-channel/</id><updated>2026-06-25T00:00:00Z</updated><summary>This numerical study models a direct-contact membrane-distillation channel fitted with rectangular corrugations. It evaluates how rib height, breadth and pitch alter hydrodynamic mixing, temperature polarization, pressure drop and permeate flux, identifying a practical trade-off between mass-transfer enhancement and hydraulic loss.</summary></entry>  <entry><title>Thermocapillary Droplet Flow in Small-scale Containers: the Effect of Gravity</title><link href="https://hussainalsairfi.github.io/publications/thermocapillary-droplet-flow-small-scale-containers-gravity/"/><id>https://hussainalsairfi.github.io/publications/thermocapillary-droplet-flow-small-scale-containers-gravity/</id><updated>2026-06-12T00:00:00Z</updated><summary>This numerical investigation tracks an FC-75 droplet suspended in silicone oil inside differentially heated cylindrical containers. Volume-of-Fluid simulations compare zero gravity, normal gravity and combined thermocapillary–buoyancy forcing and derive a practical criterion for the droplet size at which the two forces nearly balance.</summary></entry>  <entry><title>Adaptive Fuzzy Energy Management of Wind-Battery Systems With Flexible Desalination Load</title><link href="https://hussainalsairfi.github.io/publications/adaptive-fuzzy-wind-battery-desalination-flexible-load/"/><id>https://hussainalsairfi.github.io/publications/adaptive-fuzzy-wind-battery-desalination-flexible-load/</id><updated>2026-05-26T00:00:00Z</updated><summary>This study develops an adaptive fuzzy energy-management system for a wind-turbine and battery system supplying a flexible reverse-osmosis desalination load. The controller coordinates wind power, battery state of charge and water production while explicitly reducing battery cycling and degradation.</summary></entry>  <entry><title>Achieving single solid solution in equimolar AlCrCuFeNi via rapid solidification</title><link href="https://hussainalsairfi.github.io/publications/alcrcu-feni-high-entropy-alloy-rapid-solidification/"/><id>https://hussainalsairfi.github.io/publications/alcrcu-feni-high-entropy-alloy-rapid-solidification/</id><updated>2026-02-20T00:00:00Z</updated><summary>This study uses a 6.5-m drop-tube facility to investigate the effect of cooling rate on equimolar AlCrCuFeNi high-entropy alloy. Rapid solidification suppresses phase complexity, produces a single B2 structure above approximately 10² K/s and increases microhardness as cooling rate rises.</summary></entry>  <entry><title>Membrane Materials for Desalination</title><link href="https://hussainalsairfi.github.io/publications/membrane-materials-for-desalination/"/><id>https://hussainalsairfi.github.io/publications/membrane-materials-for-desalination/</id><updated>2026-02-03T00:00:00Z</updated><summary>This open-access chapter reviews the evolution of desalination membrane materials, from cellulose acetate and polyamide thin-film composites to graphene oxide, aquaporin-based membranes and metal-organic frameworks. It compares performance, durability, chlorine resistance, fouling behavior, scalability and sustainability.</summary></entry>  <entry><title>Modeling the Influence of Ionic Strength on Mineral Solubility in Concentrated Brine Solutions</title><link href="https://hussainalsairfi.github.io/publications/ionic-strength-mineral-solubility-kuwait-brines/"/><id>https://hussainalsairfi.github.io/publications/ionic-strength-mineral-solubility-kuwait-brines/</id><updated>2026-01-04T00:00:00Z</updated><summary>This study measures how ionic strength changes the solubility of calcium sulfate and magnesium hydroxide in concentrated brines collected from Kuwait desalination facilities. It identifies non-ideal behavior that can be used to time precipitation, limit scaling and improve mineral-recovery process design.</summary></entry>  <entry><title>Quantifying the Economic Loss and Operational Implications of Air Pollution on Grid-Connected PV Systems in the Arabian Peninsula: A Machine Learning-Based Analysis</title><link href="https://hussainalsairfi.github.io/publications/air-pollution-economic-loss-pv-arabian-peninsula-machine-learning/"/><id>https://hussainalsairfi.github.io/publications/air-pollution-economic-loss-pv-arabian-peninsula-machine-learning/</id><updated>2025-12-30T00:00:00Z</updated><summary>This IEEE Access study uses a validated Random Forest model and counterfactual clean-air scenarios to estimate energy and financial losses caused by air pollution and module soiling in grid-connected photovoltaic systems across the Arabian Peninsula. It also proposes a predictive cleaning schedule for operation and maintenance planning.</summary></entry>  <entry><title>Mineral Extraction from Mixed Brine Solutions</title><link href="https://hussainalsairfi.github.io/publications/mineral-extraction-from-mixed-brine-solutions/"/><id>https://hussainalsairfi.github.io/publications/mineral-extraction-from-mixed-brine-solutions/</id><updated>2025-10-01T00:00:00Z</updated><summary>This paper evaluates sulfate-mineral recovery when high-salinity brines are mixed with seawater. A practical model predicts saturation index, precipitation yield and induction time for barite, celestite and calcium-sulfate phases under different mixing and operating conditions.</summary></entry>  <entry><title>Assessment of Membrane Distillation Modules for Seawater Desalination and Oilfield-Produced Water Treatment Applications</title><link href="https://hussainalsairfi.github.io/publications/phd-thesis-membrane-distillation-seawater-produced-water/"/><id>https://hussainalsairfi.github.io/publications/phd-thesis-membrane-distillation-seawater-produced-water/</id><updated>2025-01-01T00:00:00Z</updated><summary>This doctoral thesis experimentally evaluates direct-contact, air-gap and vacuum membrane-distillation modules for seawater, synthetic saline feeds and oilfield-produced water. It examines membrane material, temperature, salinity, flow rate and channel or gap dimensions to establish performance and design guidance under Kuwait-relevant conditions.</summary></entry>  <entry><title>Membrane distillation of saline feeds and produced water: A comparative study of an air-gap and vacuum-driven modules</title><link href="https://hussainalsairfi.github.io/publications/agmd-vmd-saline-feeds-produced-water-comparative-study/"/><id>https://hussainalsairfi.github.io/publications/agmd-vmd-saline-feeds-produced-water-comparative-study/</id><updated>2024-03-13T00:00:00Z</updated><summary>This comparative experimental study evaluates air-gap membrane distillation and vacuum membrane distillation for saline feeds, Arabian Gulf seawater and oilfield-produced water. It examines temperature, concentration, recirculation flow, air-gap depth and vacuum-space depth as determinants of permeate flux and salt rejection.</summary></entry>  <entry><title>Performance feasibility study of direct contact membrane distillation systems in the treatment of seawater and oilfield-produced brine: the effect of hot- and cold-channel depth</title><link href="https://hussainalsairfi.github.io/publications/dcmd-seawater-oilfield-produced-brine-channel-depth/"/><id>https://hussainalsairfi.github.io/publications/dcmd-seawater-oilfield-produced-brine-channel-depth/</id><updated>2023-11-01T00:00:00Z</updated><summary>This laboratory study assesses direct-contact membrane distillation for Arabian Gulf seawater and oilfield-produced brine using polypropylene and PVDF membranes. It evaluates channel depth, temperature, flow rate and feed concentration in relation to permeate flux and salt rejection.</summary></entry></feed>