PARABOLİK OLUKLU NEMLENDİRİCİ GÜNEŞ KOLLEKTÖRÜ BAZLI GÜNEŞ ENERJİLİ DESALİNASYON SİSTEMİNİN TEORİK PERFORMANS DEĞERLENDİRİLMESİ
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Date
2024
Authors
Huseyin Gunerhan
LEVENT BILIR
Harris J.N. WELEPE
Journal Title
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Open Access Color
GOLD
Green Open Access
No
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Top 10%
Abstract
Bu makalede parabolik oluklu nemlendirici güneş kolektörü bazlı güneş enerjili desalinasyon sistemi (PHSC-SS) önerilmektedir. Amacı bazı önemli performans iyileştirme tekniklerini düz plaka nemlendirici güneş kolektörü bazlı desalinasyon sistemine (düz plaka HSC-SS) uygulamaktır. Genel sistem performansını önemli ölçüde iyileştirmek içindir. Bunlar arasında parabolik oluklu güneş yoğunlaştırıcılarının kullanımı ve nemlendirici güneş kolektörlerinin tahliye borulu kolektörlerden tasarlanması yer almaktadır. Sonuçlar optimum genel performans elde etmek için türbülanslı bir hava akışı rejimiyle çalışması gereken düz plakalı HSC-SS'nin aksine PHSC-SS'nin laminer bir hava akışı rejimiyle ve ısı kolektörü elemanında yüksek hava giriş ve çıkış sıcaklıklarıyla (atmosferik basınçta en az 55 °C ve 100 °C'den düşük) çalışması gerektiğini ortaya koymaktadır. 900 W/m2 gelen güneş ışınımı 2 m2 güneş kolektörü alanı ve 0 00042 kg/s hava akış hızı için PHSC-SS'nin maksimum enerji verimi ekserji verimi ve tatlı su üretkenliği sırasıyla %68 12 %14 87 ve 1.697 kg/saat olarak bulunmuştur. Aynı gelen güneş ışınımı güneş kolektörü alanı ve 0 1 kg/s hava akış hızı için düz plakalı HSC-SS'nin elde edilen değerleri sırasıyla %72 9 %1 12 ve atmosferik basınçta 30 °C'den düşük hava giriş ve çıkış sıcaklıkları için 1 07 - 2 923 kg/saat arasında olarak bulunmuştur. Bazı aşırı durumlarda düz plakalı HSC-SS'nin tatlı su verimliliği PHSC-SS'den daha yüksek olsa da laminer hava akımı rejiminin PHSC-SS'ye büyük avantajlar sağladığı belirtilmelidir. Bunlar kondenser girişindeki daha yüksek hava sıcaklıkları (suyun yoğuşma işlemi kolaylaştırması) yardımcı bir soğutma cihazına gerek olmaması (düz plakalı HSC-SS'te gereklidir) sistemin daha az mekanik titreşimi kondenser boyutunun küçülmesi ve hava üfleyiciler tarafından daha az enerji tüketilmesidir. Ayrıca PHSC-SS'nin üst sınırı hava akışı olmadan çalışan bir PHSC-SS'dir. Bu sistem kaynama noktasındaki su damlacıklarının absorberden buharlaştırılması ve ardından kondensere emilmesi ile çalışmaktadır. Bu bir flaş buharlaşmaya benzemektedir.
Description
Keywords
Mühendislik- Elektrik ve Elektronik-Su Kaynakları-Fizik- Uygulamalı-Termodinamik-Fizik- Matematik-Meteoroloji ve Atmosferik Bilimler-Mühendislik- Kimya, heat collector element, exergy efficiency, seawater desalination, Energy Efficiency; Exergy Efficiency; Heat Collector Element; Parabolic Trough Humidifying Solar Collector; Seawater Desalination; Air Intakes; Aquifers; Barium Alloys; Collector Efficiency; Condenser Tubes; Dielectric Liquids; Firedamp; Fluoridation; Gas Mixtures; Greenhouse Gases; Hydraulic Fluids; Incident Solar Radiation; Ionic Liquids; Ionosphere; Laminar Flow; Liquid Films; Potassium Alloys; Pressure Regulators; Radiogenic Gases; Regain; Snow; Soil Moisture; Solar Irradiance; Synthesis Gas; Turbines; Water Cooling Systems; Energy; Exergy Efficiencies; Flat Plate; Heat Collector Element; Heat Collectors; Parabolic Trough; Parabolic Trough Humidifying Solar Collector; Performance; Seawater Desalination; Solar Stills; Desalination, parabolic trough humidifying solar collector, energy efficiency
Fields of Science
0211 other engineering and technologies, 0202 electrical engineering, electronic engineering, information engineering, 02 engineering and technology
Citation
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