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Journal Articles
Accepted Manuscript
Hamza Saeed, Mariam Mahmood, Hassan Nazir, Adeel Waqas, Naveed Ahmed, Majid Ali, Abdul Haseeb, Muhammad Bilal Sajid
Journal:
Journal of Solar Energy Engineering
Article Type: Research Papers
J. Sol. Energy Eng.
Paper No: SOL-22-1083
Published Online: January 30, 2023
Journal Articles
Accepted Manuscript
Journal:
Journal of Solar Energy Engineering
Article Type: Research Papers
J. Sol. Energy Eng.
Paper No: SOL-22-1171
Published Online: January 30, 2023
Journal Articles
Accepted Manuscript
Journal:
Journal of Solar Energy Engineering
Article Type: Research Papers
J. Sol. Energy Eng.
Paper No: SOL-22-1184
Published Online: January 30, 2023
Journal Articles
Accepted Manuscript
Journal:
Journal of Solar Energy Engineering
Article Type: Editorial
J. Sol. Energy Eng.
Paper No: SOL-23-1025
Published Online: January 30, 2023
Topics:
Solar energy
Journal Articles
Journal:
Journal of Solar Energy Engineering
Article Type: Research Papers
J. Sol. Energy Eng. August 2023, 145(4): 041010.
Paper No: SOL-22-1032
Published Online: January 27, 2023
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 1 Particle egress captured from the falling particle receiver aperture during testing. The plume can be observed within the region inside the rectangle on the left half of the image. More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 2 Irradiance incident on the aperture of the falling particle receiver. As it can be observed, based on the irradiance level desired, there may be heat flux spillage on from the 2-m diameter spot [ 12 ]. More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 3 Diagram of a multiple particle inside a pixel. Note: There could be one or more particles inside every pixel. More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 4 Diagram of outlying the progression of the calculation in the model. The opacity, background temperature, and pixel temperature are values obtained from the images captured from the cameras. These values are then used to calculate the expected particle irradiance. Knowing this value, the tr... More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 5 Experimental setup at UNM composed of a SPR, an actuated tube furnace, and a solar simulator More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 6 Left: components of the small particle receiver. Top and bottom hoppers instrumented with thermocouples, a 0.5-g resolution scale to record the mass flowrate of the particle curtain, a flow mesh to increase the uniformity and decrease the opacity of the curtain, and an LED panel to generate... More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 7 Graphical representation of the numerator calculation on the opacity equation (Eq. (9) ) More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 8 Graphical representation of the entire calculation on the opacity equation (Eq. (9) ). The result of the calculation is the same image as Fig. 7 ; however, the values range from 0 to 1 for opacity. More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 9 The average opacity as a function of discharge position can be obtained by discretizing the resulting image from the calculation in Fig. 8 into sub-regions of a discrete size. The error bars on the empirical values represent 1 − σ from the mean for every sub-region. More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 10 Left: sample thermogram from a curtain preheated to 200 °C. Right: once the thermograms are imported into matlab , the average apparent temperature profile is generated by averaging every row of the thermogram for the 554-thermogram sequence. Similarly, these profiles corresponding to ind... More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 11 Comparison of the empirically derived profile (line) and the extracted tempreatures using the Stefan–Boltzmann's (dark gray circles) and Planck's (light gray circles) model for a preheat temperature of 200 °C considering only the region of interest [ 20 ] More
Image
in A Non-Intrusive Particle Temperature Extraction Methodology Using Infrared and Visible-Image Sequences for High-Temperature Particle Plumes
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 12 Comparison of particle temperature profiles for carbo and sand particles preheated at different temperatures. The measured temperature represents the profile developed using the empirical lumped capacitance model. The extracted temperature values are comparable to those from the empirical ... More
Journal Articles
Journal:
Journal of Solar Energy Engineering
Article Type: Research Papers
J. Sol. Energy Eng. August 2023, 145(4): 041011.
Paper No: SOL-22-1138
Published Online: January 27, 2023
Journal Articles
Journal:
Journal of Solar Energy Engineering
Article Type: Research Papers
J. Sol. Energy Eng. October 2023, 145(5): 051001.
Paper No: SOL-22-1196
Published Online: January 27, 2023
Image
in Simulated Experimental Assessment of a Laboratory-Scale Solar Convective Furnace System
> Journal of Solar Energy Engineering
Published Online: January 27, 2023
Fig. 1 The schematic: ( a ) industry-scale ASF and ( b ) retrofitted SCF [ 18 , 19 ] More