Introduction to Solar Photonics
List Price:
$79.95
| Expected release date is Dec 31st 2030 |
- Availability: Confirm prior to ordering
- Branding: minimum 50 pieces (add’l costs below)
- Check Freight Rates (branded products only)
Branding Options (v), Availability & Lead Times
- 1-Color Imprint: $2.00 ea.
- Promo-Page Insert: $2.50 ea. (full-color printed, single-sided page)
- Belly-Band Wrap: $2.50 ea. (full-color printed)
- Set-Up Charge: $45 per decoration
- Availability: Product availability changes daily, so please confirm your quantity is available prior to placing an order.
- Branded Products: allow 10 business days from proof approval for production. Branding options may be limited or unavailable based on product design or cover artwork.
- Unbranded Products: allow 3-5 business days for shipping. All Unbranded items receive FREE ground shipping in the US. Inquire for international shipping.
- RETURNS/CANCELLATIONS: All orders, branded or unbranded, are NON-CANCELLABLE and NON-RETURNABLE once a purchase order has been received.
Product Details
Author:
Jennifer A. Dionne, Luke A. Sweatlock
Format:
Hardcover
Pages:
250
Publisher:
CRC Press (December 31, 2030)
Release Date:
December 31, 2030
Language:
English
Audience:
Professional and scholarly
ISBN-13:
9781439860953
Dimensions:
7" x 10"
File:
TAYLORFRANCIS-TayFran_250815043118849-20250815.xml
Folder:
TAYLORFRANCIS
List Price:
$79.95
Country of Origin:
United States
As low as:
$75.95
Publisher Identifier:
P-CRC
Discount Code:
H
Pub Discount:
30
Imprint:
CRC Press
Weight:
18oz
Overview
This book covers the basic principles and applications of photonic interactions for solar energy conversion (i.e., "solar photonics"). It begins with an overview of device texturing, light concentration, bandgap engineering, and other classical techniques for light trapping. It explains their limitations and then discusses essential nanophotonic approaches that allow for enhanced light absorption and energy extraction. It shows how plasmonic materials and metamaterials are used in photovoltaics and photocatalysis. Computational and experimental examples illustrate the breakthrough efficiency enhancements achievable.
