Главная
Study mode:
on
1
Introduction
2
Agenda
3
Geothermal
4
Subsurface and Surface
5
South Texas
6
Flow Rates
7
Finite Element Analysis
8
Changing the Approach
9
Shell exploratory well
10
Incremental volume
11
Fracture gradient
12
Gravity fractions
13
Fracking
14
District Heating
15
Summary
16
Example
17
Tax Incentives
18
Questions
19
Supercritical CO2
20
Future of Supercritical CO2
21
Drilling Cost
22
Economics
23
Design
24
Recovery Factor
25
Earthquake Monitoring
26
Operating Fractions
Description:
Explore the advancements and challenges in geothermal baseload power generation and energy storage in Hot Dry Rock (HDR) systems in this comprehensive lecture. Delve into the physics of mechanical storage in deep sedimentary formations and learn about the potential for increased efficiency in areas with high geothermal gradients. Examine the fundamental challenges of implementing Enhanced Geothermal Systems (EGS) technology and discover how Sage Geosystems' HeatCycle technology aims to overcome these obstacles. Gain insights into achieving geothermal baseload power production through cycling multiple wells while maintaining the ability to use the facility for geothermal storage. Analyze the business case for various geothermal systems and understand the impact of the Inflation Reduction Act on attracting investments for rapid commercial implementation. Cover topics such as subsurface and surface considerations, flow rates, finite element analysis, fracture gradients, district heating, tax incentives, supercritical CO2 applications, drilling costs, economics, design factors, recovery rates, and earthquake monitoring in this informative presentation on the future of geothermal energy. Read more

Geothermal Baseload and Energy Storage in HDR: Advances and Challenges

Bureau of Economic Geology
Add to list
0:00 / 0:00