BVR-19 photocatalyst uses sulfur bonds to eliminate expensive metal catalysts for green hydrogen
GS3Economy · S&T · Environment · Security· Nuclear & new energy technology· Prelims·
Material science in green hydrogen production: a GS3 Science & Technology and Energy Transition case study.
Why in news
Researchers at Oregon State University developed BVR-19, a metal-organic framework photocatalyst that uses sulfur bonds to produce green hydrogen from water without expensive metal catalysts.
Background
BVR-19 is a metal-organic framework that forms spontaneously in aqueous solutions at room temperature. The study highlights that while methane-steam reforming costs $1.50 per kilogram, green hydrogen currently costs around $5 per kilogram.
Facts for Prelims
- S&TBVR-19: A metal-organic framework (MOF) photocatalyst used for green hydrogen production.
- FactMethane-steam reforming cost: $1.50 per kilogram.
- FactGreen hydrogen cost: Approximately $5 per kilogram.
- S&TBVR-19 utilizes sulfur bonds to eliminate the need for expensive metal catalysts.
Prelims practice question
With reference to the BVR-19 photocatalyst, consider the following statements:
- BVR-19 is a metal-organic framework that requires high-temperature conditions to form.
- Green hydrogen currently costs approximately $1.50 per kilogram.
- The catalyst utilizes sulfur bonds to eliminate the need for expensive metal catalysts.
Which of the statements given above is/are correct?
- (a)1 only
- (b)2 only
- (c)3 only
- (d)2 and 3 only
Show answer
Answer: (c) 3 only — Statement 3 is correct. Statement 1 is incorrect: It forms spontaneously in aqueous solutions at room temperature. Statement 2 is incorrect: Green hydrogen costs around $5 per kilogram.
For Mains
Q. Discuss the technological and economic hurdles in transitioning from grey hydrogen to green hydrogen and the role of material science in achieving cost parity.
Dimensions to cover in your answer
- Cost disparity: High production costs of green hydrogen compared to methane-steam reforming.
- Material innovation: Use of metal-organic frameworks (MOFs) to reduce reliance on precious metal catalysts.
- Decarbonization: Role of photocatalysis in achieving net-zero targets in the industrial energy sector.
Keywords: Green Hydrogen · Photocatalysis · Metal-Organic Frameworks · Decarbonization · Energy Transition
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