Nat Commun April 2023 PMID 37185249

Engineering α-carboxysomes into plant chloroplasts to support autotrophic photosynthesis.

Taiyu Chen, Marta Hojka, Philip Davey, Yaqi Sun, Gregory F Dykes, Fei Zhou, Tracy Lawson, Peter J Nixon, Yongjun Lin, Lu-Ning Liu

Full text PDF Download social card

Mentions

Peak: 9 in Apr 2023

across 5 sources since Apr 2023

Extended reach

21,157

potential audience

Total likes

Video views

Mentions per month

Apr 2023 – Oct 2023

Where it's discussed

News15 articles
X / Twitter13 posts
Blogs4 articles
Facebook2 posts
YouTube1 videos

AI synopsis

What people are saying

The overall tone reflects high appreciation and curiosity about the potential of engineering bacteria structures into plants, with comments like 'related to improving photosynthesis' and mentions of faster enzymes indicating deep engagement with the scientific content. This choice of words and emphasis on crop yield improvements underscore the perceived high impact of the research.

AgreementModerate agreement

Most discussions recognize the significance of integrating bacterial carboxysomes into plants, highlighting potential benefits for photosynthesis and crop yields.

InterestHigh interest

The topic attracts high interest due to its implications for agriculture and food security, as reflected in enthusiastic phrases and references to specific enzymes.

EngagementModerate engagement

Participants actively engage with the scientific methods and potential impacts, mentioning engineered enzymes and structural modifications.

ImpactHigh impact

The discussions convey a strong belief that this research could substantially advance crop productivity and address global food challenges.

Abstract in brief

This article discusses how scientists are working to improve crop photosynthesis by engineering carboxysomes, which are specialized structures in bacteria that enhance carbon fixation, into plant chloroplasts.
The researchers successfully inserted genetic components from bacteria to create functional, structurally correct carboxysomes in tobacco plants, enabling better photosynthesis and growth in high CO2 conditions.
This study shows that integrating bacterial CO2-concentrating structures into plants could be a promising strategy to boost crop yields and address global food security challenges caused by population growth and climate change.]

Read the full abstract

All mentions

Engineering Bacterial Carboxysomes into Plant Chloroplasts to Enhance Photosynthesis

Scientists are working to improve crop photosynthesis by integrating bacterial carboxysomes into plant chloroplasts, enabling better carbon fixation and growth, potentially boosting crop yields and addressing global…

STEM RTCL TV · Jul 21, 2023 92 views

Agrisera

@agrisera · X

Oct 24, 2023 · 2 likes · 658 followers View post →

Trends in Biochemical Sciences

@TrendsBiochem · X

Primary @NatureComms article: Engineering α-carboxysomes into plant chloroplasts to support autotrophic photosynthesis from @luningliu and colleagues. https://t.co/42Byt9Ya0C

Jul 27, 2023 · 1 like · 1 share · 4,009 followers View post →

LiuLab

@luningliu · X

RT @Awesomics: Related: engineered catalytically faster bacterial Rubisco enzyme into tobacco plant cells ⬆️

Jun 27, 2023 · 1 share · 502 followers View post →

Awesomics

@Awesomics · X

Related: engineered catalytically faster bacterial Rubisco enzyme into tobacco plant cells ⬆️

Jun 12, 2023 · 1 like · 1 share · 6,733 followers View post →

Erik Hom

@erikfyhom · X

Engineering α-carboxysomes into plant chloroplasts to support autotrophic photosynthesis https://t.co/CclLEUcUel

Apr 28, 2023 · 1 like · 684 followers View post →

María Ortega, PhD

@MariaAOrtegaP · X