Research vision and approach

Pioneering predictive plant science

Scientific vision and focus

Sainsbury Laboratory Cambridge University (SLCU) is dedicated to advancing the fundamental understanding of how plants grow, develop and respond.

We investigate the regulatory systems that control plant form and function across all scales and over evolutionary time, from gene networks and signalling pathways to complex tissues and whole organisms.

Our laboratory operates on a distinctive organisational model designed for integration and collaboration. We bring together experts in molecular genetics, advanced imaging, spatial omics, biomechanics, and synthetic biology.

By combining these disciplines, we analyse plant mechanisms through a rigorous, quantitative lens to establish new international standards for predictive plant science.

Our approach

A central challenge in biology is understanding how plants, whose cells cannot move and whose decisions are distributed across tissues, continuously refine their shape.

We address this by developing integrated, quantitative frameworks. Our researchers explain plant development by looking at:

• Mechanistic terms: How internal systems function
• Contextual variables: How environmental changes and evolutionary history shape growth

By integrating imaging, modelling, and evolutionary analysis, we are driving a new era of "reprogrammable" plant development.

Our research goals

We aim to move beyond traditional computational morphodynamics toward a next-generation, computer-aided synthetic biology.

Our focus is on creating "digital twins" — virtual plants that allow for in silico testing, trait optimisation, and computer-assisted experimental design.

To achieve this, we focus on three core objectives:

• Understand developmental mechanisms: We define how gene networks, physical forces, and cellular dynamics interact to specify growth across different organs and species
• Build predictive frameworks: We develop computational models that anticipate how plants respond to genetic, mechanical, and environmental shifts. These models guide our experiments and improve how we interpret complex biological data
• Establish design principles: We translate our findings into robust principles for plant engineering. This work enables the targeted modification of plant traits to improve sustainability, resilience, and crop yield

Our culture and values

SLCU was founded on the belief that the best science happens when barriers are removed. Our shared infrastructure and "open-door" research culture ensure that ideas move freely across different scientific traditions.

A shared scientific space

Unlike traditional institutions, we do not have separate group laboratories. We operate as a single, shared laboratory where bench and desk spaces are deliberately mixed.

By working side-by-side, experimentalists and computational scientists collaborate daily. This model is supported by our expert microscopy, horticulture, and technical teams.

Research culture

We believe that creative discoveries emerge from a diversity of experiences and minds. Our foundational principles include:

• Equality and inclusion: We celebrate and value all members of our community regardless of ethnic identity, gender identity, age, religion, sexual orientation, disability, or neurodiversity
• Intellectual freedom: We foster an environment where researchers feel safe to step beyond their comfort zones and explore bold, innovative ideas
• Trust and openness: We commit to an inclusive culture where everyone (students, postdoctorates, technicians and professional staff) can speak openly and contribute to our shared mission

We strive to ensure every member of the SLCU community feels free to be their true self.