Can Liu, professor of physics at Renmin University of China
Photo: School of Physics, Renmin University of China; photographer not stated · Publisher-directed editorial display; source copyright retained

FigureAsia 35 Under 35 · Science

Can Liu

Age 33 · Wafer-scale two-dimensional electronics · China

Co-corresponding author of a 2025 Science paper on wafer-scale indium selenide and integrated transistor arrays.

Approximate age at the edition eligibility date
33
Field
Semiconductor science
Country or region
China
FigureAsia U35 Assessment
88.6 / 100

Career and documented record

Two-dimensional semiconductors offer excellent electrostatic control, but useful electronics require uniform material over entire wafers. In 2025, Can Liu and collaborators reported a solid–liquid–solid growth route for wafer-scale indium selenide in Science, then integrated the material into transistor arrays.

The programme combines growth chemistry, structural characterisation and device fabrication. Institutional reporting states that key measured device metrics surpassed reference three-nanometre silicon performance, a comparison that remains specific to the reported tests rather than a claim of complete process superiority.

Liu's co-corresponding authorship establishes scientific leadership within a broad team. The result matters because it confronts scale and integration together—the point at which many promising two-dimensional materials cease to look like semiconductor platforms.

Why Can Liu is on the list

Liu is selected for moving indium selenide from attractive flakes toward wafer-scale, integrated electronics. The work is strongest where it is most concrete: growth uniformity, device arrays and measured transistor behaviour.

The 2025–26 record

Wafer-scale InSe

Co-led a Science paper on solid–liquid–solid growth of wafer-scale two-dimensional indium selenide.

Transistor integration

Fabricated integrated arrays rather than reporting isolated exfoliated devices.

Competitive device metrics

Reported key test metrics above selected three-nanometre silicon references under stated conditions.

The work in its field

The bottleneck for two-dimensional electronics is not discovering another high-mobility flake; it is producing uniform, controllable material compatible with arrays and manufacturing workflows.

Assessment breakdown

88.6out of 100

01

Substantive 2025–2026 contribution

16.7 / 20

Co-led a Science paper on solid–liquid–solid growth of wafer-scale two-dimensional indium selenide.

02

Verified scientific impact

13 / 15

The Science publication brings wafer growth and integrated devices together in a field where scalability is the dominant obstacle.

03

Originality and distinction

9.1 / 10

The distinction lies in a solid–liquid–solid route that produces wafer-scale indium selenide suitable for transistor arrays.

04

Field influence

8.9 / 10

Researchers in wafer-scale two-dimensional electronics now have a stronger result to test, extend or challenge because of this contribution.

05

Individual agency

9.1 / 10

Liu is a co-corresponding author and institutional research leader, with growth and device work shared across the collaboration.

06

Durability and trajectory

4.6 / 5

The contribution builds on an active line of work at Renmin University of China, with further tests and applications still to come.

07

Asian significance and global relevance

4.6 / 5

Chinese physicist leading semiconductor research at Renmin University of China.

08

Evidential validity and reproducibility

7.1 / 8

Material characterisation and device measurements are peer reviewed; comparisons are confined to the stated metrics.

09

Advance in scientific knowledge

6.4 / 7

The study shows that indium selenide can be grown and controlled beyond the small-flake regime.

10

Translational or methodological utility

4.5 / 5

Wafer uniformity and array integration are necessary steps toward any future low-power two-dimensional electronics platform.

11

Responsible research stewardship

4.6 / 5

The profile refuses to rewrite selected benchmark wins as full-node commercial superiority.

Evidence and attribution

Material claims on this page are supported by the edition’s evidence record. FigureAsia tests age, identity, role, result and individual attribution before publication. Public profiles present the reported record; supporting documentation is retained for accuracy review and corrections.

Achievement records
3
Assessment window
2025–26
Editorial status
Included in the 2026 FigureAsia 35 Under 35 edition

Rights and credit

The portrait is published under the rights basis recorded for this edition. Third-party ownership and reuse restrictions remain in force.

Publication status
Published under a documented rights basis
Credit
School of Physics, Renmin University of China; photographer not stated
Licence
Publisher-directed editorial display; source copyright retained
Portrait source and credit