Core Metrics
Total Citations
113,111
H-Index
153
Publications
1,002
i10-Index
542
2-Year Citedness
8.6
avg citations per work
Ability Dimensions
113,111 citations, h=153
2yr mean: 8.6
1002 papers (17.9/year)
113 cites/paper
2 unique research topics
4 topic areas
Top 3 papers: 14% of citations
* Percentile scores are calculated relative to all scholars in the computational neuroscience dataset. Tags are assigned based on dimension combinations. Hover over the radar chart for details.
Scholar Profile Analysis
Terrence J. Sejnowski is a legendary figure in the field with 100k+ citations in computational neuroscience, currently affiliated with Salk Institute for Biological Studies.
Over a 56-year academic career, published 1002 papers (averaging 17.9 per year), with 113,111 citations.
With an h-index of 153, one of the rare scholars to reach this level, indicating lasting and broad research impact.
Academic impact accumulated gradually: first 5 years account for only 0%, indicating later works are more influential.
Primary research areas include Bioenergetics, Bioenergetics, Bioenergetics.
Key Findings
Signature Work
"An Information-Maximization Approach to Blind Separation and Blind Deconvolution" is the most influential work, with 9,075 citations, published in 1995.
Consistent Output
Averaging 113 citations per paper, maintaining steady high-quality output.
Sustained Growth
Very low early citation share indicates influence built through long-term accumulation, with later works being more impactful.
Early Career Analysis (First 5 Years)
Career Start
1969 - 1973
Early Citations
34
Early Works
4
Early Impact %
0%
Top Early Career Paper
The General Solution of the b_{n} Problem for Gaseous Nebulae
Publication Timeline
Research Topics
Top Publications
An Information-Maximization Approach to Blind Separation and Blind Deconvolution
9,075
Citations
A Learning Algorithm for Boltzmann Machines*
3,291
Citations
Removing electroencephalographic artifacts by blind source separation
3,103
Citations
Running enhances neurogenesis, learning, and long-term potentiation in mice
2,859
Citations
Reliability of Spike Timing in Neocortical Neurons
1,969
Citations
Impact Classification
顶级影响力
总引用超过5万次，属于领域顶级学者
持续产出
h-index超过100，表明长期高质量产出
高产学者
发表超过1002篇论文，产出极为丰富