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Leonard Girnita

Karolinska University Hospital · SE
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Area of research
Molecular Biology · Genetics
Research interest
Research interests include Receptor Mechanisms and Signaling, Estrogen and related hormone effects, Cancer, Hypoxia, and Metabolism, and Growth Hormone and Insulin-like Growth Factors.
h-index
40
citations
4,775
works
182
NIH funding
primary concept
Medicine
email

Recent publications

G Protein-coupled and Membrane Tyrosine Kinase Receptor Relationships Yield Therapeutic Opportunities.
2025cited by 2position: contributordoi
Supplementary Figure 1 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 7 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Table S1 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 2 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 6 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Table S2 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 3 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 8 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 4 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Data from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 4 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 3 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 2 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Data from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 1 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 7 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 5 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Table S1 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 5 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 6 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Table S2 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Supplementary Figure 8 from Competing engagement of β-arrestin isoforms balances IGF1R/p53 signaling and controls melanoma cell chemotherapeutic responsiveness
2024cited by 0position: contributordoi
Competing Engagement of β-arrestin Isoforms Balances IGF1R/p53 Signaling and Controls Melanoma Cell Chemotherapeutic Responsiveness.
2023cited by 2position: contributordoi
Editorial: DNA damage response pathways meet endocrine systems.
2023cited by 0position: contributordoi
Correction: IGF-1R is a molecular determinant for response to p53 reactivation therapy in conjunctival melanoma.
2023cited by 0position: contributordoi
Supplementary Figure 5 from Competing Engagement of β-arrestin Isoforms Balances IGF1R/p53 Signaling and Controls Melanoma Cell Chemotherapeutic Responsiveness
2023cited by 0position: contributordoi
Supplementary Figure 3 from Competing Engagement of β-arrestin Isoforms Balances IGF1R/p53 Signaling and Controls Melanoma Cell Chemotherapeutic Responsiveness
2023cited by 0position: contributordoi
Table S1 from Competing Engagement of β-arrestin Isoforms Balances IGF1R/p53 Signaling and Controls Melanoma Cell Chemotherapeutic Responsiveness
2023cited by 0position: contributordoi
Table S1 from Competing Engagement of β-arrestin Isoforms Balances IGF1R/p53 Signaling and Controls Melanoma Cell Chemotherapeutic Responsiveness
2023cited by 0position: contributordoi

Grants

No grants ingested yet.

Frequent collaborators

· 54 papers (2019–2025)Caitrin Crudden · Karolinska Institutet49 papers (2019–2024)Terry J. Smith · University College London47 papers (2022–2025) · 46 papers (2022–2025)Dawei Song · MDPI45 papers (2019–2024)George Calin · The University of Texas MD Anderson Cancer Center45 papers (2021–2024)Ada Girnita · Elsevier, Inc.44 papers (2023–2024)Shiyong Neo · Karolinska Institutet44 papers (2023–2024)Sylvya Pasca · Karolinska Institutet44 papers (2023–2024)Sonia Cismas · Karolinska Institutet44 papers (2023–2024)Simin Zhang · Yangzhou University44 papers (2023–2024)Naida Suleymanova · Karolinska University Hospital44 papers (2023–2024)Benjamin Gebhard · 44 papers (2023–2024)Iara Troccoli Drakensjo · Clinilabs (United States)44 papers (2023–2024)Takashi Shibano · 44 papers (2023–2024)Ada Girnita · Karolinska Institutet4 papers (2012–2015)Stefan Seregard · Karolinska Institutet3 papers (2012–2019)Claire Worrall · Sobell House3 papers (2012–2013)Hongchang Shen · Shandong Provincial Hospital2 papers (2012–2012)Huiyuan Zheng · Karolinska Institutet2 papers (2012–2012)
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