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Export 3397 results:
Author Title Type [ Year
] Filters: First Letter Of Last Name is S [Clear All Filters]
2025
Sun Y, Squires JR, Hoffmann A, Zhang Y, Minor A, Singh A, Scholten D, Mao C, Luo Y, Fang D et al..
2025. Abstract 2420: Deep learning enables automated detection of circulating tumor cell-immune cell interactions with prognostic insights in cancer. Cancer Research. 85:2420-2420.
Sun Y, Squires JR, Hoffmann A, Zhang Y, Minor A, Singh A, Scholten D, Mao C, Luo Y, Fang D et al..
2025. Abstract 2420: Deep learning enables automated detection of circulating tumor cell-immune cell interactions with prognostic insights in cancer. Cancer Research. 85:2420-2420.
Sun Y, Squires JR, Hoffmann A, Zhang Y, Minor A, Singh A, Scholten D, Mao C, Luo Y, Fang D et al..
2025. Abstract 2420: Deep learning enables automated detection of circulating tumor cell-immune cell interactions with prognostic insights in cancer. Cancer Research. 85:2420-2420.
Sun Y, Squires JR, Hoffmann A, Zhang Y, Minor A, Singh A, Scholten D, Mao C, Luo Y, Fang D et al..
2025. Abstract 2420: Deep learning enables automated detection of circulating tumor cell-immune cell interactions with prognostic insights in cancer. Cancer Research. 85:2420-2420.
Sun Y, Squires JR, Hoffmann A, Zhang Y, Minor A, Singh A, Scholten D, Mao C, Luo Y, Fang D et al..
2025. Abstract 2420: Deep learning enables automated detection of circulating tumor cell-immune cell interactions with prognostic insights in cancer. Cancer Research. 85:2420-2420.
Squires JR, Sun Y, Hoffmann AD, Zhang Y, Minor AC, Singh A, Scholten D, Ding H, Mao C, Platanias LC et al..
2025. Abstract B049: Deep Learning Enables Identification of Cell Types and Clusters (iCTC) in Immune Tumor Ecosystems for Prognostic Assessment in Cancer. Clinical Cancer Research. 31:B049-B049.
Squires JR, Sun Y, Hoffmann AD, Zhang Y, Minor AC, Singh A, Scholten D, Ding H, Mao C, Platanias LC et al..
2025. Abstract B049: Deep Learning Enables Identification of Cell Types and Clusters (iCTC) in Immune Tumor Ecosystems for Prognostic Assessment in Cancer. Clinical Cancer Research. 31:B049-B049.
Squires JR, Sun Y, Hoffmann AD, Zhang Y, Minor AC, Singh A, Scholten D, Ding H, Mao C, Platanias LC et al..
2025. Abstract B049: Deep Learning Enables Identification of Cell Types and Clusters (iCTC) in Immune Tumor Ecosystems for Prognostic Assessment in Cancer. Clinical Cancer Research. 31:B049-B049.
Squires JR, Sun Y, Hoffmann AD, Zhang Y, Minor AC, Singh A, Scholten D, Ding H, Mao C, Platanias LC et al..
2025. Abstract B049: Deep Learning Enables Identification of Cell Types and Clusters (iCTC) in Immune Tumor Ecosystems for Prognostic Assessment in Cancer. Clinical Cancer Research. 31:B049-B049.
Squires JR, Sun Y, Hoffmann AD, Zhang Y, Minor AC, Singh A, Scholten D, Ding H, Mao C, Platanias LC et al..
2025. Abstract B049: Deep Learning Enables Identification of Cell Types and Clusters (iCTC) in Immune Tumor Ecosystems for Prognostic Assessment in Cancer. Clinical Cancer Research. 31:B049-B049.
Schretter CE.
2025. Aggression across sexes from a contextual- and circuit-based perspective.. Curr Opin Neurobiol. 93:103071.
Liu H, Squires J, Sun Y, Hoffmann ADaniel, Zhang Y, Platanias LC, Gradishar WJohn, Cristofanilli M, Stringer C.
2025. Analysis of deep learning for automated recognition of immune cells interacting with CTCs for prognostic assessment in cancer.. Journal of Clinical Oncology. 43:e13028-e13028.
Liu H, Squires J, Sun Y, Hoffmann ADaniel, Zhang Y, Platanias LC, Gradishar WJohn, Cristofanilli M, Stringer C.
2025. Analysis of deep learning for automated recognition of immune cells interacting with CTCs for prognostic assessment in cancer.. Journal of Clinical Oncology. 43:e13028-e13028.
Liu H, Squires J, Sun Y, Hoffmann ADaniel, Zhang Y, Platanias LC, Gradishar WJohn, Cristofanilli M, Stringer C.
2025. Analysis of deep learning for automated recognition of immune cells interacting with CTCs for prognostic assessment in cancer.. Journal of Clinical Oncology. 43:e13028-e13028.
Charvat AF, Mason-Chalmers K, Grabinska-Rogala A, Shivakumar S, Gale-Day Z, Wu T, Millbern Z, Grimm J, Carroll EC, Nilsson P et al..
2025. Aurora 2.0: A Fluorogenic Dye Library for Expanding the Capability of Protein-Adaptive Differential Scanning Fluorimetry (paDSF).. SLAS Discov. :100259.
Hillsley A, Stein J, Tillberg PW, Stern DL, Funke J.
2025. A Bayesian Model to Count the Number of Two-State Emitters in a Diffraction Limited Spot.. Nano Lett.
Hillsley A, Stein J, Tillberg PW, Stern DL, Funke J.
2025. A Bayesian Model to Count the Number of Two-State Emitters in a Diffraction Limited Spot.. Nano Lett.
Suarez-Gomez D, Perez-Rosas NC, Miranda-Contreras GI, Colom-Braña SR, Zhang W, Mim MSahir, Tan S, Gazzo D, Tepole ABuganza, Deng Q et al..
2025. CalciumInsights: An Open-Source, Tissue-Agnostic Graphical Interface for High-Quality Analysis of Calcium Signals. bioRxiv.
Suarez-Gomez D, Perez-Rosas NC, Miranda-Contreras GI, Colom-Braña SR, Zhang W, Mim MSahir, Tan S, Gazzo D, Tepole ABuganza, Deng Q et al..
2025. CalciumInsights: An Open-Source, Tissue-Agnostic Graphical Interface for High-Quality Analysis of Calcium Signals. bioRxiv.
Shitara A, Nagase H, Bleck CKE, Ohno Y, Kataoka H, Satoh K, Kashimata M.
2025. Cdc42 regulates apical membrane fusion via the Rab11a–VAMP2 pathway in salivary gland acinar cells. bioRxiv.
Shitara A, Nagase H, Bleck CKE, Ohno Y, Kataoka H, Satoh K, Kashimata M.
2025. Cdc42 regulates apical membrane fusion via the Rab11a–VAMP2 pathway in salivary gland acinar cells. bioRxiv.
Chiu H, Robie AA, Branson K, Vippa T, Epstein S, Rubin GM, Anderson DJ, Schretter CE.
2025. Cell type-specific contributions to a persistent aggressive internal state in female Drosophila. Elife. 12
Wolff T, Eddison M, Chen N, Nern A, Sundaramurthi P, Sitaraman D, Rubin GM.
2025. Cell type-specific driver lines targeting the Drosophila central complex and their use to investigate neuropeptide expression and sleep regulation. elife.