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635 citation(s) found for "Carter, R".

Abstract P4-01-05: Multi-omics data shows downregulation of mismatch repair, purin and tublin pathways in AR-negative triple-negative chemotherapy-resistant tumors
Vedell, Peter T. , McLaughlin, Sarah A., Aspitia, Alvaro Moreno, Northfelt, Donald W. , Gray, Richard J. , Weinshilboum, Richard, Wang, Liewei , Kalari, Krishna R. , Suman, Vera J. , Tang, Xiaojia , Sinnwell, Jason P. , Thompson, Kevin J. , Carter, Jodi M. , Boughey, Judy C. , Goetz, Matthew P.

Mayo Clinic

Cancer Research | March 8, 2022 | Volume: 82 | Issue: 4_Supplement | Pages: P4-01-05-P4-01-05

10.1158/1538-7445.sabcs21-p4-01-05 Get It

Abstract Introduction. The standard treatment for non-metastatic triple-negative breast cancer (TNBC) is neoadjuvant chemotherapy (NAC) and nearly 50% exhibit pathological complete response (pCR). However, patients with residual disease after NAC are at increased risk for recurrence and death. Prior studies examining the transcriptome of TNBC pre/post-NAC have examined a limited number of genes (<500) in heterogeneous subgroups of TNBC (e.g. LAR and non-LAR). We explored the transcriptome of androgen-receptor (AR) negative (non-LAR) TNBC subtype both pre/post NAC to identify pathways associated with NAC response. Methods. Tumors obtained pre/post NAC from TNBC patients enrolled in the Breast Cancer Genome Guided therapy study (BEAUTY) underwent RNA sequencing and reverse-phase protein array (RPPA). EdgeR was applied for differentially expressed (DE) analysis and regression methods for RPPA. Digital deconvolution method (CIBERSORTx) and TNBC single-cell data were used to obtain cell types. Pathway analysis was carried out using 2972 gene sets and gene set variation analysis (GSVA). Functional enrichment analysis was conducted with significant genes. Results. Of the 44 TNBC patients, 32 patients were excluded from the analysis cohort due to: LAR tumor (6 pts.), non-LAR tumor with pCR (23 pts.), and cell type issues with RNA-seq data (3 pt.). Paired RNA-Seq data were available for 12 TNBC patients (4 with progression <2 years [EP]) and 8 who were progression-free > 4 years [NP]) and paired RPPA data were available for 9 of these 12 patients. Differentially expressed genes, proteins and cell types between EP and NP in post-NAC. We identified 489 genes differentially expressed (DE) between EP and NP (logFC=|2|, FDR < 0.05). Analysis of cytobands from these 489 genes showed an enrichment of genes on chromosome 6p22.1-2 and 17q25.3 regions (enrichment ratio >5; p-value <10E-4). Critical genes identified in the AR- network (p-value < 10E-3) were IL1RN, SLAMF9, KRT81, BHLHE22, B3GALT5, PCP4, TREM1, AQP9, NRTN, and COL2A1.In addition, preliminary results from RPPA data of post-NAC tumors showed astrocytic phosphoprotein (PEA-15), involved in apoptosis, proliferation, glucose metabolism, as well as cell proliferation and Y box binding (YB1) proteins (involved in metastases), were more DE in EP than NP (p < 0.05). CIBERSORTx was applied to estimate the proportions of different cell types in post-NAC tumors. Cancer-associated fibroblasts iCAFs were low and myCAFs are high in EP vs NP. It is known that the cross-talk between CAFs and tumor cells may induce tumor resistance to chemotherapy. Differentially expressed pathways in post and pre-NAC EP tumors. Using genome-wide expression data from the paired 12 tumors and the GSVA method, we obtained individual pathway scores for 2972 pathways. One hundred ninety pathways were downregulated and 61 pathways were upregulated (p-value <= 0.05) in the post-NAC residual disease of EP relative to NP. We further examined these 190 pathways in the paired EPs and found 71% of those pathways were upregulated in the pre-NAC. These 190 downregulated pathways were enriched with FOXO, TGF-beta, PI3k, FGFR1, insulin and others. The 61 upregulated pathways in post-NAC EP tumors were enriched with mismatch repair, purine, tubulin, telomere, polymerase and gap-junction related pathways; 77% of those 61 pathways were downregulated in pre-NAC. Conclusions. Using a comprehensive “omics” approach, we have identified novel cancer and drug response pathways associated with recurrence in AR-TNBC disease. Further work to evaluate these as markers of outcome and potential drug targets is warranted. Citation Format: Krishna R Kalari, Vera J Suman, Xiaojia Tang, Jason P Sinnwell, Kevin J Thompson, Peter T Vedell, Jodi M Carter, Sarah A McLaughlin, Alvaro Moreno Aspitia, Donald W Northfelt, Richard J Gray, Richard Weinshilboum, Liewei Wang, Judy C Boughey, Matthew Goetz. Multi-omics data shows downregulation of mismatch repair, purin and tublin pathways in AR-negative triple-negative chemotherapy-resistant tumors [abstract]. In: Proceedings of the 2021 San Antonio Breast Cancer Symposium; 2021 Dec 7-10; San Antonio, TX. Philadelphia (PA): AACR; Cancer Res 2022;82(4 Suppl):Abstract nr P4-01-05.
Abstract P1-04-01: Digital spatial profiling of immune-related proteins in luminal androgen receptor (LAR) vs non-LAR triple-negative breast cancer (TNBC)
Leon‐Ferre, Roberto A. , Zahrieh, David M. , Chumsri, Saranya , Ma, Yaohua , Kachergus, Jennifer M., Wang, Xue , Liu, Minetta C. , Thompson, E. Aubrey, Carter, Jodi M. , Hillman, David W. , Boughey, Judy C. , Ingle, James N. , Kalari, Krishna R. , Villasboas, José C. , Couch, Fergus J. , Goetz, Matthew P.

Mayo Clinic

Cancer Research | March 8, 2022 | Volume: 82 | Issue: 4_Supplement | Pages: P1-04-01-P1-04-01

10.1158/1538-7445.sabcs21-p1-04-01 Get It

Abstract Background: The importance of the antitumor immune response in TNBC is well established. TNBC with higher TILs are less likely to recur and more responsive to systemic therapy. Likewise, PD-L1+ TNBC are more likely to benefit from chemoimmunotherapy. However, TNBC is highly heterogeneous. Of the TNBC molecular subtypes, LAR TNBC is less sensitive to systemic therapy, has lower TILs and lower rates of PD-L1 positivity. The role of other immune related proteins in LAR TNBC is not well established. Here, we evaluated differentially expressed (DE) immune related proteins in the stromal and intratumoral compartments of LAR vs non-LAR TNBC tumors. Methods: We used the Nanostring GeoMX DSP platform to quantitate 58 proteins within spatially distinct intraepithelial, cytokeratin (CK)-positive tumor segments and adjacent CK-negative/nuclei-positive stromal segments in 248 TNBC tumors included in a tissue microarray generated from a cohort of pts with centrally confirmed TNBC who underwent breast surgery without prior neoadjuvant therapy. A subset (n=111) underwent bulk tumor RNA sequencing and were classified as LAR or non-LAR TNBC. DE proteins were identified using a negative binomial generalized linear model (SNR>2, p<0.05). A targeted set of DE proteins was dichotomized at the 80th percentile. Results: Of 111 TNBC tumors, 17 (15%) were LAR and 94 (85%) non-LAR. Compared to non-LAR TNBC, pts with LAR TNBC were older (age ≥50: 82% vs 52%, p<0.01), with tumors that were more often of apocrine histology (35% vs 0%, p <0.01), grade 1-2 (24% vs 1%, p<0.01), and had lower Ki67 (Ki67 ≤15: 24% vs 11%, p=0.06). Most tumors were T1-2 (94% vs 93%, p=0.82) and N0 (53% vs 62%, p=0.09), respectively. As expected, expression of most immune-related proteins was higher in the stromal vs the intratumoral compartment for both LAR and non-LAR TNBC. When focusing on the stromal compartment, expression of multiple immune related proteins was significantly lower in LAR compared to non-LAR TNBC, including the pan-leukocyte marker CD45 (log-2 fold change [log2FC]: 0.552, p=0.05), the macrophage marker CD14 (log2FC: 0.834, p=0.06), CD44 (lof2FC: 0.637, p=0.07), and the immune checkpoint proteins IDO1 (log2FC: 0.914, p=0.04), VISTA (log2FC: 0.471, p=0.07), ICOS (log2FC: 0.444, p=0.08), and STING (log2FC: 0.544, p=0.09). Proteins with expression levels too low for comparisons included PD-L1, LAG3, FOXP3 and BCL-2. When focusing on the intratumoral compartment, expression of most immune-related proteins was very low in both LAR and non-LAR TNBC. Like in the stromal compartment, CD45 expression was lower in LAR TNBC (log2FC: 0.78, p=0.02). Expression of the immune checkpoint B7-H3 was lower in LAR TNBC (log2FC: 0.737, p=0.02), while expression of the T cell marker CD127 was higher (log2FC: -0.528, p=0.34). With regards to relevant non-immune markers, expression of Ki67 was lower in LAR TNBC (log2FC: 0.5498, p=0.05), consistent with the clinical assay. Conclusion: In this ultra high-plex spatial analysis, we provide first insights into the differential expression at the protein level of several targetable immune checkpoint molecules in LAR vs non-LAR TNBC. The lower expression of several immune related proteins in LAR TNBC is consistent with the hypothesis that LAR TNBC exhibits a “cold” immune microenvironment compared to other TNBC subtypes, potentially rendering itself less susceptible to immunotherapy-based strategies. These data support the need to consider TNBC molecular subtypes in future evaluations of immune-based therapeutic approaches. Funding: This work was supported by NIH grant P50CA116201 to RLF, JMC, KRK, FJC, DZ, JNI, and MPG; BCRF grant 19-161 to EAT and NCATS grant CTSA KL2 TR002379 to RLF. The contents are solely the responsibility of the authors and do not necessarily represent the official views of the NIH Citation Format: Roberto A Leon-Ferre, Jodi M. Carter, David M. Zahrieh, David W. Hillman, Saranya Chumsri, Yaohua Ma, Jennifer M. Kachergus, Xue Wang, Judy C. Boughey, Minetta C. Liu, James N. Ingle, Krishna R. Kalari, Jose C. Villasboas Bisneto, Fergus J. Couch, E. Aubrey Thompson, Matthew P. Goetz. Digital spatial profiling of immune-related proteins in luminal androgen receptor (LAR) vs non-LAR triple-negative breast cancer (TNBC) [abstract]. In: Proceedings of the 2021 San Antonio Breast Cancer Symposium; 2021 Dec 7-10; San Antonio, TX. Philadelphia (PA): AACR; Cancer Res 2022;82(4 Suppl):Abstract nr P1-04-01.
Abstract OT2-19-05: A phase I/II trial of abemaciclib and T-DM1 in women and men with HER2-positive advanced or metastatic breast cancer that has progressed on treatment with a taxane, trastuzumab and pertuzumab (THP) (ACCRU-BR-1801)
Sullivan, Ciara C O, He, Jun , Leon‐Ferre, Roberto A. , Chalasani, Pratima, Yaşar, Demet Gökalp, Anderson, D. Mark , Stella, Philip J., Jaslowski, Anthony J., Tannenbaum, Susan , Saverimuthu, Angela, Northfelt, Donald W. , Moreno‐Aspitia, Alvaro , Liu, Minetta C. , Wang, Liewei , Suman, Vera J. , Kalari, Krishna R. , Villasboas, José C. , Anderson, Daniel M, Carter, Jodi M. , Lou, Zhenkun , Goetz, Matthew P.

Mayo Clinic

Cancer Research | March 8, 2022 | Volume: 82 | Issue: 4_Supplement | Pages: OT2-19-05-OT2-19-05

10.1158/1538-7445.sabcs21-ot2-19-05 Get It

Abstract Background: Although major advances have been made in the treatment of HER2+ metastatic breast cancer (MBC), the goal of care remains largely palliative, therefore better treatments are needed. Given encouraging preclinical and clinical data, the combination of cyclin dependent 4/6 kinase inhibitors and HER2-directed therapy is further being evaluated in this trial. Trial Design: In this phase I/II multicenter trial, we will determine the maximum tolerated dose (MTD) of abemaciclib (Abem) combined with T-DM1. Three Abem dose levels will be examined, 50 mg, 100 mg and 150 mg. The phase 2 portion of this trial will examine whether PFS is increased with addition of Abem to T-DM1 in two pt cohorts - those with ER+ HER2+ MBC and those with ER-HER2+ MBC. For phase 2, a pre-registration biopsy is required to confirm ER and HER2-status and to determine levels of tumor infiltrating lymphocytes; vimentin (an epithelial-mesenchymal transition marker); and CD8 and FOXP3 expression. Blood samples will be collected pretreatment , at 6 weeks, and at progression for all pts. Eligibility Criteria: Phase I&II: All pts must have HER2+ MBC per ASCO-CAP guidelines and prior treatment with a taxane, trastuzumab and pertuzumab. For the phase Iportion, pts can have measurable or non-measurable disease with no restriction on the number of prior lines of therapy. In the phase II portion, pts must have measurable disease with ≤1-2 prior lines of chemotherapy alone, ≤1 HER2-directed therapy alone, and/or chemotherapy with HER2-directed therapies. There is no limit on prior endocrine therapy. Specific Aims: The primary objective of the phase II trial is to assess whether addition of Abem to T-DM1 increases PFS in one or both patient cohorts. Secondary objectives include an assessment of toxicity, objective response rates and overall survival. Correlative studies will assess the association between baseline TIL levels, vimentin expression, and CD8/FOXP3 expression with PFS. Changes in peripheral blood mononuclear cells, CTCs, ctDNA and serum thymidine kinase 1 during the course of treatment will be examined to determine if there is a link with PFS outcomes overall and separately for each cohort. Pharmacogenomic studies will determine if pts with the FCGR3A-158 polymorphism derive less benefit from T-DM1 and have inferior PFS outcomes compared with pts who do not have this polymorphism. Statistical Methods:Phase I: Standard 3+3 design, with dose limiting toxicities as per protocol. Phase II: For each pt cohort, a stratified randomization scheme will be used to assign pts to treatment with liver mets as a stratification factor. For each pt cohort, a stratified log rank test will be used to assess whether PFS is increased with the addition of Abem to T-DM1. A non-binding futility analysis will be applied in each cohort after 58 events in the ER+ HER2+ MBC study cohort and 48 events in the ER- HER2+ MBC study cohort. Present Accrual: 0; target accrual: minimal 120 pts., maximal 140 pts CohortOne-sidedalphaPowerAccrual Period (accrual rate)Follow-up after close of enrollmentPFS with T-DM1PFS with abema and T-DM1Number of eligible patientsER+/HER2+0.100.912 months (5-6 pts per month)12 months12 weeks24 weeks64 (32 per arm)ER-/HER2+0.100.8512 months (3-4 pts per month)12 months6 weeks12 weeks50 (25 pts per arm) Citation Format: Ciara C O Sullivan, Jun He, Vera J Suman, Krishna R Kalari, Roberto A Leon-Ferre, Jose C Villasboas-Bisneto, Pratima Chalasani, Demet Gokalp Yasar, Daniel M Anderson, Philip J Stella, Anthony J Jaslowski, Susan H Tannenbaum, Angela Saverimuthu, Donald Northfelt, Alvaro Moreno-Aspitia, Jodi M Carter, Minetta C Liu, Liewei Wang, Zhenkun Lou, Matthew P Goetz. A phase I/II trial of abemaciclib and T-DM1 in women and men with HER2-positive advanced or metastatic breast cancer that has progressed on treatment with a taxane, trastuzumab and pertuzumab (THP) (ACCRU-BR-1801) [abstract]. In: Proceedings of the 2021 San Antonio Breast Cancer Symposium; 2021 Dec 7-10; San Antonio, TX. Philadelphia (PA): AACR; Cancer Res 2022;82(4 Suppl):Abstract nr OT2-19-05.
The spectrum of brachial plexopathy from perineural spread of breast cancer
Jack, Megan M., Smith, Brandon W., Capek, Stepan, Marek, Tomas, Carter, Jodi M., Broski, Stephen M., Amrami, Kimberly K., Spinner, Robert J., Carter, Jodi M. , Marek, Tomáš , Carter, Jodi , Jack, Megan M., Smith, Brandon W., Capek, Stepan, Carter, Jodi M., Broski, Stephen M., Amrami, Kimberly K., Spinner, Robert J.

Mayo Clinic

Journal of Neurosurgery | March 4, 2022 | Volume: 137 | Issue: 5 | Pages: 1368-1377

10.3171/2021.12.jns211882 | PMID 35213832 Get It

OBJECTIVE Perineural spread of breast cancer to the brachial plexus can lead to pain, sensory alterations, and upper-extremity weakness. Although rare, perineural spread is an often-misdiagnosed long-term complication following breast cancer diagnosis. The objective of this study was to critically review the clinical, radiological, and pathological findings of biopsy-proven perineural spread of breast cancer to the brachial plexus. METHODS This is a retrospective study from a single institution in which a total of 19 patients with brachial plexus involvement from perineural spread of breast cancer who underwent fascicular biopsy between 1999 and 2021 were identified. Clinical, radiographic, and pathological data were retrospectively collected. Descriptive statistics were calculated for the cohort. RESULTS The mean age of patients at the time of diagnosis of breast cancer perineural spread was 60.6 ± 11.5 years. The diagnosis of brachial plexopathy due to perineural spread was on average 12 years after the primary diagnosis of breast cancer. There was also a delay in diagnosis due to the rarity of this disease, with a mean time from initial symptom onset to diagnosis of perineural spread of 25 ± 30 months. All patients at the time of presentation had upper-extremity weakness and pain. Nearly all patients demonstrated T2 signal change and nodular so-called sugar-coating contrast enhancement on brachial plexus MRI. Similarly, all patients who underwent PET/MRI or PET/CT had increased FDG uptake in the involved brachial plexus. Breast cancer perineural spread has an overall poor prognosis, with 16 of 19 patients dying within 5.9 ± 3.0 years after diagnosis of perineural spread. CONCLUSIONS Perineural spread should be considered in patients with a history of breast cancer, even 10 years after primary diagnosis, especially in patients who present with arm pain, weakness, and/or sensory changes. Further diagnostic workup with electrodiagnostic studies; brachial plexus MRI, PET/CT, or PET/MRI; and possibly nerve biopsy is warranted to ensure accurate diagnosis.
Low antispike antibody levels correlate with poor outcomes in COVID‐19 breakthrough hospitalizations
Sanghavi, Devang , Bhakta, Shivang , Wadei, Hani M. , Bosch, Wendelyn , Cowart, Jennifer B. , Carter, Rickey E. , Shah, Sadia , Pollock, Benjamin D. , Neville, Matthew R., Oman, Sven P. , Speicher, Leigh L. , Siegel, Jason , Scindia, Ameya D., Matson, Mark W., Sanghavi, Devang K., Shah, Sadia Z. , Speicher, Leigh, Kunze, Katie L. , Carter, Rickey E , Wadei, Hani M , Pollock, Benjamin D , Libertin, Claudia R. , Johnson, Patrick W. , Franco, Pablo Moreno

Mayo Clinic

Journal of Internal Medicine | February 23, 2022 | Volume: 292 | Issue: 1 | Pages: 127-135

10.1111/joim.13471 | PMID 35194861 Get It

AbstractBackgroundWhile COVID‐19 immunization programs attempted to reach targeted rates, cases rose significantly since the emergence of the delta variant. This retrospective cohort study describes the correlation between antispike antibodies and outcomes of hospitalized, breakthrough cases during the delta variant surge.MethodsAll patients with positive SARS‐CoV‐2 polymerase chain reaction hospitalized at Mayo Clinic Florida from 19 June 2021 to 11 November 2021 were considered for analysis. Cases were analyzed by vaccination status. Breakthrough cases were then analyzed by low and high antibody titers against SARS‐CoV‐2 spike protein, with a cut‐off value of ≥132 U/ml. Outcomes included hospital length of stay (LOS), need for intensive care unit (ICU), mechanical ventilation, and mortality. We used 1:1 nearest neighbor propensity score matching without replacement to assess for confounders.ResultsAmong 627 hospitalized patients with COVID‐19, vaccine breakthrough cases were older with more comorbidities compared to unvaccinated. After propensity score matching, the unvaccinated patients had higher mortality (27 [28.4%] vs. 12 [12.6%], p = 0.002) and LOS (7 [1.0–57.0] vs. 5 [1.0–31.0] days, p = 0.011). In breakthrough cases, low‐titer patients were more likely to be solid organ transplant recipients (16 [34.0%] vs. 9 [12.3%], p = 0.006), with higher need for ICU care (24 [51.1%] vs. 22 [11.0%], p = 0.034), longer hospital LOS (median 6 vs. 5 days, p = 0.013), and higher mortality (10 [21.3%] vs. 5 [6.8%], p = 0.025) than high‐titer patients.ConclusionsHospitalized breakthrough cases were more likely to have underlying risk factors than unvaccinated patients. Low‐spike antibody titers may serve as an indicator for poor prognosis in breakthrough cases admitted to the hospital.
Clinical Importance of Molecular Testing in Neuromuscular Choristomas
Maldonado, Andrés A. , Spinner, Robert J. , Carter, Jodi M. , Carter, Jodi , Maldonado, Andres A.

Mayo Clinic

Journal of Neuropathology & Experimental Neurology | February 22, 2022 | Volume: 81 | Issue: 4 | Pages: 308-309

10.1093/jnen/nlac010 | PMID 35190814 Get It

Towards Defining Morphologic Parameters of Normal Parous and Nulliparous Breast Tissues by Artificial Intelligence
Ogony, Joshua, Bel, Thomas de , Kachergus, Jennifer M., Thompson, E. Aubrey , Degnim, Amy C., Ruddy, Kathryn J. , Hilton, Tracy, Vachon, Celine M. , White, Launia J. , Moore, Raymond M. , Carter, Jodi M. , Jensen, Matthew L. , Henry, Jill E. , Storniolo, Anna Maria , Laak, Jeroen van der , Carter, Jodi , Radisky, Derek C. , Degnim, Amy C. , Stallings‐Mann, Melody , Vachon, Celine M. , Hoskin, Tanya L. , Heckman, Michael G. , Vierkant, Robert A. , Jensen, Matthew, Pacheco-Spann, Laura M. , Winham, Stacey J. , Sherman, Mark E.

Mayo Clinic

No container title available | February 21, 2022 | Volume: No volume available | Issue: No issue available | Pages: No page available

10.21203/rs.3.rs-1359557/v1 Get It

Abstract Background:Breast terminal duct lobular units (TDLUs), the source of most breast cancer (BC) precursors, are shaped by age-related involution, a gradual process, and postpartum involution (PPI), a dramatic inflammatory process that restores baseline microanatomy after weaning. Dysregulated PPI is implicated in the pathogenesis of postpartum BCs. We propose that assessment of TDLUs in the postpartum period may have value in risk estimation, but characteristics of these tissues in relation to epidemiological factors are incompletely described.Methods: Using validated Artificial Intelligence and morphometric methods, we analyzed digitized images of tissue sections of normal breast tissues stained with hematoxylin and eosin from donors <45 years from the Komen Tissue Bank (180 parous and 545 nulliparous). Metrics assessed by AI, included: TDLU count; adipose tissue fraction; mean acini count/TDLU; mean dilated acini; mean average acini area; mean “capillary” area; mean epithelial area; mean ratio of epithelial area versus intralobular stroma; mean mononuclear cell count (surrogate of immune cells); mean fat area proximate to TDLUs and TDLU area. We compared epidemiologic characteristics collected via questionnaire by parity status and race, using a Wilcoxon rank sum test or Fisher’s exact test. Histologic features were compared between nulliparous and parous women (overall and by time between last birth and donation [ recent birth: ≤5 years versus remote birth: >5 years]) using multivariable regression models.Results:Normal breast tissues of parous women contained significantly higher TDLU counts and acini counts, more frequent dilated acini, higher mononuclear cell counts in TDLUs and smaller acini area per TDLU than nulliparas (all multivariable analyses p<0.001). Differences in TDLU counts and average acini size persisted for >5 years postpartum whereas increases in immune cells were most marked <5 years of a birth. Relationships were suggestively modified by several other factors, including demographic and reproductive characteristics, ethanol consumption and breastfeeding duration. Conclusions:Our study identified sustained expansion of TDLU numbers and reduced average acini area among parous versus nulliparous women and notable increases in immune responses within five years following childbirth. Further, we show that quantitative characteristics of normal breast samples vary with demographic features and BC risk factors.
An IL-9–pulmonary macrophage axis defines the allergic lung inflammatory environment
Fu, Yongyao , Wang, Jocelyn , Zhou, Baohua , Pajulas, Abigail , Gao, Hongyu , Ramdas, Baskar , Koh, Byunghee , Ulrich, Benjamin J. , Yang, Shuangshuang , Kapur, Reuben , Licona-Limón, Paula , Takatsuka, Shogo , Kitamura, Daisuke , Kaplan, Mark H. , Renauld, Jean-Christophe , Paczesny, Sophie , Liu, Yunlong , Tighe, Robert M , Licona-Limón, Paula , Flavell, Richard A , Takatsuka, Shogo , Tepper, Robert S , Sun, Jie , Kaplan, Mark H , Tighe, Robert M. , Flavell, Richard A. , Sun, Jie

Mayo Clinic

Science Immunology | February 18, 2022 | Volume: 7 | Issue: 68 | Pages: No page available

10.1126/sciimmunol.abi9768 | PMID 35179949 Get It

Despite IL-9 functioning as a pleiotropic cytokine in mucosal environments, the IL-9–responsive cell repertoire is still not well defined. Here, we found that IL-9 mediates proallergic activities in the lungs by targeting lung macrophages. IL-9 inhibits alveolar macrophage expansion and promotes recruitment of monocytes that develop into CD11c + and CD11c − interstitial macrophage populations. Interstitial macrophages were required for IL-9–dependent allergic responses. Mechanistically, IL-9 affected the function of lung macrophages by inducing Arg1 activity. Compared with Arg1-deficient lung macrophages, Arg1-expressing macrophages expressed greater amounts of CCL5. Adoptive transfer of Arg1 + lung macrophages but not Arg1 − lung macrophages promoted allergic inflammation that Il9r −/− mice were protected against. In parallel, the elevated expression of IL-9, IL-9R, Arg1, and CCL5 was correlated with disease in patients with asthma. Thus, our study uncovers an IL-9/macrophage/Arg1 axis as a potential therapeutic target for allergic airway inflammation.
Cardiovascular Disease Screening in Women: Leveraging Artificial Intelligence and Digital Tools
Adedinsewo, Demilade , Pollak, Amy W., Phillips, Sabrina D., Smith, Taryn L., Svatikova, Anna, Hayes, Sharonne N. , Mulvagh, Sharon L., Norris, Colleen M. , Roger, Véronique L. , Noseworthy, Peter A. , Carter, Rickey E. , Adedinsewo, Demilade A , Norris, Colleen , Yao, Xiaoxi , Carter, Rickey E , Noseworthy, Peter A , Hayes, Sharonne N , Pollak, Amy W., Phillips, Sabrina D., Smith, Taryn L., Svatikova, Anna, Mulvagh, Sharon L., Roger, Veronique L

Mayo Clinic

Circulation Research | February 17, 2022 | Volume: 130 | Issue: 4 | Pages: 673-690

10.1161/circresaha.121.319876 | PMID 35175849 Get It

Cardiovascular disease remains the leading cause of death in women. Given accumulating evidence on sex- and gender-based differences in cardiovascular disease development and outcomes, the need for more effective approaches to screening for risk factors and phenotypes in women is ever urgent. Public health surveillance and health care delivery systems now continuously generate massive amounts of data that could be leveraged to enable both screening of cardiovascular risk and implementation of tailored preventive interventions across a woman’s life span. However, health care providers, clinical guidelines committees, and health policy experts are not yet sufficiently equipped to optimize the collection of data on women, use or interpret these data, or develop approaches to targeting interventions. Therefore, we provide a broad overview of the key opportunities for cardiovascular screening in women while highlighting the potential applications of artificial intelligence along with digital technologies and tools.
Breast Cancer Screening Strategies for Women With ATM, CHEK2, and PALB2 Pathogenic Variants
Lowry, Kathryn P. , Geuzinge, H. Amarens , Stout, Natasha K. , Alagöz, Oğuzhan , Hampton, John M. , Koning, Harry J. de , Miglioretti, Diana L. , Ravesteyn, Nicolien T. van , Sprague, Brian L. , Tosteson, Anna N.A. , Weaver, Donald L. , Yaffe, Martin J. , Mandelblatt, Jeanne S. , Kurian, Allison W. , Auer, Paul L. , Berstein, Leslie, Carter, Brian D., Gaudet, Mia M. , Haiman, Christopher, Jacobs, Eric J. , John, Esther M. , Lindström, Sara , Martínez, Elena, Patel, Alpa V. , Reid, Sonya , Taylor, Jack A. , Teras, Lauren R., Vachon, Celine M. , Yao, Song, Ziogas, Argyrios, Goldgar, David E. , Chen, Chen , Chen, C , Miglioretti, Diana L , John, Esther M , Taylor, Jack A , de Koning, Harry J , Kurian, Allison W , Kerlikowske, Karla , Schechter, Clyde B. , Trentham‐Dietz, Amy , Yeh, Jennifer M. , Couch, Fergus J. , Hu, Chunling , Kraft, Peter , Polley, Eric C. , Robson, Mark E. , Hart, Steven N. , Nathanson, Katherine L. , Domchek, Susan M. , Ambrosone, Christine B. , Anton‐Culver, Hoda , Bandera, Elisa V. , Bertrand, Kimberly A. , Burnside, Elizabeth S. , Eliassen, A. Heather , Hodge, James M. , Hunter, David J. , Kooperberg, Charles , Lacey, James V. , Marchand, Loı̈c Le , Ma, Huiyan , Neuhausen, Susan L. , Newcomb, Polly A. , O’Brien, Katie M. , Olson, Janet E. , Ong, Irene M. , Pal, Tuya , Palmer, Julie R. , Rosenberg, Lynn A. , Sandler, Dale P. , Tamimi, Rulla M. , Teras, Lauren R. , Vachon, Celine M. , Weinberg, Clarice R. , Yadav, Siddhartha , Yao, Song , Weitzel, Jeffrey N.

Mayo Clinic

JAMA Oncology | February 17, 2022 | Volume: 8 | Issue: 4 | Pages: 587

10.1001/jamaoncol.2021.6204 | PMID 35175286 Get It