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1 e electronic publication of classic books in mouse genetics.
2 remains one of the longstanding mysteries of mouse genetics.
3 n vivo roles established by cell biology and mouse genetics.
4 ow-level transcription in this process using mouse genetics.
5 for this apparent noncanonical signal using mouse genetics.
6 e xenografts, patient-derived xenografts and mouse genetics.
7 g molecular and chemical expression aided by mouse genetics.
8 this apparent discrepancy between human and mouse genetics.
9 iques and how they are changing the field of mouse genetics.
10 bral cortex using loss- and gain-of-function mouse genetics.
11 nship between Zic2 and the Shh pathway using mouse genetics.
12 nimals including lesion studies, imaging and mouse genetics.
13 mline capacity of ES cells, and the power of mouse genetics.
14 red mouse strains provide the foundation for mouse genetics.
18 ue of Neuron, Cho et al. (2017) use advanced mouse genetics and biochemical experiments to unravel th
26 aims to fill this gap by employing advanced mouse genetics and genomics techniques to dissect the im
28 cladistic analysis, which is well suited for mouse genetics and has increased flexibility over existi
30 scaffolding protein families and explore how mouse genetics and human genetics have intersected to ad
39 n of single-cell RNA sequencing (scRNA-seq), mouse genetics and tissue injury approaches, we uncover
42 Inbred strains are a distinctive feature of mouse genetics and we discuss their history, advantages
43 Using primary and engineered human tissues, mouse genetics, and a multi-omics approach, we demonstra
46 on of high-throughput sequencing approaches, mouse genetics, and murine and human organoids and ident
47 vivo spinal cord two-photon calcium imaging, mouse genetics, and persistent pain models to study how
48 hree-dimensional imaging, cell type-specific mouse genetics, and surgical approaches to investigate s
49 Using an in vivo reporter of Shh signaling, mouse genetics, and systems modeling, we show that a spa
54 ew focuses on the last year's progress using mouse genetics as a tool to study intrinsic mechanisms o
55 ic combination of bioinformatic analysis and mouse genetics as well as embryo and explant culture exp
56 cluded in this account are the beginnings of mouse genetics at the Bussey Institute, Columbia Univers
59 s work will become a useful resource for the mouse genetics community to understand gene functions.
62 d using high-resolution approaches combining mouse genetics, designer receptor exclusively activated
70 ve combined cell type-specific and inducible mouse genetics, flow experiments in vitro, single-cell R
72 xP technology is widely used in the field of mouse genetics for spatial and/or temporal regulation of
73 st anticipated and less heralded outcomes of mouse genetics has been to rediscover whole organism phy
76 by genome scans of multi-case families, and mouse genetics has contributed to mapping and identifica
89 t of these pan-genomic mutational resources, mouse genetics is employing a range of diversity resourc
95 cale phenotyping projects such as the Sanger Mouse Genetics project are ongoing efforts to help ident
96 We describe a program, the Sanger Institute Mouse Genetics Project, that provides a step toward the
97 set from the Wellcome Trust Sanger Institute Mouse Genetics Project, where the treatment is a gene ab
100 erve as a valuable practical resource in the mouse genetics research community, and also accelerate t
101 The Collaborative Cross (CC) is a robust mouse genetics resource comprised of a panel of recombin
102 o eliminate integrin binding in vitro, while mouse genetics revealed that FNRGE preserves alphav-clas
106 is journey, including in vitro brain slices, mouse genetics, single-cell molecular genetics, pharmaco
107 devise genomics, in situ hybridization, and mouse genetics strategies to uncover diverse allelic eff
112 o not negate the invaluable contributions of mouse genetics to biomedical science, but they do show t
113 , we used metabolomics, isotope tracing, and mouse genetics to define a role for liver mTORC1 signali
114 to mutant phenotypes and unlocks the use of mouse genetics to determine functions of orthologous hum
118 a combination of high-content screening and mouse genetics to identify the miR-34/449 family as key
120 e of Blood, Yan et al and Walz et al exploit mouse genetics to investigate the contribution of signal
123 use Vibrio cholerae neuraminidase (VCN) and mouse genetics to probe the molecular composition of the
124 eel, who have exploited the use of human and mouse genetics to revolutionize our understanding of the
129 eir epithelial counterparts, we used in vivo mouse genetics tools to characterize four prostate strom
132 ing quantitative proteomics, lipidomics, and mouse genetics, we characterize epidermal barrier mainte
133 lution light-sheet imaging and cell-specific mouse genetics, we demonstrate presence of lymphatic ves
134 munohistochemistry, structural modeling, and mouse genetics, we demonstrate that all but one of the s
138 ughput approaches, cell culture, and in vivo mouse genetics, we dissected its roles in tissue regener
145 ing a combination of functional genomics and mouse genetics, we identified a role for the transcripti
152 ersw, three-dimensional (3D) microscopy, and mouse genetics, we show that LCs are situated at the end
156 13 issue of the JCI, Cutando et al. combined mouse genetics with classic mouse behavioral analysis to
162 in various biological contexts, e.g. cancer, mouse genetics, yeast genetics, and analysis of brain im