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CRATER tumor niches facilitate CD8+ T cell engagement and correspond with immunotherapy success [Spatial transcriptomics]
GEO Series GSE312604. Danio rerio. 1 samples. Type: Other.
Mean annual water yield versus SPEI value, geodetector results and land cover type corresponding water yield
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ERAI corresponding to KMA data
<p>ERAI corresponding to KMA data</p>
Fig. 5 in A general theory of genital homologies for the Hexapoda (Pancrustacea) derived from skeletomuscular correspondences, with emphasis on the Endopterygota
Fig. 5. Genital skeletomusculature of Sialis nevadensis (Megaloptera: Sialidae). AeD, genitalia and postgenital segments: A, dorsal; B, lateral; C, ventral; D, lateral oblique, genitalia rotated. E, penial sclerite, lateropenites, and cerci, lateral oblique. F, sternum, mesal. G, penial sclerite and lateropenites. H, I, genitalia and tergum IX with parts of second coxites and left stylus removed,mesal oblique.Abbreviations: An ¼ anus; Cace ¼ callus cercus; Ce ¼ cercus; Cxa ¼ gonocoxa (fused with tergum IX); Cxt ¼ gonocoxite (fused with stylus); Cxt þ Sty ¼ coxostylar composite sclerite; Lpe ¼ lateropenite; Pen ¼ penial sclerite; Phtr ¼ phallotreme; Prct ¼ proctiger; Sacd ¼ dorsal genital sac; Sacm ¼ median genital sac; Sacv ¼ ventral genital sac; StIX ¼ sternum IX; Sty ¼ gonostylus (fused with gonocoxite); TgIX ¼ tergum IX (fused with gonocoxae) TgIX þ Cxa ¼ tergocoxal composite sclerite; Vcl ¼ ventral coxital lobe. Muscle abbreviations indicated in Table 1.
Fig. 1 in A general theory of genital homologies for the Hexapoda (Pancrustacea) derived from skeletomuscular correspondences, with emphasis on the Endopterygota
Fig. 1. Hypotheses of skeletomuscular homologies and evolutionary pathways here proposed based on topological and functional correspondences. Note that, for clarity, proportions and angles in these schemata have been distorted to varying degrees.Muscle names from the literature included in specific figures are either indicated in parentheses,(), or in black boxes (hence square brackets, []). Color coding as follows: Dark grey ¼ tergum or sternum; light grey in (A) ¼ tendon while light grey in (C) ¼ penial sclerites; dark red ¼ pleuron; red ¼ protopod; barred red and grey ¼ coxosternum or tergocoxosternum (¼ pygophore); dark yellow ¼ exopod (¼ stylus); barred yellow and red ¼ protopod- exopod composite;green ¼ endopod; blue ¼ gonopod, penis, or penial sclerite;light blue ¼ lateropenite; barred blue and red ¼ protopodal-penial composite. A1e5, transformation and homology from a pancrustacean groundplan represented by Remipedia (A1: Hessler and Yager,1998) to Protura (A2: [François and Dallai, 1989; Berlese,1910; Schö adl, 2013]), Archaeognatha (A3, 4: [alphabetical labels: Birket-Smith, 1974; numerical labels: Bitsch, 1973, 1974a, b]), and Zygentoma (A5: [Birket-Smith, 1974]). B1e3, transformation from ectognath groundplan represented by A4 to pterygote groundplan (B1: Hessler and Yager,1998), the Ephemeroptera (B2: before slash: Brinck,1957; after slash: Birket-Smith,1971), and the inferred groundplan of the Neoptera (B3). C1e9, transformation from neopteran groundplan (B3) to polyneopteran groundplan (C1) through all polyneopteran orders (C2: Popham,1965; C3: Matsumura et al., 2014; C4: Hünefeld, 2007; C5: Zwick,1973; C6: Eades, 2000; C7: Helm et al., 2011; C8: Walker,1943; C9: Klass,1997). D1, groundplan inferred for Eumetabola. E1e6, transformation from eumetabolan groundplan (D1) to Thysanoptera (E1: Heming,1970) and the hemipteran groundplan (E2); from this latter groundplan to Fulgoroidea (E3: Fennah,1945), Aleyrodoidea (E4: Weber,1935), Pyrrhocoridae and Belostomatidae (E5: before slash: Khanna,1963; after slash: Bhargava,1967), and Lygaeidae (E6: Bonhag and Wick, 1953). F1e5, transformation from phalloneopteran groundplan (F1) to psocodean groundplan (F2: Klier, 1956) and endopterygote groundplan (F5), the latter through precursors showing duplication of the penial protractors and retractors (F3 to F4) and splitting of the lateropenite from the penis (F4 to F5). G1e3, transformation from endopterygote groundplan to hymenopteran groundplan (G3: Schulmeister, 2001). H1e6, transformation from the neuropteridan groundplan, represented by Raphidioptera (H1), to Corydalidae (H4), Sialidae (H5), and Myrmeleontidae (H6: Krivokhatsky, 2002) (note that, although the TgIX and GcxI are fused together in H4 and H5, they are still visually distinguishable, unlike in H6). I1e7, derivation of coleopteridan genital forms from an inferred precursor (I1), including the Strepsiptera (I8: Hünefeld et al., 2011b); inferred "trilobe" groundplan of the Coleoptera (I2), a trilobe form represented by Cantharidae (I3), cucujoid form represented by Curculionidae (I5), and an adephagan form represented by Dytiscidae (I7). J1e6, transformations inferred to derive a groundplan for the Euantliophora (J6) which accounts for all observed genital sclerites and muscles. JIeIV, transformations inferrred for the Nannochoristidae (JI: Mickoleit, 2008), Bittacidae (JIII: Gao and Hua, 2015), and Panorpidae (JIV: Mickoleit, 2008). Jieviii, a transformation series inferred to explain the highly derived skeletomusculature of the Siphonaptera (Jviii: Günther,1961). K1e2, representatives of the Diptera (K1: Spangenberg et al., 2012; K2: Paramonov,2004). L1e3, Amphiesmenoptera, with Trichopteradrepresented by Limnephilidae (L2)dand the lepidopteran groundplan (L3: Kristensen, 1984) derived from an approximated groundplan for the higher clade (L1). Muscle abbreviations indicated in Table 1. Sclerite and other abbreviations: Al ¼ anchoring ligament; (Ars) ¼ arcessus (see Aspö ock, 2002); Ba ¼ basis; bp ¼ "basal piece" (sensu Crowson,1955,1981); (Cin) ¼ cingulum; Cx ¼ coxa (in the carcinological sense); Cxa ¼ coxa (in entomological sense) or secondary gonocoxa (i.e., coxa IX in Ectognatha); (Cxp) ¼ coxopenis; Cxt ¼ coxite or gonocoxite (i.e., coxite of segment IX in Ectognatha); (Daev) ¼ dorsal "aedeagal" valves; Gna ¼ gonapophysis; (Gnr) ¼ gonarcus (see Aspö ock, 2002); Endst ¼ endosternum; Enp ¼ endopod; (Epp) ¼ epiphallus; Exp ¼ exopod; Gpo ¼ gonopore; (Harp) ¼ harpago (sensu Klier, 1956); (Ls) ¼ lateral sclerite; (ml55) ¼ "median lobe" (sensu Crowson, 1955); (Mn) ¼ manubrium (sensu Popham, 1965); (PA) ¼ "penial arm" (sensu Brinck, 1957); Pen ¼ penis; (Phb) ¼ phallobase (sensu Lawrence et al., 2010);Pht ¼ phallotreme; Pl ¼ pleuron; (pm1), (pm2) ¼ "paramere" (Coleoptera, sensu Crowson, 1955, 1981; Lawrence et al., 2010); ("Pm") ¼ "paramere" (Dermaptera,sensu Popham,1965); (pp81) ¼ "penis proper" (sensu Crowson,1981); Prct ¼ proctiger;Prp ¼ protopod (comprises Ba, Cx); (Pyph) ¼ pygophore; scls ¼ sclerites; St ¼ sternum; Sty ¼ stylus; StCxIX ¼ coxosternum; Tg ¼ tergum; (Tig) ¼ tignum (see Aspö ock, 2002); Tl ¼ transverse ligament; (Vaev) ¼ ventral "aedeagal" valves; Vst ¼ ventral segmental tendon. Sclerite abbreviations, Euantliophora (J1e6, IeIV, ieviii; see sections 4.5 and 4.5.4): aed. apod. ¼ aedeagal apodem; aed. apod. prec. ¼ aedeagal apodem precursor; aedt.¼ aedeagaltasche; bulb. ¼ bulbalis; d. ps.par.¼ dorsal pseudoparameren; endot. ¼ endotendons; ham. ¼ hamulus; hypot.¼ hypotendons; inn. tub. ¼ innere tube; kam. ¼ kammersklerit; lun. skl. ¼ lunarsklerit; mittelpl. ¼ mittelplatte; ostial. ¼ ostialsklerit; param. ¼ "paramere"; phb. ¼ "phallobasis"; pistillt. ¼ pistilltrö ager; teg. ¼ tegimen; telom. ¼ telomere; virg. vent. ¼ virga ventralis; Y-skl. ¼ Y-sklerit.
Fig. 4 in A general theory of genital homologies for the Hexapoda (Pancrustacea) derived from skeletomuscular correspondences, with emphasis on the Endopterygota
Fig. 4. Genital skeletomusculature of Corydalus sp. (Megaloptera: Corydalidae). A, genitalia, dorsal. B, genitalia in situ, ventral. C, D, genitalia, sternum and penial-leteropenital complex removed, mesal, D with part of left half removed. E, F, genitalia, sternum removed: E, mesal oblique; F, mesal. G, phallotreme and associated tissues. H, I, penial sclerite and lateropenite: H, ectal; I, mesal. J, left half of genitalia, anterior oblique. K, sternum, mesal oblique. L, left genital half, stylus, penis, and lateropenites removed, mesal. Abbreviations: An ¼ anus; Cace ¼ callus cercus; Ce ¼ cercus; Cxa ¼ gonocoxa; Lpe ¼ lateropenite; Pen ¼ penis; Penscl ¼ penial sclerite; Phtr ¼ phallotreme; Prct ¼ proctiger; StIX ¼ sternum IX; Sty ¼ stylus; Stystr ¼ stylar strut; TgIX ¼ tergum IX. Muscle abbreviations indicated in Table 1.
Construction of an Ultrasound Profile and a Mammographic Profile Corresponding to the Different Molecular Subtypes of Brest Cancer. A Retrospective Study
ClinicalTrials.gov study NCT05757232. IPD Sharing: Not stated. Countries: 0. Publications: 0.
Correspondence of Folate Dietary Intake and Biomarker Data
ClinicalTrials.gov study NCT03089684. IPD Sharing: UNDECIDED. Countries: 0. Publications: 0.
Human sinonasal squamous cell carcinoma: Cell lines and corresponding primary tumors
GEO Series GSE57201. Homo sapiens. 12 samples. Type: Genome variation profiling by genome tiling array.
Expression data from SCEC and corresponding normal samples
GEO Series GSE111044. Homo sapiens. 6 samples. Type: Expression profiling by array.
Gene Expression Pattern in EP300 knocked-down MCF7 cells and corresponding paclitaxel resistant derivatives
GEO Series GSE76200. Homo sapiens. 16 samples. Type: Expression profiling by array.
Gene expression data from THP-1 cells exposed to exosomes from acetaminophen-treated or vehicle-treated hepatocytes or corresponding mock- or medium-controls
GEO Series GSE125690. Homo sapiens. 24 samples. Type: Expression profiling by array.
Global gene expression analysis of vascular progenitors differentiated from human embryonic stem cells or induced pluripotent stem cells and their corresponding donor starting cells
GEO Series GSE44429. Homo sapiens. 16 samples. Type: Expression profiling by array.
Ectopic expression of transcriptional regulatory proteins reveals two classes of late genes during chlamydial development, corresponding to the IB and EB cell type.
GEO Series GSE276506. Chlamydia trachomatis. 8 samples. Type: Expression profiling by high throughput sequencing.
Multiple Histone modifications ChIP-seq in MCF7 cells corresponding to Ctr9 KD (paper title: Ctr9, the scaffold subunit of PAFc, govens PRC2-mediated H3K27me3 domains in breast cancer cells)
GEO Series GSE133318. Homo sapiens. 20 samples. Type: Genome binding/occupancy profiling by high throughput sequencing.
Brain-wide Correspondence Between Neuronal Epigenomics and Long-Distance Projections [4]
GEO Series GSE231414. Mus musculus. 8000 samples. Type: Methylation profiling by high throughput sequencing.
Brain-wide Correspondence Between Neuronal Epigenomics and Long-Distance Projections [3]
GEO Series GSE231326. Mus musculus. 8000 samples. Type: Methylation profiling by high throughput sequencing.
Circulating isomiRs May Be Superior Biomarkers Compared to Their Corresponding Canonical miRNAs: A Pilot Biomarker Study of Using isomiR-ome to Detect Coronary Calcium-Based Cardiovascular Risk in P
GEO Series GSE199533. Homo sapiens. 13 samples. Type: Non-coding RNA profiling by high throughput sequencing.
Gene expression changes in galls at 21 dai and corresponding uninfected roots from Poplar CAD and WT lines
GEO Series GSE112673. Populus tremula x Populus alba. 11 samples. Type: Expression profiling by high throughput sequencing.
TAT-CRE inhalation enables tumor induction corresponding to adenoviral Cre-recombinase in a lung cancer mouse model
GEO Series GSE294262. Mus musculus. 2 samples. Type: Expression profiling by high throughput sequencing.
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.