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Items: 1 to 20 of 269

1.

Post-prandial cardiac hypertrophy is sustained by mechanics, epigenetic, and metabolic reprogramming in pythons [ATAC-Seq]

(Submitter supplied) Constricting pythons, known for their ability to consume infrequent, massive meals, exhibit rapid and reversible cardiac hypertrophy following feeding. Our primary goal was to investigate how python hearts achieve this adaptive response after feeding. Isolated myofibrils increased force after feeding without changes in sarcomere ultrastructure and without increasing energy cost. Ca2+ transients were prolonged after feeding with no changes in myofibril Ca2+ sensitivity. more...
Organism:
Python regius
Type:
Genome binding/occupancy profiling by high throughput sequencing
Platform:
GPL27701
14 Samples
Download data: BED, BEDGRAPH
Series
Accession:
GSE273555
ID:
200273555
2.

Post-prandial cardiac hypertrophy is sustained by mechanics, epigenetic, and metabolic reprogramming in pythons [RNA-Seq]

(Submitter supplied) Constricting pythons, known for their ability to consume infrequent, massive meals, exhibit rapid and reversible cardiac hypertrophy following feeding. Our primary goal was to investigate how python hearts achieve this adaptive response after feeding. Isolated myofibrils increased force after feeding without changes in sarcomere ultrastructure and without increasing energy cost. Ca2+ transients were prolonged after feeding with no changes in myofibril Ca2+ sensitivity. more...
Organism:
Python regius
Type:
Expression profiling by high throughput sequencing
Platform:
GPL27701
6 Samples
Download data: TXT
Series
Accession:
GSE273554
ID:
200273554
3.

PMEL is involved in snake color pattern transition from blotches to stripes [scRNA-seq]

(Submitter supplied) Our genomic, bulk and single-cell transcriptomic, functional, and developmental characterization of the Terrazzo corn snake color morph and the extensive comparison with wild-type snakes puts forward the dual role of PMEL in snake skin coloration, both in the differentiation of chromatophores during embryogenesis and the melanogenesis in melanophores.
Organism:
Pantherophis guttatus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL34323
1 Sample
Download data: H5AD
Series
Accession:
GSE262160
ID:
200262160
4.

PMEL is involved in snake color pattern transition from blotches to stripes [bulk RNA-seq]

(Submitter supplied) Our genomic, bulk and single-cell transcriptomic, functional, and developmental characterization of the Terrazzo corn snake color morph and the extensive comparison with wild-type snakes puts forward the dual role of PMEL in snake skin coloration, both in the differentiation of chromatophores during embryogenesis and the melanogenesis in melanophores.
Organism:
Pantherophis guttatus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL34322
6 Samples
Download data: TSV
Series
Accession:
GSE262159
ID:
200262159
5.

Diverse gene regulatory mechanisms alter rattlesnake venom gene expression at fine evolutionary scales

(Submitter supplied) Understanding and predicting the relationships between genotype and phenotype is often challenging, largely due to the complex nature of eukaryotic gene regulation. A step towards this goal is to map how phenotypic variation evolves through genomic changes that modify gene regulatory interactions. Using the Prairie Rattlesnake (Crotalus viridis) and related species, we integrate mRNA-seq, proteomic, ATAC-seq and whole genome resequencing data to understand how specific evolutionary modifications to gene regulatory network components produce variation in venom gene expression. more...
Organism:
Crotalus lutosus; Crotalus viridis; Crotalus concolor
Type:
Genome binding/occupancy profiling by high throughput sequencing
Platforms:
GPL34140 GPL29886 GPL34139
11 Samples
Download data: BW
Series
Accession:
GSE254420
ID:
200254420
6.

Regression of Post-Prandial Cardiac Hypertrophy in Burmese Pythons is Mediated by FoxO1

(Submitter supplied) As ambush-hunting predators that consume large prey after long intervals of fasting, Burmese pythons evolved with unique adaptations for regulating organ structure and function. Among these is cardiac hypertrophy that develops within three days following a meal (1, 2), which we previously showed was initiated by circulating growth factors (3). Post-prandial cardiac hypertrophy in pythons also rapidly regresses with subsequent fasting (2); however, the molecular mechanisms that regulate the dynamic cardiac remodeling in pythons during digestion are largely unknown. more...
Organism:
Python bivittatus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL34688
8 Samples
Download data: TXT
Series
Accession:
GSE271793
ID:
200271793
7.

Comparative analysis of genome-scale, base-resolution DNA methylation profiles across 580 animal species

(Submitter supplied) We mapped DNA methylation in 580 animal species (535 vertebrates, 45 invertebrates), resulting in 2443 genome-scale, base-resolution DNA methylation profiles of primary tissue samples from various organs. Reference-genome independent analysis of this comprehensive dataset defined a “genomic code” of DNA methylation, which allowed us to predict global and locus-specific DNA methylation from the DNA sequence within and across species. more...
Organism:
Riftia pachyptila; Homarus americanus; Pisaster brevispinus; Leucoraja erinaceus; Negaprion brevirostris; Danio rerio; Esox lucius; Gadus morhua; Myzopsetta ferruginea; Chelydra serpentina; Emydidae; Graptemys; Varanus exanthematicus; Naja; Vipera ammodytes; Dromaius novaehollandiae; Columba livia; Falco peregrinus; Haliaeetus albicilla; Serinus; Phalacrocorax carbo; Macropodidae; Erinaceidae; Leontocebus fuscicollis; Saguinus mystax; Cercopithecus; Vulpes vulpes; Ursus; Ursus arctos; Procyon lotor; Meles meles; Felis catus; Tayassuidae; Cervidae; Cervus nippon; Muntiacus; Ammotragus; Bos; Boselaphus tragocamelus; Bubalus; Cricetinae; Caviidae; Hydrochoerus hydrochaeris; Heterocephalus; Macroscelidea; Macroscelides proboscideus; Dolichotis; Duttaphrynus melanostictus; Corvus corone; Strigiformes; Vicugna pacos; Yinpterochiroptera; Acinonyx; Colobus guereza; Glyptocephalus cynoglossus; Erethizon; Nyctereutes; Trachemys; Stenotomus chrysops; Zosteropidae; Strix uralensis; Hippotragus; Vidua paradisaea; Cebinae; Phascolarctos cinereus; Leiocephalus; Carollia perspicillata; Milvus milvus; Cynomys; Psammomys obesus; Sylvia atricapilla; Python regius; Pogona barbata; Aquila heliaca; Eurypygidae; Jacanidae; Lissemys punctata; Ecsenius; Agapornis; Mimus polyglottos; Canis aureus; Tiliqua scincoides; Sebastes mystinus; Sebastes paucispinis; Ariopsis felis; Abronia anzuetoi; Eudyptes chrysocome; Pomacentrus coelestis; Terrapene; Lampropeltis; Embiotoca jacksoni; Geronticus eremita; Fromia indica; Ducula bicolor; Rhinoptera bonasus; Probosciger aterrimus; Monacanthidae; Halichoeres trimaculatus; Phyllopteryx taeniolatus; Tringa totanus; Chloropsis; Tockus deckeni; Chamaeleo calyptratus; Gymnothorax moringa; Centropristis striata; Erpeton; Laemanctus; Labroides bicolor; Cuora mccordi; Amazona agilis; Histrio histrio; Zenopsis conchifer; Uraeginthus bengalus; Bathymaster signatus; Pseudobalistes fuscus; Trachemys scripta scripta; Sebastes borealis; Lutjanus quinquelineatus; Lepidopsetta polyxystra; Oxycheilinus digramma; Giraffa giraffa; Pleoticus muelleri; Ovis orientalis; Geopelia placida; Photoblepharon palpebratum; Calyptocephallela gayi; Scolopsis bilineata; Atherinomorus vaigiensis; Leptoclinus maculatus; Coris caudimacula; Gadus chalcogrammus; Doryteuthis pealeii; Crocodylia; Ophioderma panamensis; Notamacropus rufogriseus; Cirrhilabrus lineatus; Lonchura oryzivora; Tockus alboterminatus; Mya arenaria; Loligo vulgaris; Strongylocentrotus droebachiensis; Holothuria; Ciona intestinalis; Lophius piscatorius; Hemitripterus americanus; Cyclopterus lumpus; Thunnus albacares; Testudinidae; Varanus; Gekkonidae; Boa constrictor; Struthio camelus; Sturnus vulgaris; Phoenicopteriformes; Ara; Ara ararauna; Aptenodytes patagonicus; Petauridae; Dasypodidae; Scandentia; Varecia; Saguinus; Macaca sylvanus; Papio hamadryas; Theropithecus gelada; Canis lupus familiaris; Nasua; Martes foina; Mustela putorius; Felis silvestris; Phocidae; Equus; Equus zebra; Sus scrofa; Bison bonasus; Capra; Apodemus sylvaticus; Lagostomus maximus; Myocastor coypus; Saccoglossus kowalevskii; Psittacus; Castoridae; Styela montereyensis; Ardea; Buteo; Buteo buteo; Balearica pavonina; Grus japonensis; Corvus; Bubo bubo; Carcharias taurus; Axis axis; Vicugna; Hippoglossoides elassodon; Trachemys scripta elegans; Gypaetus; Morone saxatilis; Hippoglossoides platessoides; Capromys pilorides; Petaurus breviceps; Suricata; Hemitragus; Chloris chloris; Lepas anatifera; Chamaeleonidae; Lutjanus mahogoni; Circus cyaneus; Pithecia pithecia; Patiria miniata; Geochelone; Cyclura; Apodemus flavicollis; Sciurus vulgaris; Centropomus robalito; Cyclura cornuta; Cornufer guentheri; Antidorcas; Antilope; Kobus leche; Agapornis canus; Agapornis lilianae; Agapornis taranta; Varanus gouldii; Scincidae; Sebastes atrovirens; Sebastes caurinus; Sebastes hopkinsi; Sebastes miniatus; Geoemyda spengleri; Mullus surmuletus; Pomatomus saltator; Corucia zebrata; Picus viridis; Nothobranchius furzeri; Fromia; Asio otus; Strix aluco; Trioceros jacksonii; Theloderma; Nectariniidae; Ploceus cucullatus; Spinus spinus; Ctenochaetus striatus; Urophycis tenuis; Caloenas nicobarica; Euplectes; Coracias garrulus; Pisaster giganteus; Pleurogrammus monopterygius; Glyptocephalus zachirus; Clavelina picta; Mungos mungo; Accipiter nisus; Fistularia commersonii; Cygnus cygnus; Anoplopoma fimbria; Uromastyx ocellata; Stichopus chloronotus; Trachyphonus erythrocephalus; Coris gaimard; Eumyias panayensis; Pytilia melba; Potamochoerus porcus; Ecteinascidia turbinata; Pachyuromys; Holothuria atra; Sebastes semicinctus; Podothecus accipenserinus; Falco cherrug; Pitta moluccensis; Camelus ferus; Ptilinopus pulchellus; Chiroxiphia pareola; Sphoeroides maculatus; Astrochelys yniphora; Boltenia echinata; Echinarachnius parma; Alitta succinea; Bodianus diana; Cantherhines pardalis; Cheilodipterus quinquelineatus; Tetrastes bonasia; Parapercis xanthozona; Lumpenus lampretaeformis; Pseudanthias ventralis; Xenagama wilmsi; Loweina rara; Coracias cyanogaster; Vanellus armatus; Oxycercichthys veliferus; Onuxodon fowleri; Cirrhilabrus roseafascia; Copsychus malabaricus; Hypanus americanus; Octopus vulgaris; Lytechinus variegatus; Squalus acanthias; Mustelus canis; Cyprinus carpio; Salmo salar; Salmo trutta; Pollachius virens; Zoarces americanus; Ambystoma; Iguanidae; Tiliqua rugosa; Natrix tessellata; Crotalus; Dendrocygna viduata; Charadriidae; Ciconia ciconia; Gallus; Coturnix coturnix; Parus major; Sarcophilus; Macropus; Tupaia; Lemur; Papio; Ailurus fulgens; Mustelidae; Lutra lutra; Mustela; Panthera onca; Panthera tigris; Rhinocerotidae; Cervus elaphus; Capra aegagrus; Connochaetes; Lepus europaeus; Marmota; Acomys; Mus musculus; Hystricidae; Melopsittacus; Tamias; Magallana gigas; Molgula citrina; Botryllus schlosseri; Heleophrynidae; Dama dama; Yangochiroptera; Leontopithecus; Pelecanus; Hippotragus equinus; Ostrea edulis; Cricetomyinae; Uromastyx; Cynictis; Glis glis; Oplurus; Bothriechis schlegelii; Brachylophus; Passer domesticus; Jaculus; Sauromalus; Python molurus; Acanthosaura; Shinisaurus crocodilurus; Plegadis falcinellus; Eliomys quercinus; Corvus corax; Coliiformes; Agapornis personatus; Loriculus galgulus; Leptailurus; Lepus timidus; Astrochelys radiata; Tragelaphus angasii; Sebastes constellatus; Sebastolobus alascanus; Paracanthurus hepatus; Corvus frugilegus; Dascyllus aruanus; Coryphaenoides acrolepis; Testudo hermanni; Paracirrhites forsteri; Scyliorhinus retifer; Nardoa novaecaledoniae; Chaetodon lineolatus; Chaetodon lunula; Buteo lagopus; Batoidea; Loweina terminata; Penaeus; Caiman yacare; Cacatua alba; Paroedura picta; Rhacophorus reinwardtii; Recurvirostra avosetta; Irena puella; Bycanistes bucinator; Elops affinis; Philomachus; Zamenis longissimus; Ascidiella aspersa; Tamiops; Amblyglyphidodon leucogaster; Rhinecanthus aculeatus; Hemilepidotus jordani; Triglops scepticus; Oxylebius pictus; Tockus flavirostris; Taurotragus; Cephalopholis miniata; Aotidae; Sebastes chrysomelas; Pterocaesio marri; Notamacropus parma; Lamprotornis chalcurus; Boltenia ovifera; Rhabdamia gracilis; Chrysopelea; Pristigenys alta; Salvelinus umbla; Holothuria cinerascens; Grus paradisea; Lyrurus tetrix; Ammodytes dubius; Cryptacanthodes maculatus; Prionotus carolinus; Ostorhinchus moluccensis; Apostichopus parvimensis; Cyanoloxia brissonii; Leptoptilos crumenifer; Tockus nasutus; Illex illecebrosus; Strongylocentrotus purpuratus; Branchiostoma floridae; Galeocerdo cuvier; Callorhinchus milii; Clupea harengus; Salvelinus alpinus; Xiphias gladius; Ambystoma mexicanum; Heloderma; Casuarius casuarius; Rhea americana; Anas platyrhynchos; Ciconiidae; Columbidae; Accipiter gentilis; Circus aeruginosus; Acryllium vulturinum; Gallus gallus; Perdix perdix; Phasianus colchicus; Coturnix delegorguei; Spheniscus humboldti; Pteropus; Callithrix jacchus; Saguinus oedipus; Saguinus imperator; Macaca; Colobus polykomos; Pongo; Canis lupus; Panthera leo; Panthera pardus; Puma concolor; Tapirus; Sus scrofa domesticus; Camelus dromedarius; Lama glama; Tragulus javanicus; Capreolus capreolus; Rangifer tarandus; Ovis aries; Kobus; Capricornis; Oryctolagus cuniculus; Spermophilus; Cricetus; Rattus norvegicus; Rattus rattus; Amazona; Lynx lynx; Nymphicus hollandicus; Tinca tinca; Dolichotis patagonum; Incilius alvarius; Chauna torquata; Rollulus; Capromyidae; Vipera berus; Scopus umbretta; Rupicapra rupicapra; Pythonidae; Pelecanus crispus; Cucumaria frondosa; Coccothraustes; Polychrus marmoratus; Cygnus melancoryphus; Erythrura; Phodopus campbelli; Neoniphon sammara; Eunectes; Haliaeetus leucocephalus; Cariamidae; Macaca silenus; Musophagidae; Garrulus glandarius; Leontopithecus chrysomelas; Upupa epops; Paralichthys dentatus; Nanger dama; Myoxocephalus octodecemspinosus; Tragelaphus spekii; Sebastes ovalis; Hypselecara coryphaenoides; Spatula querquedula; Equus asinus asinus; Elephas maximus indicus; Falco tinnunculus; Tetrao urogallus; Testudo kleinmanni; Hoplobatrachus tigerinus; Musophaga; Osteoglossum bicirrhosum; Ptilinopus; Athene noctua; Polypedates otilophus; Correlophus ciliatus; Rhinogobiops nicholsii; Otaria; Leucoraja ocellata; Pycnonotus barbatus; Psarisomus dalhousiae; Cynoscion regalis; Acanthurus triostegus; Alectis ciliaris; Lethrinus atkinsoni; Hippoglossina oblonga; Scophthalmus aquosus; Gallicolumba; Amandava subflava; Furcifer pardalis; Choerodon fasciatus; Coronella austriaca; Thyonella gemmata; Neurergus; Diodon hystrix; Canis lupus lycaon; Euplectes orix; Chromis punctipinnis; Haemulon flavolineatum; Semicossyphus pulcher; Dinemellia; Hemisphaeriodon; Halocynthia pyriformis; Phloeomys; Cuora mouhotii; Merops apiaster; Pseudanthias; Ambystoma andersoni; Malacochersus; Cyanoliseus patagonus; Ostorhinchus aureus; Zaprora silenus; Platax teira; Saimiriinae; Pseudomonacanthus peroni; Sebastes norvegicus; Dracaena guianensis; Aonyx cinereus; Merops bullockoides; Ammodytes hexapterus; Sufflamen chrysopterum; Cyclopsitta diophthalma; Centropyge heraldi; Parupeneus spilurus; Vermilingua; Folivora; Lethenteron camtschaticum; Callocephalon fimbriatum; Ophiopteris papillosa; Ophiothrix spiculata; Rhyticeros narcondami; Ostorhinchus rueppellii; Cheilopogon californicus
Type:
Methylation profiling by high throughput sequencing
580 related Platforms
3023 Samples
Download data: BED
Series
Accession:
GSE195869
ID:
200195869
8.

Investigating patterns of chromatin accessibility, histone modifications, and insulation involved in rattlesnake venom gene regulation

(Submitter supplied) We generated ATAC-seq data for pre- and post-extraction venom gland samples and H3K4me3, H3K27ac, and CTCF ChIP-seq from post-extraction venom gland samples from the Prairie Rattlesnake to investigate patterns of chromatin accessibility, transcription factor binding, and insulation during venom production, and to identify open promoters and active enhancer regions.
Organism:
Crotalus viridis
Type:
Genome binding/occupancy profiling by high throughput sequencing
Platform:
GPL29886
6 Samples
Download data: BW, NARROWPEAK, TXT
Series
Accession:
GSE169217
ID:
200169217
9.

3D genomics across the tree of life reveals condensin II as a determinant of architecture type

(Submitter supplied) We investigated genome folding across the eukaryotic tree of life. We find four general manifestations of genome organization at chromosome-scale that each emerge and disappear repeatedly over the course of evolution. The submission represents chromosome-length Hi-C contact maps, architecture type and homolog separation analyses for 26 species across the tree of life, representing all subphyla of chordates, all 7 extant vertebrate classes, and 7 out of 9 major animal phyla, as well as plants and fungi.
Organism:
Saccharomyces cerevisiae; Drosophila melanogaster; Gallus gallus; Hypsibius dujardini; Lethenteron camtschaticum; Strongylocentrotus purpuratus; Ciona intestinalis; Pleurobrachia bachei; Acropora millepora; Python bivittatus; Arachis hypogaea; Agaricus bisporus; Branchiostoma lanceolatum; Xenopus laevis; Notamacropus eugenii; Pygocentrus nattereri; Cristatella mucedo; Clonorchis sinensis; Chiloscyllium punctatum; Triticum aestivum; Caenorhabditis elegans; Aplysia californica; Aedes aegypti; Culex quinquefasciatus; Homo sapiens; Muntiacus reevesi; Muntiacus muntjak
Type:
Other
30 related Platforms
32 Samples
Download data: BEDPE, FASTA, HIC, VCF, WIG
Series
Accession:
GSE169088
ID:
200169088
10.

RNA sequencing of venom glands and venom gland organoids

(Submitter supplied) Both single cell and bulk RNA sequencing was performed on expanding or differentiating snake venom gland organoids (from Aspidelaps Lubricus Cowlesi and Naja Nivea), or tissue (Aspidelaps Lubricus Cowlesi). Bulk RNA sequencing from the snake venom gland, liver and pancreas was performed to construct a de novo transcriptome using Trinity.
Organism:
Aspidelaps lubricus cowlesi; Naja nivea
Type:
Expression profiling by high throughput sequencing
Platforms:
GPL26484 GPL27798 GPL26483
15 Samples
Download data: CSV, FNA
Series
Accession:
GSE129581
ID:
200129581
11.

Comparative analysis of squamate brains unveils multi-level variation in cerebellar architecture associated with locomotor specialization

(Submitter supplied) We exploited the extraordinary  ecomorphological diversity of squamates to assess  brain phenotypic diversification with respect to locomotor specialization, by integrating transcriptomic data along with other methods. We reveal significant changes in cerebellar morphology as well as dynamic gene expression that all correlate with locomotor behaviours.
Organism:
Pogona vitticeps; Trioceros jacksonii; Dasypeltis gansi; Chrysopelea ornata; Eryx colubrinus; Python regius; Basiliscus vittatus; Mochlus fernandi; Pantherophis guttatus; Pseudopus apodus
Type:
Expression profiling by high throughput sequencing; Other
10 related Platforms
10 Samples
Download data: XLSX
Series
Accession:
GSE139570
ID:
200139570
12.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies

(Submitter supplied) This SuperSeries is composed of the SubSeries listed below.
Organism:
Quercus alba; Trypanosoma cruzi; Bothrops moojeni; Pachymenia carnosa; Gallus gallus; Oryctolagus cuniculus; Mus musculus; Human immunodeficiency virus 1; unidentified; Megathura crenulata; Rhodotorula; Bos taurus; Ovis aries; Ceratonia siliqua; Frangula alnus; Senegalia senegal; Dermestes lardarius; Gossypium hirsutum; Pandalus borealis; Oncorhynchus nerka; Homo sapiens; Sus scrofa domesticus
Type:
Protein profiling by protein array
Platforms:
GPL23565 GPL23566
55 Samples
Download data: GPR
Series
Accession:
GSE100438
ID:
200100438
13.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies VII

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Gossypium hirsutum; Rhodotorula; Homo sapiens; Bos taurus; Mus musculus; Human immunodeficiency virus 1; Quercus alba; Pandalus borealis; Oncorhynchus nerka; Sus scrofa domesticus; Ceratonia siliqua; Bothrops moojeni; Senegalia senegal; Dermestes lardarius; Trypanosoma cruzi; Gallus gallus; Pachymenia carnosa; Ovis aries; Oryctolagus cuniculus; Megathura crenulata; Frangula alnus
Type:
Protein profiling by protein array
Platform:
GPL23566
7 Samples
Download data: GPR, TXT
Series
Accession:
GSE100310
ID:
200100310
14.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies VI

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Gossypium hirsutum; Rhodotorula; Homo sapiens; Bos taurus; Mus musculus; Human immunodeficiency virus 1; Pandalus borealis; Oncorhynchus nerka; Sus scrofa domesticus; Ovis aries; Ceratonia siliqua; Frangula alnus; Senegalia senegal; Dermestes lardarius; Quercus alba; Oryctolagus cuniculus; Megathura crenulata; Trypanosoma cruzi; Gallus gallus; Bothrops moojeni; Pachymenia carnosa
Type:
Protein profiling by protein array
Platform:
GPL23566
7 Samples
Download data: GPR, TXT
Series
Accession:
GSE100309
ID:
200100309
15.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies V

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Homo sapiens; Bos taurus; Pandalus borealis; Oncorhynchus nerka; Sus scrofa domesticus; Ovis aries; Ceratonia siliqua; Frangula alnus; Senegalia senegal; Dermestes lardarius; Rhodotorula; Trypanosoma cruzi; Gallus gallus; Mus musculus; Human immunodeficiency virus 1; Bothrops moojeni; Pachymenia carnosa; Quercus alba; Gossypium hirsutum; Oryctolagus cuniculus; Megathura crenulata
Type:
Protein profiling by protein array
Platform:
GPL23566
7 Samples
Download data: GPR, TXT
Series
Accession:
GSE100308
ID:
200100308
16.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies IV

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Trypanosoma cruzi; Bos taurus; Gallus gallus; Sus scrofa domesticus; Ovis aries; Oryctolagus cuniculus; Ceratonia siliqua; Megathura crenulata; Frangula alnus; Quercus alba; Gossypium hirsutum; Pandalus borealis; Oncorhynchus nerka; Homo sapiens; Rhodotorula; Mus musculus; Human immunodeficiency virus 1; Bothrops moojeni; Senegalia senegal; Pachymenia carnosa; Dermestes lardarius
Type:
Protein profiling by protein array
Platform:
GPL23566
7 Samples
Download data: GPR, TXT
Series
Accession:
GSE100307
ID:
200100307
17.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies III

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Gossypium hirsutum; Rhodotorula; Homo sapiens; Bos taurus; Pandalus borealis; Oncorhynchus nerka; Sus scrofa domesticus; Ovis aries; Ceratonia siliqua; Frangula alnus; Senegalia senegal; Dermestes lardarius; Trypanosoma cruzi; Gallus gallus; Mus musculus; Human immunodeficiency virus 1; Bothrops moojeni; Pachymenia carnosa; Quercus alba; Oryctolagus cuniculus; Megathura crenulata
Type:
Protein profiling by protein array
Platform:
GPL23566
7 Samples
Download data: GPR, TXT
Series
Accession:
GSE99874
ID:
200099874
18.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies II

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Homo sapiens; Bos taurus; Pandalus borealis; Gallus gallus; Sus scrofa domesticus; Ovis aries; Oryctolagus cuniculus; Ceratonia siliqua; Megathura crenulata; Frangula alnus; Dermestes lardarius; Quercus alba; Gossypium hirsutum; Oncorhynchus nerka; Rhodotorula; Trypanosoma cruzi; Mus musculus; Human immunodeficiency virus 1; Bothrops moojeni; Senegalia senegal; Pachymenia carnosa
Type:
Protein profiling by protein array
Platform:
GPL23566
14 Samples
Download data: GPR, TXT
Series
Accession:
GSE99873
ID:
200099873
19.

Therapeutic antibodies to ganglioside GD2 evolved from highly selective germline antibodies I

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to evaluate the immunological evolution of antibodies to the glyco-antigen GD2. The goal is to determine germline and affinity mature antibody specificity and affinities/ Results: Affinity mature anti-GD2 antibodies 3F8 and ch14.18 had high affinity and were highly specific for the target GD2. Germline antibodies were also hihgly specific and had surprisingly high affinity. more...
Organism:
Trypanosoma cruzi; Gallus gallus; Ovis aries; Oryctolagus cuniculus; unidentified; Megathura crenulata; Frangula alnus; Rhodotorula; Bos taurus; Mus musculus; Human immunodeficiency virus 1; Ceratonia siliqua; Bothrops moojeni; Senegalia senegal; Pachymenia carnosa; Dermestes lardarius; Quercus alba; Gossypium hirsutum; Pandalus borealis; Oncorhynchus nerka; Homo sapiens; Sus scrofa domesticus
Type:
Protein profiling by protein array
Platform:
GPL23565
6 Samples
Download data: GPR, TXT
Series
Accession:
GSE99872
ID:
200099872
20.

Whole-Cell Cancer Vaccines Induce Large Antibody Responses to Carbohydrates and Glycoproteins

(Submitter supplied) Purpose: This study uses a high-throughput glycan microarray to profile anti-glycan immune responses to whole-cell vaccines: GVAX Pancreas, K562-GM and H1299. The aim was to indentify anti-glycan antibody responses relevent to patient clinical outcomes Results: Immune responses to non-human antigens bovine fetuin and alpha-Gal antigens were identified induced by GVAX Pancreas. The magnitude of these responses inversely correlate with patient survival. more...
Organism:
Pandalus borealis; Oncorhynchus nerka; Ovis aries; Ceratonia siliqua; Frangula alnus; Senegalia senegal; Dermestes lardarius; Quercus alba; Oryctolagus cuniculus; Megathura crenulata; Gossypium hirsutum; Homo sapiens; Bos taurus; Mus musculus; Human immunodeficiency virus 1; Trypanosoma cruzi; Gallus gallus; Bothrops moojeni; Pachymenia carnosa
Type:
Other
Platform:
GPL21991
168 Samples
Download data: GPR, TXT
Series
Accession:
GSE83087
ID:
200083087
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