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Items: 1 to 20 of 2043

1.

Timecourse RNA Sequencing of three CHO cell lines: non-producing CHOZN®GS-/-, an IgG1 producer, and an EPO-Fc producer

(Submitter supplied) We analyzed the transcriptomic response in three distinct CHO cell lines: a non-producing host cell line (CHOZN®GS-/-), an immunoglobulin G1 (IgG1) producer, and an erythropoietin Fc fusion (EPO-Fc) producer. We compared the growth and production characteristics of all three cell lines during fed-batch culture. High throughput RNA sequencing (RNASeq) and quantitative polymerase chain reaction (qPCR) were used to study differential gene expression analysis of the timecourse dataset with the host cell line CHOZN®GS-/- as the reference. more...
Organism:
Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL27425
36 Samples
Download data: TXT
Series
Accession:
GSE217637
ID:
200217637
2.

Divergent composition and transposon-silencing activity of small RNAs in mammalian oocytes

(Submitter supplied) We found piRNAs with different lengths represented the predominant small RNA species in oocytes from the 12 explored species, except mouse. We found endo-siRNAs resulted from the truncated Dicer isoform were mouse-specific, and os-piRNAs associating with PIWIL3 in human oocytes are widespread in mammals and are typically with low levels of the 2’-3’-O-methylation. The sequences of many highly expressed piRNA clusters are fast-evolving compared with their syntenic genomic locations, and the TE families distributing in the conserved piRNA clusters are various between species.
Organism:
Macaca fascicularis; Oryctolagus cuniculus; Cricetulus griseus; Mesocricetus auratus; Mus musculus; Cavia porcellus; Capra hircus; Rattus norvegicus; Danio rerio; Homo sapiens; Canis lupus familiaris; Sus scrofa domesticus
Type:
Expression profiling by high throughput sequencing; Non-coding RNA profiling by high throughput sequencing; Other
12 related Platforms
138 Samples
Download data
Series
Accession:
GSE200470
ID:
200200470
3.

Deciphering the determinants of recombinant protein yield across the human secretome

(Submitter supplied) Mammalian cells are critical hosts for the production of most therapeutic proteins and many proteins for biomedical research. While cell line engineering and bioprocess optimization have yielded high protein titers of some recombinant proteins, many proteins remain difficult to express. Here we use systems biology methods to deciper the factors influencing yields in Chinese hamster ovary (CHO) cells as they produce proteins from the human secretome.
Organism:
Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL20904
96 Samples
Download data: CSV
Series
Accession:
GSE225989
ID:
200225989
4.

Differential gene expression in CHO cells cultivated in shake flasks and bioreactors

(Submitter supplied) Chinese Hamster Ovary cell lines are currently the primary host for production of therapeutic glycoproteins. Fast process development resulting in robust and scalable processes is a critical success factor in the highly competitive market for biosimilars. In process development screening of hundreds of clones and selection of process conditions are routinely performed in uncontrolled cultivation systems like shake flasks. more...
Organism:
Cricetulus griseus
Type:
Expression profiling by array
Platform:
GPL24076
18 Samples
Download data: CEL
Series
Accession:
GSE104787
ID:
200104787
5.

Xbp1 knockdown in CHO cells stably expressing Cdh13 (RNA-Seq)

(Submitter supplied) RNA expressions of CHO cells stably expressing Cdh13 were compared between cells transfected with negative control siRNA and with Xbp1 siRNA for 48 hours.
Organism:
Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL27425
6 Samples
Download data: TXT
Series
Accession:
GSE221308
ID:
200221308
6.

Mammalian Methylation Consortium

(Submitter supplied) The Mammalian Methylation Consortium aimed to characterize the relationship between cytosine methylation levels and a) species characteristics such as maximum lifespan and b) individual sample characteristics such as age, sex, tissue type. Both supervised machine learning approaches and unsupervised machine learning approaches were applied to the data as described in the citations. To facilitate comparative analyses across species, the mammalian methylation consortium applied a single measurement platform (the mammalian methylation array, GPL28271) to n=15216 DNA samples derived from 70 tissue types of 348 different mammalian species (331 eutherian-, 15 marsupial-, and 2 monotreme species). more...
Organism:
Didelphis virginiana; Didelphis marsupialis; Notamacropus agilis; Macropus fuliginosus; Choloepus hoffmanni; Amblysomus hottentotus; Artibeus jamaicensis; Varecia variegata; Cheirogaleus medius; Gorilla gorilla; Pongo pygmaeus; Homo sapiens; Crocuta crocuta; Phoca vitulina; Phocoena phocoena; Delphinapterus leucas; Physeter catodon; Diceros bicornis; Odocoileus virginianus; Muntiacus vaginalis; Bos taurus; Tragelaphus oryx; Sylvilagus floridanus; Peromyscus maniculatus; Microtus pennsylvanicus; Mus musculus; Cryptomys hottentotus; Hapalemur griseus; Nanger granti; Balaena mysticetus; Molossus molossus; Nycticeius humeralis; Elephantulus edwardii; Sylvilagus audubonii; Propithecus tattersalli; Nannospalax ehrenbergi; Sciurus niger; Sorex cinereus; Tupaia belangeri; Cavia aperea; Phascolarctos cinereus; Ochotona rufescens; Sorex palustris; Cabassous unicinctus; Myotis myotis; Aplodontia rufa; Pipistrellus pipistrellus; Saccopteryx bilineata; Addax nasomaculatus; Antidorcas marsupialis; Kobus megaceros; Chlorocebus sabaeus; Ctenomys opimus; Neomys fodiens; Sorex vagrans; Eidolon helvum; Pteropus rodricensis; Okapia johnstoni; Phyllostomus discolor; Lagenorhynchus obliquidens; Callospermophilus saturatus; Xanthonycticebus pygmaeus; Cephalorhynchus commersonii; Cuniculus paca; Myotis brandtii; Myotis nattereri; Elephantulus myurus; Rhabdomys pumilio; Pteropus vampyrus; Apodemus uralensis; Condylura cristata; Tamiasciurus douglasii; Neurotrichus gibbsii; Rhombomys opimus; Rhinolophus alcyone; Myotis evotis; Meriones rex; Hemicentetes semispinosus; Microgale cowani; Dendrohyrax arboreus; Propithecus coquereli; Hipposideros ruber; Galea musteloides leucoblephara; Alexandromys mongolicus; Nannospalax galili; Lasiopodomys gregalis; Tachyglossus aculeatus; Sarcophilus harrisii; Macropus giganteus; Tamandua mexicana; Dasypus novemcinctus; Erinaceus europaeus; Atelerix albiventris; Sorex hoyi; Pteropus poliocephalus; Pteropus hypomelanus; Rousettus aegyptiacus; Phyllostomus hastatus; Lemur catta; Otolemur crassicaudatus; Loris tardigradus; Callithrix jacchus; Papio hamadryas; Canis lupus familiaris; Ursus americanus; Martes americana; Odobenus rosmarus divergens; Elephas maximus; Loxodonta africana; Rhinoceros unicornis; Procavia capensis; Sus scrofa domesticus; Capreolus capreolus; Cervus elaphus; Aepyceros melampus; Ochotona princeps; Peromyscus leucopus; Mus minutoides; Rattus norvegicus; Rattus rattus; Cavia porcellus; Myocastor coypus; Heterocephalus glaber; Monodelphis domestica; Choloepus didactylus; Eptesicus fuscus; Chaetophractus villosus; Vombatus ursinus; Galago moholi; Acinonyx jubatus; Dromiciops gliroides; Eulemur mongoz; Suricata suricatta; Phoca groenlandica; Ictidomys tridecemlineatus; Glaucomys sabrinus; Lepus americanus; Mesoplodon bidens; Sylvilagus nuttallii; Nyctalus noctula; Castor canadensis; Trachypithecus francoisi; Cynopterus brachyotis; Lynx rufus; Plecotus auritus; Ctenomys steinbachi; Sorex minutissimus; Sorex tundrensis; Sorex trowbridgii; Nanger dama; Tragelaphus eurycerus; Tragelaphus spekii; Gazella leptoceros; Tupaia tana; Microtus ochrogaster; Propithecus diadema; Cyclopes didactylus; Eulemur flavifrons; Equus quagga; Marmota flaviventris; Parascalops breweri; Connochaetes taurinus albojubatus; Eozapus setchuanus; Phodopus roborovskii; Eulemur sanfordi; Tamias townsendii; Rhinopoma hardwickii; Ochotona dauurica; Ochotona hyperborea; Ochotona pallasi; Cavia tschudii; Myotis thysanodes; Myotis yumanensis; Neophoca cinerea; Zapus princeps; Tolypeutes matacus; Myotis vivesi; Tupaia longipes; Paraechinus aethiopicus; Microtus guentheri; Smutsia temminckii; Mirza zaza; Alticola semicanus; Lasiopodomys brandtii; Neogale vison; Crocidura cyanea; Microtus maximowiczii; Micaelamys namaquensis; Clethrionomys gapperi; Galeopterus variegatus; Sylvilagus brasiliensis; Cephalorhynchus hectori hectori; Cephalorhynchus hectori maui; Paraechinus hypomelas; Microgale thomasi; Cervus canadensis; Alexandromys oeconomus; Osphranter robustus; Bradypus variegatus; Echinops telfairi; Blarina brevicauda; Desmodus rotundus; Pan troglodytes; Lycaon pictus; Vulpes vulpes; Felis catus; Zalophus californianus; Orcinus orca; Tursiops truncatus; Balaenoptera borealis; Balaenoptera musculus; Trichechus manatus; Equus grevyi; Sus scrofa; Giraffa camelopardalis; Capra hircus; Ovis aries; Tragelaphus strepsiceros; Oryctolagus cuniculus; Marmota monax; Cricetulus griseus; Ondatra zibethicus; Acomys cahirinus; Apodemus sylvaticus; Hystrix cristata; Bathyergus janetta; Georychus capensis; Eulemur coronatus; Eulemur fulvus; Vicugna pacos; Eulemur macaco; Microcebus murinus; Chinchilla lanigera; Erethizon dorsatum; Eumetopias jubatus; Caenolestes fuliginosus; Peromyscus eremicus; Peromyscus polionotus; Eulemur fulvus collaris; Lepus californicus; Tamandua tetradactyla; Talpa occidentalis; Myotis lucifugus; Rhinolophus ferrumequinum; Arvicanthis niloticus; Sorex caecutiens; Sorex isodon; Litocranius walleri; Scalopus aquaticus; Equus asinus somalicus; Ceratotherium simum simum; Callospermophilus lateralis; Mustela altaica; Microtus fortis; Napaeozapus insignis; Apodemus peninsulae; Ochotona alpina; Scapanus orarius; Hemiechinus auritus; Orientallactaga sibirica; Rhynchonycteris naso; Gerbillus nanus; Tupaia gracilis; Sylvilagus bachmani; Alticola barakshin; Asellia tridens; Nothocricetulus migratorius; Ornithorhynchus anatinus; Notamacropus eugenii; Osphranter rufus; Suncus murinus; Tadarida brasiliensis; Antrozous pallidus; Nycticebus coucang; Perodicticus potto; Macaca mulatta; Canis latrans; Mustela putorius furo; Panthera leo; Panthera tigris; Puma concolor; Delphinus delphis; Megaptera novaeangliae; Equus caballus; Orycteropus afer; Tragelaphus imberbis; Tamiasciurus hudsonicus; Cricetulus longicaudatus; Mesocricetus auratus; Meriones unguiculatus; Cricetomys gambianus; Galea musteloides; Hydrochoerus hydrochaeris; Bathyergus suillus; Lagenorhynchus albirostris; Macroscelides proboscideus; Sciurus carolinensis; Daubentonia madagascariensis; Eulemur rubriventer; Oreamnos americanus; Enhydra lutris; Hippotragus equinus; Hippotragus niger; Globicephala macrorhynchus; Apodemus agrarius; Carollia perspicillata; Peromyscus californicus; Tamias striatus; Steno bredanensis; Phodopus campbelli; Hylomys suillus; Urocitellus columbianus; Jaculus jaculus; Callithrix geoffroyi; Mustela frenata; Ctenomys lewisi; Sorex roboratus; Tamias amoenus; Tragelaphus angasii; Chrysocyon brachyurus; Nanger soemmerringii; Eudorcas thomsonii; Dipus sagitta; Tursiops aduncus; Tenrec ecaudatus; Neotoma cinerea; Microtus richardsoni; Pteropus giganteus; Pteropus pumilus; Mops pumilus; Meriones libycus; Setifer setosus; Ellobius talpinus; Cricetulus barabensis; Suncus varilla; Lasiopodomys mandarinus; Aonyx cinereus; Myodes rufocanus; Varecia rubra; Leptonycteris yerbabuenae; Eulemur rufus; Fukomys damarensis; Eulemur albifrons; Gerbillus cheesmani; Microgale drouhardi; Notamacropus rufogriseus; Nesogale talazaci
Type:
Methylation profiling by array
Platform:
GPL28271
15043 Samples
Download data: CSV, DOCX, IDAT
Series
Accession:
GSE223748
ID:
200223748
7.

Stability and transcriptomic study of C12orf35 site-specific integrated CHO cell line

(Submitter supplied) Background: Chinese hamster ovary (CHO) cells are the most widely used mammalian host for recombinant protein production. The primary production method is to construct stable, high-yielding cell lines to provide high-quality, low-cost products. The key to optimizing recombinant protein production is to modify engineered cell lines to obtain better growth, expression, or product quality characteristics. more...
Organism:
Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL27425
12 Samples
Download data: XLS
Series
Accession:
GSE203219
ID:
200203219
8.

Hexokinase 2 and lactate

(Submitter supplied) This SuperSeries is composed of the SubSeries listed below.
Organism:
Cricetulus griseus; Mus musculus
Type:
Expression profiling by high throughput sequencing; Genome binding/occupancy profiling by high throughput sequencing
Platforms:
GPL27425 GPL24247
56 Samples
Download data: BW
Series
Accession:
GSE229156
ID:
200229156
9.

Hexokinase 2 and lactate mediated gene expression via histone H3 lysine 18 lactylation (CHO RNA-Seq)

(Submitter supplied) Hexokinase catalyzes the first committed step in glucose metabolism by phosphorylating glucose to produce glucose-6-phosphate. Highly glycolytic proliferating cells such as cancer cells take advantage of HK2 expression to accelerate glucose metabolism even in the presence of oxygen. This acceleration not only provides sufficient glycolytic intermediates to support the anabolic demands of the cells but also inevitably accompanies increased formation of metabolic end products such as lactate. more...
Organism:
Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL27425
9 Samples
Download data: TXT
Series
Accession:
GSE229153
ID:
200229153
10.

Hexokinase 2 and lactate mediated gene expression via histone H3 lysine 18 lactylation (CHO CUT&Tag)

(Submitter supplied) Hexokinase catalyzes the first committed step in glucose metabolism by phosphorylating glucose to produce glucose-6-phosphate. Highly glycolytic proliferating cells such as cancer cells take advantage of HK2 expression to accelerate glucose metabolism even in the presence of oxygen. This acceleration not only provides sufficient glycolytic intermediates to support the anabolic demands of the cells but also inevitably accompanies increased formation of metabolic end products such as lactate. more...
Organism:
Cricetulus griseus
Type:
Genome binding/occupancy profiling by high throughput sequencing
Platform:
GPL27425
15 Samples
Download data: BW
Series
Accession:
GSE229151
ID:
200229151
11.

Promoter CpG content regulates DNMT-dependent silencing dynamics

(Submitter supplied) Effect of how CpG density on the promoter affects the gene silencing and DNA methylation rate of a promoter
Organism:
Cricetulus griseus; Escherichia coli
Type:
Methylation profiling by high throughput sequencing
Platforms:
GPL16085 GPL21152
23 Samples
Download data: TXT
Series
Accession:
GSE224403
ID:
200224403
12.

The microRNomes of Chinese Hamster Ovary (CHO) cells and their extracellular vesicles, and how they respond to osmotic and ammonia stress

(Submitter supplied) A new area of focus in Chinese Hamster Ovary (CHO) biotechnology is the role of small (exosomes) and large (microvesicles or microparticles) extracellular vesicles (EVs). CHO cells in culture exchange large quantities of proteins and RNA through these EVs, yet the content and role of these EVs remain elusive. MicroRNAs (miRs) are central to adaptive responses to stress and more broadly to changes in culture conditions. more...
Organism:
Cricetulus griseus
Type:
Non-coding RNA profiling by high throughput sequencing
Platform:
GPL32085
27 Samples
Download data: XLSX
Series
Accession:
GSE222228
ID:
200222228
13.

Screening and identification of miR-181a-5p in oral squamous cell carcinoma and functional verification in vivo and in vitro

(Submitter supplied) Background: Oral squamous cell carcinoma (OSCC) is a common malignant tumor associated with poor prognosis. MicroRNAs (miRNAs) play crucial regulatory roles in the cancer development. However, the role of miRNAs in OSCC development and progression is not well understood. Methods: We sought to establish a dynamic Chinese hamster OSCC animal model, construct miRNA differential expression profiles of its occurrence and development, predict its targets, and perform functional analysis and validation in vitro. more...
Organism:
Cricetulus griseus
Type:
Non-coding RNA profiling by high throughput sequencing
Platform:
GPL20904
12 Samples
Download data: CSV
Series
Accession:
GSE222429
ID:
200222429
14.

Role of eEF2 diphthamide modification in translational fidelity

(Submitter supplied) Diphthamide (DPH) is a conserved amino acid modification on eukaryotic translation elongation factor eEF2. We show that loss of DPH increases -1 ribosomal frameshifting at both programmed, including in SARS-CoV-2, and non-programmed sites. Ribosome profiling of yeast and mammalian cells lacking DPH reveals increased ribosomal drop-off during elongation. The drop-off defect on the long yeast MDN1 gene was suppressed by eliminating out-of-frame stop codons. more...
Organism:
Cricetulus griseus; Saccharomyces cerevisiae
Type:
Other
Platforms:
GPL27425 GPL27812 GPL17342
24 Samples
Download data: TXT, WIG
Series
Accession:
GSE176169
ID:
200176169
15.

De novo emergence, existence, and demise of a protein-coding gene in murids [chinese hamster]

(Submitter supplied) Genes, principal units of genetic information, vary in complexity and evolutionary history. Less-complex genes (e.g. long non-coding RNA (lncRNA) expressing genes), readily emerge de novo from non-genic sequences and have high evolutionary turnover. Genesis of a gene is facilitated by adoption of functional genic sequences from retrotransposon insertions. However, protein-coding sequences in extant genomes rarely lack any connection to an ancestral protein-coding sequence. more...
Organism:
Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL19001
2 Samples
Download data: BW
Series
Accession:
GSE213818
ID:
200213818
16.

De novo emergence, existence, and demise of a protein-coding gene in murids

(Submitter supplied) This SuperSeries is composed of the SubSeries listed below.
Organism:
Mus musculus; Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platforms:
GPL19001 GPL21626
8 Samples
Download data: BW
Series
Accession:
GSE213820
ID:
200213820
17.

Human centromere repositioning activates transcription and opens chromatin fibre structure [RNAseq]

(Submitter supplied) Human centromeres appear as constrictions on mitotic chromosomes and form a platform for kinetochore assembly in mitosis. Biophysical experiments led to a suggestion that repetitive DNA at centromeric regions form a compact scaffold necessary for function, but this was revised when neocentromeres were discovered on non-repetitive DNA. To test whether centromeres have a special chromatin structure we have analysed the architecture of a neocentromere. more...
Organism:
Cricetulus griseus; Homo sapiens
Type:
Expression profiling by high throughput sequencing
Platform:
GPL31911
4 Samples
Download data: BEDGRAPH
Series
Accession:
GSE196160
ID:
200196160
18.

Human centromere repositioning activates transcription and opens chromatin fibre structure [TTseq]

(Submitter supplied) Human centromeres appear as constrictions on mitotic chromosomes and form a platform for kinetochore assembly in mitosis. Biophysical experiments led to a suggestion that repetitive DNA at centromeric regions form a compact scaffold necessary for function, but this was revised when neocentromeres were discovered on non-repetitive DNA. To test whether centromeres have a special chromatin structure we have analysed the architecture of a neocentromere. more...
Organism:
Homo sapiens; Cricetulus griseus
Type:
Expression profiling by high throughput sequencing
Platform:
GPL31910
8 Samples
Download data: BW
Series
Accession:
GSE196155
ID:
200196155
19.

Human centromere repositioning activates transcription and opens chromatin fibre structure

(Submitter supplied) This SuperSeries is composed of the SubSeries listed below.
Organism:
Homo sapiens; Cricetulus griseus
Type:
Genome binding/occupancy profiling by genome tiling array; Expression profiling by high throughput sequencing
4 related Platforms
68 Samples
Download data: TXT
Series
Accession:
GSE195886
ID:
200195886
20.

Human centromere repositioning activates transcription and opens chromatin fibre structure [Agilent ChIP-chip]

(Submitter supplied) This study was designed to investigate the chromatin structure of human centromeres. Human centromeres appear as constrictions on mitotic chromosomes and form a platform for kinetochore assembly in mitosis. Biophysical experiments led to a suggestion that repetitive DNA at centromeric regions form a compact scaffold necessary for function, but this was revised when neocentromeres were discovered on non-repetitive DNA. more...
Organism:
Cricetulus griseus; Homo sapiens
Type:
Genome binding/occupancy profiling by genome tiling array
Platforms:
GPL31869 GPL31868
39 Samples
Download data: TXT
Series
Accession:
GSE195885
ID:
200195885
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