cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
Batillipes lesteri Kristensen & Mackness 2000
Creators: name: Kaczmarek, Łukasz
name: Bartels, Paul J.
name: Roszkowska, Milena
name: Nelson, Diane R.
Publisher: name: Zenodo
Year: 2015
Subjects: Biodiversity
Taxonomy
Animalia
Tardigrada
Heterotardigrada
Arthrotardigrada
Batillipedidae
Batillipes
Batillipes lesteri

description: 15. Batillipes lesteri Kristensen & Mackness, 2000
Batillipes lesteri n. sp. (Kristensen & Mackness 2000)
Terra typica: Indian Ocean (Australia)
Atlantic Ocean:
• 4°20′S to 4°50′S, 36°00′W to 37°15′W [04°35′S, 36°38′W]; 35 m bsl: [FAO41] Brazil, continental shelf off Ceará State and Rio Grande Do Norte State, medium sand. da Rocha et al. (2013)
• 8°25′10′′S to 8°25′20′′S, 34°55′00′′W [08°25′S, 34°58′W]; 0 m bsl: [FAO41] Brazil, Pernambuco State, Cupe beach, midlittoral, medium to fine quartz sand. da Rocha et al. (2013)
Indian Ocean:
• 34°55′S, 138°30′E; 1 m bsl: [FAO57] Type Locality: Australia, South Australia State, Adelaide, Henley Beach, sublittoral, medium coarse sand. Kristensen & Mackness (2000)
Record numbers (Sea/Ocean classification): Atlantic Ocean: 2, Indian Ocean: 1; total: 3.
Record numbers (FAO classification): FAO41: 2, FAO57: 1; total: 3.
Remarks: This species was described from the coast of Australia and later reported twice on the Atlantic coast of Brazil. It is an intertidal or sublittoral species.
description: Published as part of Kaczmarek, Łukasz, Bartels, Paul J., Roszkowska, Milena & Nelson, Diane R., 2015, The Zoogeography of Marine Tardigrada, pp. 1-189 in Zootaxa 4037 (1) on page 18, DOI: 10.11646/zootaxa.4037.1.1, http://zenodo.org/record/233519
Additional file 1: of Lack of cortistatin or somatostatin differentially influences DMBA-induced mammary gland tumorigenesis in mice in an obesity-dependent mode
Creators: name: Luque, Raúl
name: Villa-Osaba, Alicia
name: L-López, Fernando
name: Pozo-Salas, Ana
name: Sánchez-Sánchez, Rafael
name: Ortega-Salas, Rosa
name: Lecea, Luis De
name: Álvarez-Benito, Marina
name: López-Miranda, José
name: Gahete, Manuel
name: Castaño, Justo
Publisher: name: Figshare
Year: 2016
Subjects: subject: Biochemistry
subject: Space Science
subject: Cell Biology
subject: Genetics
subject: FOS: Biological sciences
subject: Molecular Biology
subject: Physiology
subject: 39999 Chemical Sciences not elsewhere classified
subject: FOS: Chemical sciences
subject: Developmental Biology
subject: Cancer
subject: Plant Biology

description: Histopathological analysis of 7, 12 dimethylbenz[α]anthracene (DMBA)-induced mammary gland (MG) tumors. Representative images and histopathological classification of DMBA-induced MG tumors formed in low fat (LF)-fed and high-fat (HF)-fed wild-type (WT), cortistatin (CORT)-knockout (KO) and somatostatin (SST)-KO mice. a Adenocarcinoma. b Well-differentiated squamous carcinoma. c Moderately differentiated squamous carcinoma. d undifferentiated carcinoma. Scale (top right) indicates 100 μm. (PDF 277 kb)
Additional file 2: of Lack of cortistatin or somatostatin differentially influences DMBA-induced mammary gland tumorigenesis in mice in an obesity-dependent mode
Creators: name: Luque, Raúl
name: Villa-Osaba, Alicia
name: L-López, Fernando
name: Pozo-Salas, Ana
name: Sánchez-Sánchez, Rafael
name: Ortega-Salas, Rosa
name: Lecea, Luis De
name: Álvarez-Benito, Marina
name: López-Miranda, José
name: Gahete, Manuel
name: Castaño, Justo
Publisher: name: Figshare
Year: 2016
Subjects: subject: Biophysics
subject: Biochemistry
subject: Space Science
subject: Cell Biology
subject: Molecular Biology
subject: Physiology
subject: FOS: Biological sciences
subject: 39999 Chemical Sciences not elsewhere classified
subject: FOS: Chemical sciences
subject: Developmental Biology
subject: Cancer
subject: Plant Biology

description: Malignancy features (proliferation rate, inflammation and de novo angiogenesis) analysis of 7, 12 dimethylbenz[α]anthracene (DMBA)-induced mammary gland tumors in low fat (LF)-fed and high fat (HF)-fed wild-type (WT), cortistatin (CORT)-knockout (KO) and somatostatin (SST)-KO mice. Values represent mean ± standard error of the mean of percentage of KI67-positive cells (a), number of mitotic cells (per each 10 high power fields (HPF)) (b), scored inflammatory status evaluating number of inflammatory cells (C) and scored de novo angiogenesis evaluating number of small blood vessels in a subset of the developed tumors (d). Inflammation and de novo angiogenesis were valued as 1/3 (scarce), 2/3 (moderate) or 3/3 (abundant). n.d. not determined due to the lack of available tumors or the tumoral piece to be evaluated. (PDF 33 kb)
Additional file 1: of Total (fumarolicâ  +â  diffuse soil) CO2 output from Furnas volcano
Creators: name: M. Pedone
name: F. Viveiros
name: A. Aiuppa
name: G. Giudice
name: F. Grassa
name: A. Gagliano
name: V. Francofonte
name: T. Ferreira
Publisher: name: Figshare
Year: 2015
Subjects: subject: Biochemistry
subject: Space Science
subject: 59999 Environmental Sciences not elsewhere classified
subject: FOS: Earth and related environmental sciences
subject: 39999 Chemical Sciences not elsewhere classified
subject: FOS: Chemical sciences
subject: Ecology
subject: FOS: Biological sciences
subject: Sociology
subject: FOS: Sociology
subject: 69999 Biological Sciences not elsewhere classified
subject: 80699 Information Systems not elsewhere classified
subject: FOS: Computer and information sciences
subject: Developmental Biology
subject: Marine Biology
subject: Cancer

description: The supplementary file is a more detailed documentation about the TDL acquisitions and data elaboration. A1. CO2 TDL-datasets. A2. Parameters used to perform sGs with CO2 concentrations TDL data and Zonal Statistic on E-Type maps. A3. Parameters used to perform sGs with soil CO2 flux data (accumulation chamber). In A1 section, each path laser-retroreflector acquisition during the campaigns carried out at Furnas Lake (Additional file 1: Table S1) and Furnas Village (Additional file 1: Table S2) is shown. In A2 section, more details about statistical approach and elaboration of data to create the distribution CO2 concentration maps are shown (Additional file 1: Tables S3, S4, and S5). Finally, parameters used to perform sGs with soil CO2 flux data are shown in A3 section (Tables S6 and S7).
Tulipa salsola Ruksans & Zubov
Creators: name: Kubentayev, Serik A.
name: Baasanmunkh, Shukherdorj
name: Alibekov, Daniyar T.
name: Tojibaev, Komiljon Sh.
name: Nyamgerel, Nudkhuu
name: Ivashchenko, Anna A.
name: Tsegmed, Zagarjav
name: Epiktetov, Vladimir G.
name: Sitpayeva, Gulnara T.
name: Izbastina, Klara S.
name: Idrissova, Zhansaya T.
name: Mukhtubayeva, Saule K.
name: Abubakirova, Nurganym B.
name: Gil, Hee-Young
name: Choi, Hyeok Jae
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Liliales
Liliaceae
Tulipa
Tulipa salsola

description: Tulipa salsola Rukšāns & Zubov, Int. Rock Gard. 148: 11 (2022).
Fig. 37
Type.
Kazakhstan • Zhetysu region, the extreme southern part of Dzungarian Alatau (44 ° 10 ' N, 79 ° 31 ' E); sandy, saline soils within semi-desert habitat, c. 880 m. a. s. l.; leg. 05 May 2012, Rukšāns; cult. (12 KZ- 059 specimen grown in J. Rukšāns garden, Latvia), fl. 11 Apr. 2021, Rukšāns (holotype GB).
General distribution.
Endemic to Kazakhstan (Kubentayev et al. 2024).
Distribution in Kazakhstan and habitat.
Dzungarian Alatau, and Trans-Ili Kungey Alatau. This species grows on fixed and hilly-ridged sands over brown and gray-brown soils, in depressions of takyrs and solonchaks with Saxaul.
Conservation status.
The IUCN conservation status of this species requires assessment.
Phenology.
Flowering in March – April; fruiting in May – June.
Notes.
Tulipa salsola was described relatively recently in 2022 from the southern part of Dungarian Alatau, Zhetysuyskaya Oblast, Kazakhstan. It is morphologically similar to T. kolbintsevii but differs by the presence of 2 (– 3) flowers, an adaxially strongly woolly bulb tunic, absent elongated bulb tunic, and stamens shorter or equal to the ovary (vs. one flower, naked on the neck with some hairs on the bulb tunic adaxially, elongated bulb tunic, and stamens longer than the ovary in T. kolbintsevii) (Rukšāns and Zubov 2022).
description: Published as part of Kubentayev, Serik A., Baasanmunkh, Shukherdorj, Alibekov, Daniyar T., Tojibaev, Komiljon Sh., Nyamgerel, Nudkhuu, Ivashchenko, Anna A., Tsegmed, Zagarjav, Epiktetov, Vladimir G., Sitpayeva, Gulnara T., Izbastina, Klara S., Idrissova, Zhansaya T., Mukhtubayeva, Saule K., Abubakirova, Nurganym B., Gil, Hee-Young & Choi, Hyeok Jae, 2024, Revisiting the genus Tulipa (Liliaceae) in Kazakhstan, the country with the richest tulip diversity worldwide, pp. 95-163 in PhytoKeys 250 on pages 95-163, DOI: 10.3897/phytokeys.250.136736
Additional file 3 of Towards in vivo estimation of reaction kinetics using high-throughput metabolomics data: a maximum likelihood approach
Creators: name: Weiruo Zhang
name: Ritesh Kolte
name: Dill, David
Publisher: name: Figshare
Year: 2015
Subjects: subject: Biophysics
subject: Biochemistry
subject: Molecular Biology
subject: 39999 Chemical Sciences not elsewhere classified
subject: FOS: Chemical sciences
subject: Sociology
subject: FOS: Sociology
subject: 69999 Biological Sciences not elsewhere classified
subject: FOS: Biological sciences
subject: 19999 Mathematical Sciences not elsewhere classified
subject: FOS: Mathematics
subject: Cancer

description: Equilibrium constant K eq . The equilibrium constant K eq is assumed to be a known constant. This file provides the calculation of equilibrium constant K eq based on standard Gibbs Free Energies of Formation. (PDF 98.8 kb)
MOESM3 of The role of antigen presenting cells in the induction of HIV-1 latency in resting CD4+ T-cells
Creators: name: Nitasha Kumar
name: Cheong, Karey
name: Powell, David
name: Pereira, Candida Da Fonseca
name: Anderson, Jenny
name: Evans, Vanessa
name: Lewin, Sharon
name: Cameron, Paul
Publisher: name: Figshare
Year: 2015
Subjects: subject: Space Science
subject: Microbiology
subject: FOS: Biological sciences
subject: Molecular Biology
subject: Immunology
subject: FOS: Clinical medicine
subject: 69999 Biological Sciences not elsewhere classified
subject: Cancer
subject: 110309 Infectious Diseases
subject: FOS: Health sciences
subject: 60506 Virology

description: Additional file 3: Supplementary references to Table 1. Included is the literature documenting the association of specific genes found in this study and changes in HIV infection and expression.
Multi-hop graph transformer network for 3D human pose estimation
Creators: name: Islam, Zaedul
name: Hamza, A. Ben
Publisher: name: arXiv
Year: 2024
Subjects: subject: Computer Vision and Pattern Recognition (cs.CV)
subject: FOS: Computer and information sciences

description: Accurate 3D human pose estimation is a challenging task due to occlusion and depth ambiguity. In this paper, we introduce a multi-hop graph transformer network designed for 2D-to-3D human pose estimation in videos by leveraging the strengths of multi-head self-attention and multi-hop graph convolutional networks with disentangled neighborhoods to capture spatio-temporal dependencies and handle long-range interactions. The proposed network architecture consists of a graph attention block composed of stacked layers of multi-head self-attention and graph convolution with learnable adjacency matrix, and a multi-hop graph convolutional block comprised of multi-hop convolutional and dilated convolutional layers. The combination of multi-head self-attention and multi-hop graph convolutional layers enables the model to capture both local and global dependencies, while the integration of dilated convolutional layers enhances the model's ability to handle spatial details required for accurate localization of the human body joints. Extensive experiments demonstrate the effectiveness and generalization ability of our model, achieving competitive performance on benchmark datasets.
Batillipes longispinosus Chang & Rho 1997
Creators: name: Kaczmarek, Łukasz
name: Bartels, Paul J.
name: Roszkowska, Milena
name: Nelson, Diane R.
Publisher: name: Zenodo
Year: 2015
Subjects: Biodiversity
Taxonomy
Animalia
Tardigrada
Heterotardigrada
Arthrotardigrada
Batillipedidae
Batillipes
Batillipes longispinosus

description: 17. Batillipes longispinosus Chang & Rho, 1997a
Batillipes longispinosus n. sp. (Chang & Rho 1997a)
Terra typica: Yellow Sea (South Korea, Asia)
East China Sea:
• 34°43′N, 127°59′E; 0 m bsl: [FAO61] South Korea, South Gyeongsang Province, Sangju-ri, intertidal or shallow sublittoral zone, sand or shell gravel. Rho et al. (1999)
• 34°31′N, 127°07′E; 0 m bsl: [FAO61] South Korea, South Jeolla Province, Sorokdo Island, intertidal or shallow sublittoral zone, sand or shell gravel. Rho et al. (1999)
• 33°31′N, 126°32′E; 0 m bsl: [FAO61] Undefined locality, South Korea, Jeju Province, Cheju [Jejudo] Island, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
Sea of Japan:
• 38°29′N, 128°26′E; 0 m bsl: [FAO61] South Korea, Gangwon Province, Hwajinpo, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
• 36°12′N, 129°22′E; 0 m bsl: [FAO61] South Korea, North Gyeongsang Province, Wolpo, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
• 35°01′N, 128°23′E; 0 m bsl: [FAO61] South Korea, South Gyeongsang Province, Taechon, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
Yellow Sea:
• 37°16′N, 126°06′E; 0 m bsl: [FAO61] South Korea, Incheon Metropolitan City, Tokchok [Yeongheung-do] Island, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
• 36°47′48′′N, 126°08′39′′E; 6–7 m bsl: [FAO61] Type Locality: South Korea, South Chungcheong Province, Manripo, intertidal or shallow subtidal zone, bottom, submerged sand. Chang & Rho (1997a)
• 35°40′N, 126°31′E; 0 m bsl: [FAO61] South Korea, North Jeolla Province, Kyokpo, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
• 35°31′N, 126°30′E; 0 m bsl: [FAO61] Undefined locality, South Korea, North Jeolla Province, Kochang County, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
• 34°28′N, 126°16′E; 0 m bsl: [FAO61] Undefined locality, South Korea, South Jeolla Province, Chindo [Jin-do Island], intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
Record numbers (Sea/Ocean classification): East China Sea: 3, Sea of Japan: 3, Yellow Sea: 5; total: 11.
Record numbers (FAO classification): FAO61: 19; total: 11.
Remarks: This species is distributed widely on the South Korean coast. It has been reported from sand in the intertidal or shallow subtidal zones.
description: Published as part of Kaczmarek, Łukasz, Bartels, Paul J., Roszkowska, Milena & Nelson, Diane R., 2015, The Zoogeography of Marine Tardigrada, pp. 1-189 in Zootaxa 4037 (1) on page 21, DOI: 10.11646/zootaxa.4037.1.1, http://zenodo.org/record/233519
Additional file 1 of Incorporating topological information for predicting robust cancer subnetwork markers in human protein-protein interaction network
Creators: name: Navadon Khunlertgit
name: Byung-Jun Yoon
Publisher: name: Figshare
Year: 2016
Subjects: subject: Biochemistry
subject: Medicine
subject: Cell Biology
subject: Genetics
subject: FOS: Biological sciences
subject: Molecular Biology
subject: Evolutionary Biology
subject: 69999 Biological Sciences not elsewhere classified
subject: 80699 Information Systems not elsewhere classified
subject: FOS: Computer and information sciences
subject: 19999 Mathematical Sciences not elsewhere classified
subject: FOS: Mathematics
subject: Developmental Biology
subject: 110309 Infectious Diseases
subject: FOS: Health sciences
subject: Plant Biology

description: Supplementary materials. Figure S1: Discriminative power of subnetwork markers identified on NKI295 by different methods. Figure S2: Discriminative power of subnetwork markers across independent gene expression datasets. (PDF 1260 kb)
Spanish Grammatical Gender: Linguistic Intuition in Spanish Heritage Speakers
Creators: name: Reyes, Nancy J
Publisher: name: Purdue University Graduate School
Year: 2024
Subjects: classificationCode: 470401
subject: Applied linguistics and educational linguistics
classificationCode: 470402
subject: Child language acquisition

description: The present study examined the acquisition of Spanish grammatical gender in 22 bilingual children (aged 5;0 to 13;5 years; Med=9;4 years; STD=2.3) who were born and raised in the United States and acquired Spanish as heritage speakers—that is, they learned Spanish, the minority language, in a home setting (Valdes, 2001). Each of the child participants had at least one parent who was born and raised in a Spanish-speaking country before immigrating to the U.S. post-puberty. Eleven (11) of the adults/parents, (aged 18 to 60 years, Med=42; STD=8.5)—all native speakers of Spanish—participated with their children, providing a control group for comparison purposes. Specifically, the study examined whether child heritage speakers of Spanish have linguistic intuition that enables them to distinguish between grammatical and ungrammatical constructs of gender expression in Spanish heard in ordinary speech (Chomsky, 1965). An Acceptability Judgment Task (AJT) presented each of the participants with both grammatical and ungrammatical versions of Spanish sentences in four grammatical conditions: (a) determiner-noun (DET-NOUN) assignment, (b) determiner-adjective (DET-ADJ) agreement, (c) noun-adjective (NOUN-ADJ) agreement, and (d) determiner phrase (DP) directionality (Cuza & Perez Tattam, 2016). Results showed that the participants—both children and adults—correctly found the grammatical examples to be acceptable. The adult participants consistently rejected the ungrammatical examples while many of the child participants had difficulties recognizing the ungrammatical examples as unacceptable. Statistical analysis found that the external factors of language dominance and language experience were significant in relation to the ability to distinguish the ungrammatical items, suggesting that the children who were dominant in Spanish and had more experience with the language were also more likely to recognize the ungrammatical constructs of the language. This result is in keeping with the Bilingual Alignments Approach, which focuses on the correlation of expected responses with the external factors of language dominance and language experience (Sánchez, 2019).
Tulipa tarda Stapf
Creators: name: Kubentayev, Serik A.
name: Baasanmunkh, Shukherdorj
name: Alibekov, Daniyar T.
name: Tojibaev, Komiljon Sh.
name: Nyamgerel, Nudkhuu
name: Ivashchenko, Anna A.
name: Tsegmed, Zagarjav
name: Epiktetov, Vladimir G.
name: Sitpayeva, Gulnara T.
name: Izbastina, Klara S.
name: Idrissova, Zhansaya T.
name: Mukhtubayeva, Saule K.
name: Abubakirova, Nurganym B.
name: Gil, Hee-Young
name: Choi, Hyeok Jae
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Liliales
Liliaceae
Tulipa
Tulipa tarda

description: Tulipa tarda Stapf, Bot. Mag. 156: t. 9321 (1933).
Fig. 40
Type.
Cultivated • Bulbs sent to Firma Van Tubergen, originally from Iran (Urmia) in 1928. A preserved flower from the Van Tubergen garden and associated original illustration are labeled as presented by the Editor of the Botanical Magazine to the Kew Herbarium (K).
General distribution.
Kazakhstan, and Kyrgyzstan.
Distribution in Kazakhstan and habitat.
Trans-Ili Kungey Alatau. This species grows on stony-gravelly and rocky slopes, steppe areas and thickets of shrubs in the lower mountain belt.
Conservation status.
The IUCN conservation status of this species has not yet been assessed. It is included in the Red Book of Kazakhstan (Category II).
Phenology.
Flowering in April – May; fruiting June.
Notes.
Christenhusz et al. (2013) formally synonymized T. tarda into a taxon with the older name T. urumiensis Stapf when revising the genus. However, the name T. tarda has become entrenched in literature, horticultural trade, and conservation assessments, leading to nomenclatural destabilization and confusion. For these reasons, it has been suggested that the name T. urumiensis should be rejected so that T. tarda becomes the correct name for this species (Christenhusz and Wilson 2022). Tulipa tarda is endemic in northern Tien-Shan and grows in the western part of the Zailiyskiy Alatau ridge and adjacent regions of northern Kyrgyzstan, i. e., the valley of the Chu and Chon-Kemin rivers with the adjacent northern slopes of the Kyrgyz ridge and Kungey Alatau (Tolenova et al. 2021).
description: Published as part of Kubentayev, Serik A., Baasanmunkh, Shukherdorj, Alibekov, Daniyar T., Tojibaev, Komiljon Sh., Nyamgerel, Nudkhuu, Ivashchenko, Anna A., Tsegmed, Zagarjav, Epiktetov, Vladimir G., Sitpayeva, Gulnara T., Izbastina, Klara S., Idrissova, Zhansaya T., Mukhtubayeva, Saule K., Abubakirova, Nurganym B., Gil, Hee-Young & Choi, Hyeok Jae, 2024, Revisiting the genus Tulipa (Liliaceae) in Kazakhstan, the country with the richest tulip diversity worldwide, pp. 95-163 in PhytoKeys 250 on pages 95-163, DOI: 10.3897/phytokeys.250.136736
Additional file 1: of Compartmentalization in PVC super-phylum: evolution and impact
Creators: name: Pinos, Sandrine
name: Pontarotti, Pierre
name: Raoult, Didier
name: Baudoin, Jean
name: Pagnier, Isabelle
Publisher: name: Figshare
Year: 2016
Subjects: subject: Evolutionary Biology
subject: FOS: Biological sciences
subject: 69999 Biological Sciences not elsewhere classified

description: Mobilome distribution in the different bacterial groups according lifestyle and cell plan. The different graphics allow a better sight of the different levels for each mobilome feature. Red stars show significant differences between groups. (PDF 175Â kb)
Additional file 1: of Photoreceptor proliferation and dysregulation of cell cycle genes in early onset inherited retinal degenerations
Creators: name: Gardiner, Kristin
name: Downs, Louise
name: Berta-Antalics, Agnes
name: Santana, Evelyn
name: Aguirre, Gustavo
name: Sem Genini
Publisher: name: Figshare
Year: 2016
Subjects: subject: Biophysics
subject: Medicine
subject: Genetics
subject: FOS: Biological sciences
subject: Molecular Biology
subject: Neuroscience
subject: Physiology
subject: 69999 Biological Sciences not elsewhere classified
subject: Developmental Biology
subject: Computational Biology

description: qRT-PCR retinal gene expression results during development in normal, xlpra2, rcd1, and erd. Statistically significant (p  +/−2) gene expression differences are reported between different developmental ages (within group comparison) in each of the normal, rcd1, xlpra2, and erd groups. (DOCX 30 kb)
Batillipes marcelli Morone De Lucia, D'Addabbo Gallo & Grimaldi
Creators: name: Kaczmarek, Łukasz
name: Bartels, Paul J.
name: Roszkowska, Milena
name: Nelson, Diane R.
Publisher: name: Zenodo
Year: 2015
Subjects: Biodiversity
Taxonomy
Animalia
Tardigrada
Heterotardigrada
Arthrotardigrada
Batillipedidae
Batillipes
Batillipes marcelli

description: 18. Batillipes marcelli Morone De Lucia, D'Addabbo Gallo & Grimaldi de Zio, 1988
Batillipes marcelli n.sp. (Morone De Lucia et al. 1988)
Batillipes marcellii Morone De Lucia et al., 1988 (Villora-Moreno & Grimaldi de Zio 1996, Grimaldi de Zio & D’Addabbo Gallo 2001)
Batillipes marcelli (Accogli et al. 2009)
Terra typica: Ionian Sea (Italy, Europe)
Adriatic Sea:
• 41°05′N, 17°01′E; 0-3 m bsl: [FAO37] Italy, Bari Province, Calo Colombo, coarse sand. Accogli et al. (2009)
• 40°03′N, 17°41′E / 40°03′17′′N, 17°45′58′′E [41°04′N, 17°05′E]; 3 m bsl: [FAO37] Italy, Bari Province, near Bari, Mola di Bari-Porto Colombo, 150 m offshore of Porto Colombo, sand and sand at the edge of the Posidonia seagrass meadow. Grimaldi de Zio & D’Addabbo Gallo (2001), Grimaldi de Zio et al. (2003)
Alboran Sea:
• 35°11′N, 02°25′W; 20 m bsl: [FAO37] Morocco, Chafarinas Islands, sublittoral sand. Villora-Moreno & Grimaldi de Zio (1996)
Ionian Sea:
• 40°11′N, 17°48′E; 0-20 m bsl: [FAO37] Italy, Bari Province, Calo Colombo, coarse sand or fine sand mixed with mud. Accogli et al. (2009)
• 39°53′12′′N, 18°6′42′′E [39°53′N, 18°07′E]; 4–8 m bsl: [FAO37] Type Locality: Italy, Lecce Province, Ugento, U1 station, 50–200 m offshore of Marina di Torre San Giovanni, detritus with green algae. Morone de Lucia et al. (1988)
description: Published as part of Kaczmarek, Łukasz, Bartels, Paul J., Roszkowska, Milena & Nelson, Diane R., 2015, The Zoogeography of Marine Tardigrada, pp. 1-189 in Zootaxa 4037 (1) on page 21, DOI: 10.11646/zootaxa.4037.1.1, http://zenodo.org/record/233519
Tulipa turgaica Perezhogin
Creators: name: Kubentayev, Serik A.
name: Baasanmunkh, Shukherdorj
name: Alibekov, Daniyar T.
name: Tojibaev, Komiljon Sh.
name: Nyamgerel, Nudkhuu
name: Ivashchenko, Anna A.
name: Tsegmed, Zagarjav
name: Epiktetov, Vladimir G.
name: Sitpayeva, Gulnara T.
name: Izbastina, Klara S.
name: Idrissova, Zhansaya T.
name: Mukhtubayeva, Saule K.
name: Abubakirova, Nurganym B.
name: Gil, Hee-Young
name: Choi, Hyeok Jae
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Liliales
Liliaceae
Tulipa
Tulipa turgaica

description: Tulipa turgaica Perezhogin, Novosti Sist. Vyssh. Rast. 45: 145 (2014).
Fig. 42
Type.
Kazakhstan • Prov. Kostanay, Zhangeldin distr., pag. Turgay, 2 May 2009, Yu. Perezhogin (LE).
General distribution.
Endemic to Kazakhstan (Kubentayev et al. 2024).
Distribution in Kazakhstan and habitat.
Aktobe, and Turgay. This species grows on dry, deserted clay steppes.
Conservation status.
The IUCN conservation status of this species requires assessment.
Phenology.
Flowering in April – May; fruiting in June – July.
Notes.
Tulipa turgaica was first invalidly described in 2013 by Yu. V. Perezhogin from Northern Kazakhstan (Turgai) and validated in 2014. This species is morphologically similar to T. biebersteiniana but differs by several flowers and grows in drier habitats (Perezhogin 2013). Some taxonomists classified T. biebersteiniana as a synonym of the widespread European T. sylvestris subsp. australis (Christenhusz et al. 2013; Everett et al. 2013). When we studied populations of T. turgaica from the type locality, a high frequency of plants with several flowers was not observed. Individuals with 2–3 flowers were found in the population. However, T. turgaica differs morphologically from mesophytic T. biebersteiniana in that it does not exhibit vegetative propagation and does not form lateral stolons like T. biebersteiniana. Further studies are required to investigate the taxonomy of these species.
description: Published as part of Kubentayev, Serik A., Baasanmunkh, Shukherdorj, Alibekov, Daniyar T., Tojibaev, Komiljon Sh., Nyamgerel, Nudkhuu, Ivashchenko, Anna A., Tsegmed, Zagarjav, Epiktetov, Vladimir G., Sitpayeva, Gulnara T., Izbastina, Klara S., Idrissova, Zhansaya T., Mukhtubayeva, Saule K., Abubakirova, Nurganym B., Gil, Hee-Young & Choi, Hyeok Jae, 2024, Revisiting the genus Tulipa (Liliaceae) in Kazakhstan, the country with the richest tulip diversity worldwide, pp. 95-163 in PhytoKeys 250 on pages 95-163, DOI: 10.3897/phytokeys.250.136736
Additional file 1: of Doping knowledge, attitudes, and practices of Ugandan athletesâ  : a cross-sectional study
Creators: name: Muwonge, Haruna
name: Zavuga, Robert
name: Peninnah Kabenge
Publisher: name: Figshare
Year: 2015
Subjects: subject: Sociology
subject: FOS: Sociology
subject: Developmental Biology
subject: Science Policy
subject: Plant Biology
subject: FOS: Biological sciences

description: Performance Enhancement Attitude Scale (PEAS). (DOC 48 kb)
Tulipa turkestanica Regel
Creators: name: Kubentayev, Serik A.
name: Baasanmunkh, Shukherdorj
name: Alibekov, Daniyar T.
name: Tojibaev, Komiljon Sh.
name: Nyamgerel, Nudkhuu
name: Ivashchenko, Anna A.
name: Tsegmed, Zagarjav
name: Epiktetov, Vladimir G.
name: Sitpayeva, Gulnara T.
name: Izbastina, Klara S.
name: Idrissova, Zhansaya T.
name: Mukhtubayeva, Saule K.
name: Abubakirova, Nurganym B.
name: Gil, Hee-Young
name: Choi, Hyeok Jae
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Liliales
Liliaceae
Tulipa
Tulipa turkestanica

description: Tulipa turkestanica (Regel) Regel, Trudy Imp. S. Peterburgsk. Bot. Sada 3: 296 (1875).
Fig. 43
Type.
Uzbekistan • ‘ Chiwa’, Korolkow & Krause (COI-00050870) [lectotype designated by Christenhusz et al. 2013: 325].
General distribution.
Kazakhstan, Kyrgyzstan, Tajikistan, Uzbekistan, and China (Xinjiang) (POWO 2024).
Distribution in Kazakhstan and habitat.
Western Tian Shan, Karatau. This species grows in clayey and gravelly slopes from the foothills to the alpine zone (800–3000 m a. s. l.).
Conservation status.
Tulipa turkestanica is a least concern species at the global level (IUCN 2024).
Phenology.
Flowering in March – June; fruiting June – July.
Notes.
Eduard Ludvigovich Regel originally described T. turkestanica as Tulipa sylvestris var. turkestanica Regel in 1873, but later reclassified it as an independent species in 1875 (Ivashchenko and Belyalov 2019). Morphologically, this species is similar to T. bifloriformis, which differs by its erect buds and woolly pubescence at the top of the bulb scales (Vvedensky 1935). Transitional forms close to T. bifloriformis and T. orthopoda occur in nature (Ivashchenko and Belyalov 2019), making identifying these taxa difficult. These forms have been poorly studied and require additional research. The range of T. turkestanica might be restricted to Pamir-Alai, and this species might have been replaced by T. bifloriformis in Kazakhstan. However, this hypothesis requires further confirmation.
description: Published as part of Kubentayev, Serik A., Baasanmunkh, Shukherdorj, Alibekov, Daniyar T., Tojibaev, Komiljon Sh., Nyamgerel, Nudkhuu, Ivashchenko, Anna A., Tsegmed, Zagarjav, Epiktetov, Vladimir G., Sitpayeva, Gulnara T., Izbastina, Klara S., Idrissova, Zhansaya T., Mukhtubayeva, Saule K., Abubakirova, Nurganym B., Gil, Hee-Young & Choi, Hyeok Jae, 2024, Revisiting the genus Tulipa (Liliaceae) in Kazakhstan, the country with the richest tulip diversity worldwide, pp. 95-163 in PhytoKeys 250 on pages 95-163, DOI: 10.3897/phytokeys.250.136736
TEACHING ENGLISH TO KINESTHETIC LEARNERS
Creators: name: Amrullayeva, Maxliyo
Publisher: name: Zenodo
Year: 2024

description: A better knowledge and understanding of learning styles may become important as classroom sizes increase and as technological advances continue to mold the types of students entering higher education. While research in this area continues to grow, teachers should make concentrated efforts to teach in a multi-style fashion that both reaches the greatest extent of students in a given class and challenges all students to grow as learners. It is very important to understand and explore each individual’s learning style.
MOESM2 of Drug resistant integrase mutants cause aberrant HIV integrations
Creators: name: Janani Varadarajan
name: McWilliams, Mary
name: Mott, Bryan
name: Thomas, Craig
name: Smith, Steven
name: Hughes, Stephen
Publisher: name: Figshare
Year: 2016
Subjects: subject: Medicine
subject: Microbiology
subject: FOS: Biological sciences
subject: Cell Biology
subject: Genetics
subject: Molecular Biology
subject: Pharmacology
subject: Evolutionary Biology
subject: 39999 Chemical Sciences not elsewhere classified
subject: FOS: Chemical sciences
subject: Cancer
subject: Hematology
subject: 110309 Infectious Diseases
subject: FOS: Health sciences
subject: Plant Biology
subject: 60506 Virology

description: Additional file 2. Structure of the aberrant proviruses isolated from cells treated with suboptimal concentrations of EVG (Table S1); from cells infected with viruses harboring RAL resistant mutations and treated with suboptimal doses of RAL (Tables S2â  S4). The inhibitory concentrations of EVG or RAL used to treat the cells are indicated. The aberrations in the viral LTRs and in the integrated host chromosome(s) are indicated. U-LTR: the LTR adjacent to the primer binding site; D-LTR: the LTR adjacent to the polypurine tract.
title: Using the Earthquakes@GA data portal in the classroom tutorial videos
Creators: name: T., Alden
name: T., Alden
Publisher: name: Commonwealth of Australia (Geoscience Australia)
Year: 2024
Subjects: subject: Earthquakes
subject: earthquake monitoring
subject: Australian earthquakes
subject: National Earthquake Alert Centre (NEAC)
subject: Natural hazards
subject: Published_External

description: These videos are part of a series to provide tutorials in how to use the Earthquakes@GA portal in the classroom. They include guides for basic navigation, how to access summary data for recent earthquake events and how to make a felt report. They also demonstrate how to use the Search function to collect historic earthquake data across a range of criteria including location (both within Australia and across the world), date and time, and magnitude.Videos included:-         Introduction to using the Earthquakes@GA data portal-         How to use the Search function in the Earthquakes@GA data portal
They are suitable for a secondary to senior secondary student and teacher audience.
Batillipes noerrevangi Kristensen 1978
Creators: name: Kaczmarek, Łukasz
name: Bartels, Paul J.
name: Roszkowska, Milena
name: Nelson, Diane R.
Publisher: name: Zenodo
Year: 2015
Subjects: Biodiversity
Taxonomy
Animalia
Tardigrada
Heterotardigrada
Arthrotardigrada
Batillipedidae
Batillipes
Batillipes noerrevangi

description: 20. Batillipes noerrevangi Kristensen, 1978a
Batillipes noerrevangi Kristensen, 1976 (Kristensen 1976)
Batillipes noerrevangi nov. sp. (Kristensen 1978a)
Terra typica: North Sea (Denmark, Europe)
North Sea:
• 56°04′N, 12°34′E; 0 and 1–2 m bsl: [FAO27] Denmark, Hovedstaden Region, Julebaek [Hellebaek] beach, small saltwater puddles separated from the sea or deeper water, low salinity (12–20‰), connected with river or spring system, interstitial, sand (mean diameter 0.2 mm). Kristensen (1976, 1978a, b, 1979)
• 55°56′N, 12°32′E; 10–50 cm bsl / 0.1–0.5 m bsl: [FAO27] Type locality: Denmark, Hovedstaden Region, Nivå Bay, shallow waters, salinity (4–11‰), large aggregations with Ruppia sp. vegetation, connected with river or spring system, on the surface of the sediment, sand (mean diameter 0.2 mm). Kristensen (1976, 1978a, b, 1979)
• 55°22′N, 09°36′E; 0 m bsl: [FAO27] Denmark, Syddanmark Region, Hejlsminde beach, low salinity (12‰), connected with river or spring system, interstitial, sand (mean diameter 0.2 mm). Kristensen (1978a, 1979)
Record numbers (Sea/Ocean classification): North Sea: 3; total: 3.
Record numbers (FAO classification): FAO27: 3; total: 3.
Remarks: This species is known only from intertidal localities with low water salinity (4–20‰) in the North Sea.
Kristensen (1978a) showed that this is a very variable species especially in the length and shape of the caudal spike/s, with the length and the shape of the caudal spike/s dependant on water temperature. It was reported that the caudal spike/s rapidly responded to changes in water temperature, and body length to changes in salinity (Kristensen 1978a). However, it was not clear whether these characteristics are unique to B. noerrevangi or are common to other Batillipes species. Kristensen (1978a) also demonstrated that dorsal cuticle structure is a good taxonomic character to differentiate Batillipes species (as in Echiniscoides taxa). However, this character requires Scanning Electron Microscopy (SEM) examination (see also remarks for E. s. sigismundi). It should be noted that some records of B. mirus and B. dicrocercus should be attributed to this taxon (see B. dicrocercus above).
description: Published as part of Kaczmarek, Łukasz, Bartels, Paul J., Roszkowska, Milena & Nelson, Diane R., 2015, The Zoogeography of Marine Tardigrada, pp. 1-189 in Zootaxa 4037 (1) on pages 26-27, DOI: 10.11646/zootaxa.4037.1.1, http://zenodo.org/record/233519
Tulipa uniflora Baker
Creators: name: Kubentayev, Serik A.
name: Baasanmunkh, Shukherdorj
name: Alibekov, Daniyar T.
name: Tojibaev, Komiljon Sh.
name: Nyamgerel, Nudkhuu
name: Ivashchenko, Anna A.
name: Tsegmed, Zagarjav
name: Epiktetov, Vladimir G.
name: Sitpayeva, Gulnara T.
name: Izbastina, Klara S.
name: Idrissova, Zhansaya T.
name: Mukhtubayeva, Saule K.
name: Abubakirova, Nurganym B.
name: Gil, Hee-Young
name: Choi, Hyeok Jae
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Liliales
Liliaceae
Tulipa
Tulipa uniflora

description: Tulipa uniflora (L.) Besser ex Baker, J. Linn. Soc., Bot. 14: 295 (1874).
Fig. 45
Type.
Russia • “ In Siberiae montis Sini Sopka ”, E. Laxmann (LE; isoneotype K-000844631) [neotype designated by Levichev, 1997].
General distribution.
China (Inner Mongolia, Xinjiang), Kazakhstan, Russia (Altay, Chita, Irkutsk, Krasnoyarsk, Tuva), and Mongolia (Baasanmunkh et al. 2022).
Distribution in Kazakhstan and habitat.
Altai, Tarbagatay, and Zaysan. This species grows in sandy places, gravelly slopes, and as shrubs from desert foothills to the upper belt of mountains.
Conservation status.
Tulipa uniflora is a near threatened species at the global level (IUCN 2024); it is included in the Red Book of Kazakhstan (Category III).
Phenology.
Flowering in April – May; fruiting June – July.
Notes.
This species was first described by Linnaeus in 1767 as Ornithogalum uniflorum L. from specimens collected from the Altai Mountains. Don (1836) described the new genus Orithyia D. Don. from specimens of Ornithogalum uniflorum. It was not until 1874 that Ch. Bassey assigned this species to Tulipa. Tulipa uniflora is similar to T. heteropetala; their differences are outlined in the description of T. heteropetala above.
description: Published as part of Kubentayev, Serik A., Baasanmunkh, Shukherdorj, Alibekov, Daniyar T., Tojibaev, Komiljon Sh., Nyamgerel, Nudkhuu, Ivashchenko, Anna A., Tsegmed, Zagarjav, Epiktetov, Vladimir G., Sitpayeva, Gulnara T., Izbastina, Klara S., Idrissova, Zhansaya T., Mukhtubayeva, Saule K., Abubakirova, Nurganym B., Gil, Hee-Young & Choi, Hyeok Jae, 2024, Revisiting the genus Tulipa (Liliaceae) in Kazakhstan, the country with the richest tulip diversity worldwide, pp. 95-163 in PhytoKeys 250 on pages 95-163, DOI: 10.3897/phytokeys.250.136736
A Roadmap towards a sustainable Soil Information System in Ghana
Creators: name: CAB International
name: ISRIC World Soil Information
name: Asamoah, Eric
Publisher: name: Gates Open Research
Year: 2024

description: This roadmap outlines the strategic steps for strengthening Ghana’s Soil Information System (GhaSIS) to enhance agricultural productivity, soil health, and informed decision-making for sustainable soil management. It builds on insights from the “Ghana Soil Information System: Roadmap Development Workshop” held in October 2024 in Koforidua, co-hosted by CABI, ISRIC-World Soil Information, and CSIR-SRI. Participants from various sectors addressed common data and capacity challenges and discussed long-term financial sustainability options for GhaSIS.

The workshop reviewed seven components of the SIS framework, crucial for GhaSIS’s success: 1) envisioning the SIS, 2) enabling environment, 3) needs assessment, 4) SIS design, 5) partnership development and sustainability plan, 6) data strategy, and 7) organizational and financial sustainability plan. The roadmap includes an overview of each component, addressing available information, gaps, and recommendations, which are optional for the GhaSIS project team to consider.
title: Using the Digital Earth Australia (DEA) portal in the classroom tutorial videos
Creators: name: T., Alden
name: D., Iffland
Publisher: name: Commonwealth of Australia (Geoscience Australia)
Year: 2024
Subjects: subject: Natural Hazards
subject: satellite imagery
subject: landscape change
subject: Digital Earth Australia (DEA)
subject: Natural hazards
subject: Published_External

description: These two videos provide tutorials on how to use the Digital Earth Australia (DEA) portal in the classroom. They include guides for basic navigation, how to load a data set (DEA Landcover) and how to compare different dates within a data set. Additionally, they also show how to share your data via either a share link, image or as an interactive ‘Story’ of saved scenes.Videos included:- Introduction to using the Digital Earth Australia (DEA) portal- Exploring land cover data using the Digital Earth Australia (DEA) portal
The formation mechanism and forecasting of earthquakes
Creators: name: Liu, Huan
Publisher: name: Jiangxi Province ChengZhu Environmental Engineering Company Ltd
Year: 2024

description: DOI: 10.58473/JAES0008    Retrieval from official database: www.crossref.org

This journal article is previously published as: Liu Huan. (2021). The formation mechanism and forecasting of earthquakes. Journal of Environment and Health Science (ISSN 2314-1628), 2021(09). https://doi.org/10.58473/JAES0008, which is converted into Journal of Astronomy and Earth Sciences (ISSN2958-4043). Both Journals belong to the same publisher, Liu Huan. The previous journal article is closed to the public, but the previous reference is still valid.2024. Copyrights Certificate Registered by Brock Chain Technology: Brock Chain ID. (2f61e6fd9bb6461cda6f4a421ad1b36cd3d37a94b86a15c931937e8ff61c40cd) ; Register Time: 2024-09-04 09:54;The formally published serials is the printing , and the serials NO. is the month/year when the materials is accessible on this website, authorized by publisher;正式发表的期刊是印刷版《天文与地球科学杂志》(ISSN2958-4043),期刊期号为文章内容在本网站上网年/月,出版人许可自行正式发表。Originality Certificate: The originality of English content is 97% tested by Turnitin (International).All Copyrights Reserved.Scilit Database Retrieval URL : Link

Web of Science Retrieval URL: https://publons.com/wos-op/publon/66151006/

Researchgate: Link

PlumX Metrics: Link

BASE: Link
Batillipes orientalis Chang & Rho 1997
Creators: name: Kaczmarek, Łukasz
name: Bartels, Paul J.
name: Roszkowska, Milena
name: Nelson, Diane R.
Publisher: name: Zenodo
Year: 2015
Subjects: Biodiversity
Taxonomy
Animalia
Tardigrada
Heterotardigrada
Arthrotardigrada
Batillipedidae
Batillipes
Batillipes orientalis

description: 21. Batillipes orientalis Chang & Rho, 1997a
Batillipes orientalis n. sp. (Chang & Rho 1997a)
Terra typica: Yellow Sea (South Korea, Asia)
East China Sea:
• 33°24′N, 126°15′E; 0 m bsl: [FAO61] South Korea, Jeju Province, Cheju [Jejudo] Island, Hyopchae, intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
Sea of Japan:
• 36°00′N, 129°35′E; 0 m bsl: [FAO61] South Korea, North Gyeongsang Province, Samjung-2-ri, Kuryongpo, intertidal or shallow subtidal zone, sand or shell gravel. Rho et al. (1999)
• 35°44′N, 129°29′E; 0 m bsl: [FAO61] South Korea, North Gyeongsang Province, Bongil [Bonggil-ri], intertidal or shallow subtidal zone, sediment or sand. Chang & Rho (1997a)
Yellow Sea:
• 36°47′48′′N, 126°08′39′′E; 6–7 m bsl: [FAO61] Type Locality: South Korea, South Chungcheong Province, Manripo, intertidal or shallow subtidal zone, bottom, submerged sand. Chang & Rho (1997a)
• 35°06′N, 126°05′E; 0 m bsl: [FAO61] South Korea, South Jeolla Province, Imjado [Imja-do] Island, intertidal or shallow subtidal zone, sand or shell gravel. Rho et al. (1999)
Record numbers (Sea/Ocean classification): East China Sea: 1, Sea of Japan: 2, Yellow Sea: 2; total: 5.
Record numbers (FAO classification): FAO61: 5; total: 5.
Remarks: This species is known only from a few intertidal or shallow subtidal localities in South Korea, Asia.
description: Published as part of Kaczmarek, Łukasz, Bartels, Paul J., Roszkowska, Milena & Nelson, Diane R., 2015, The Zoogeography of Marine Tardigrada, pp. 1-189 in Zootaxa 4037 (1) on page 27, DOI: 10.11646/zootaxa.4037.1.1, http://zenodo.org/record/233519
Tulipa tschimganica Botschantz.
Creators: name: Kubentayev, Serik A.
name: Baasanmunkh, Shukherdorj
name: Alibekov, Daniyar T.
name: Tojibaev, Komiljon Sh.
name: Nyamgerel, Nudkhuu
name: Ivashchenko, Anna A.
name: Tsegmed, Zagarjav
name: Epiktetov, Vladimir G.
name: Sitpayeva, Gulnara T.
name: Izbastina, Klara S.
name: Idrissova, Zhansaya T.
name: Mukhtubayeva, Saule K.
name: Abubakirova, Nurganym B.
name: Gil, Hee-Young
name: Choi, Hyeok Jae
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Liliales
Liliaceae
Tulipa
Tulipa tschimganica

description: Tulipa × tschimganica Botschantz., Bot. Mater. Gerb. Inst. Bot. Akad. Nauk Uzbeksk. SSR. 16: 10 (1961).
Fig. 44
Type.
Uzbekistan • Grown in the Botanical Garden of the Academy of Sciences of Uzbek SSR from bulbs collected by Z. P. Botschantzeva in 1959 in the gorge in piedmonts of Greater Chimgan, on fine earth among stones, Botschantzeva 99 (holotype TASH 000526!).
General distribution.
Kazakhstan, Kirgizstan, and Uzbekistan.
Distribution in Kazakhstan and habitat.
Western Tian Shan. This species grows on rubbly and stony slopes in lower and middle mountain belts (1400–1700 m a. s. l.).
Conservation status.
Not assessed at the global level. However, this nothospecies is not protected in Kazakhstan.
Phenology.
Flowering in April – May; fruiting June – July.
Notes.
Tulipa × tschimganica was described in 1961 by Z. P. Botschantzeva from specimens grown in the Tashkent Botanical Garden from bulbs collected in Bolshoi Chimgan Gorge (Uzbekistan) (Ivashchenko and Belyalov 2019). In Kazakhstan, the species was first discovered in 2003 in the territory of the Keles Forestry, Karabausai tract (Karzhantau Ridge) along the rubbly hollows of the northwestern and north-eastern slopes at an altitude of 1600–1700 m a. s. l. (Ivashchenko et al. 2006). The origin of this species is relatively controversial; some consider it a separate species (Botschantzeva 1962; Van Raamsdonk et al. 1997; Pratov et al. 2006; Zonneveld 2009), whereas others consider it a hybrid of T. greigii and T. kaufmanniana (Vvedensky and Kovalevskaya 1971) or a hybrid of T. dubia and T. kaufmanniana (Christenhusz et al. 2013). Tojibaev (2010) and Tojibaev and Beshko (2014) previously considered this species a subspecies of T. kaufmanniana subsp. tschimganica but it was listed as a separate species later in the synopsis of the genus Tulipa (Liliaceae) in Uzbekistan (Tojibaev et al. 2022).
description: Published as part of Kubentayev, Serik A., Baasanmunkh, Shukherdorj, Alibekov, Daniyar T., Tojibaev, Komiljon Sh., Nyamgerel, Nudkhuu, Ivashchenko, Anna A., Tsegmed, Zagarjav, Epiktetov, Vladimir G., Sitpayeva, Gulnara T., Izbastina, Klara S., Idrissova, Zhansaya T., Mukhtubayeva, Saule K., Abubakirova, Nurganym B., Gil, Hee-Young & Choi, Hyeok Jae, 2024, Revisiting the genus Tulipa (Liliaceae) in Kazakhstan, the country with the richest tulip diversity worldwide, pp. 95-163 in PhytoKeys 250 on pages 95-163, DOI: 10.3897/phytokeys.250.136736
Additional file 4: Figure S4. of CORALINA: a universal method for the generation of gRNA libraries for CRISPR-based screening
Creators: name: Köferle, Anna
name: Worf, Karolina
name: Breunig, Christopher
name: Baumann, Valentin
name: Herrero, Javier
name: Wiesbeck, Maximilian
name: Hutter, Lukas
name: Götz, Magdalena
name: Fuchs, Christiane
name: Beck, Stephan
name: Stricker, Stefan
Publisher: name: Figshare
Year: 2016
Subjects: subject: Biochemistry
subject: Space Science
subject: Microbiology
subject: FOS: Biological sciences
subject: Cell Biology
subject: Genetics
subject: Molecular Biology
subject: Physiology
subject: Pharmacology
subject: 59999 Environmental Sciences not elsewhere classified
subject: FOS: Earth and related environmental sciences
subject: 39999 Chemical Sciences not elsewhere classified
subject: FOS: Chemical sciences
subject: 69999 Biological Sciences not elsewhere classified
subject: Developmental Biology
subject: Cancer
subject: 111714 Mental Health
subject: FOS: Health sciences

description: Functional analysis of CORALINA gRNAs. (A) List of most frequently sequenced alteration generated with gRNA P1-20. (B-E) Top: Schematic depicting CORALINA-derived gRNAs targeting regions in or near various human genes (HS3ST3B1 gRNA H1-46, 46 bp protospacer, PCDH8, gRNA P2- 40, 40 bp protospacer, ZNF790, gRNA Z1-35, 35 bp protospacer, PIK3AP1, gRNA P3-35, 35 bp protospacer). Control gRNAs have been shortened from the 5′ end to yield a 20 bp protospacer. Right: Bargraph depicting percentage of NGS reads displaying indels after targeting wild-type Cas9 using CORALINA-derived gRNAs in HEK293T cells. Below: List of the most frequently sequenced alterations generated by CORALINA and control gRNAs. (PDF 320 kb)