cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
Paspalum urvillei Steud. 1853
Creators: name: Verloove, Filip
name: Gonçalves Silva, Juan J.
name: Leliaert, Frederik
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Liliopsida
Poales
Poaceae
Paspalum
Paspalum urvillei

description: Paspalum urvillei Steud. (1853: 24)
Specimens examined: PORTUGAL. Santa Cruz, Santo António da Serra, S side of Golf Court, half-open grassland on the verge of golf court, an established population with +100 individuals, 17 September 2021, F. Verloove 14150 (BR); Ponta do Sol, mouth of riverlet, beach, a single huge individual, 21 September 2021, F. Verloove 14153 (BR); Ambas as margens na foz da ribeira da Ponta do Sol, formando tufos [Both river banks at the mouth of Ponta do Sol stream, forming tufts], 27 October 2022, J. Silva, J. Ferreira & A. Nóbrega 7397 (MADM).
This South American weed has its native range from Bolivia to Brazil and in southern South America. It is widely introduced elsewhere as a forage species in tropical and subtropical regions across the world and has established itself in highly disturbed natural ecosystems, agricultural fields, etc. It is listed as an invasive species in, among others, Hong Kong, Japan, Réunion, U.S.A., Cuba, Australia, New Caledonia and New Zealand. In Europe, it has a limited distribution in the Iberian Peninsula where it is naturalized in both Portugal and Spain (Pinto da Silva 1971, Litzler 1979). In Macaronesia, it is well-known from the Azores (Santa Maria, São Miguel, Terceira; Silva et al. 2005) whereas in the Canary Islands it has only been reported from La Palma (Santos 1983) where it has become a common weed. It is here recorded for the first time from the island of Madeira.
Paspalum urvillei is much reminiscent of P. dilatatum Poir., the latter being widely naturalized, especially in lowland parts, in the island of Madeira. Perhaps both have been intermingled up to the present. P. urvillei usually is a taller species, with robust stems up to 2 m tall; its spikelets, however, are smaller (2–3 mm vs. 3–4 mm) and the inflorescence branches are much more numerous (10–25 vs. 2–10). In September 2021, P. urvillei was observed in two localities (see above). At least in Santo António da Serra it looks well-established. It should be looked for elsewhere in the island of Madeira.
description: Published as part of Verloove, Filip, Gonçalves Silva, Juan J. & Leliaert, Frederik, 2024, Critical notes on grasses (Poaceae) of Madeira, Portugal, pp. 1-17 in Phytotaxa 670 (1) on page 6, DOI: 10.11646/phytotaxa.670.1.1, http://zenodo.org/record/14519094
Long-Range Four-body Interactions in Structured Nonlinear Photonic Waveguides
Creators: name: Wang, Xin
name: Li, Jia-Qi
name: Liu, Tao
name: Miranowicz, Adam
name: Nori, Franco
Publisher: name: arXiv
Year: 2024
Subjects: subject: Quantum Physics (quant-ph)
subject: FOS: Physical sciences

description: Multi-photon dynamics beyond linear optical materials are of significant fundamental and technological importance in quantum information processing. However, it remains largely unexplored in nonlinear waveguide QED. In this work, we theoretically propose a structured nonlinear waveguide in the presence of staggered photon-photon interactions, which supports two branches of gaped bands for doublons (i.e., spatially bound-photon-pair states). In contrast to linear waveguide QED systems, we identify two important contributions to its dynamical evolution, i.e., single-photon bound states (SPBSs) and doublon bound states (DBSs). Most remarkably, the nonlinear waveguide can mediate the long-range four-body interactions between two emitter pairs, even in the presence of disturbance from SPBS. By appropriately designing system's parameters, we can achieve high-fidelity four-body Rabi oscillations mediated only by virtual doublons in DBSs. Our findings pave the way for applying structured nonlinear waveguide QED in multi-body quantum information processing and quantum simulations among remote sites.
description: 14 pages; 9 figures
Additional file 2: of Treatment use in prognostic model research: a systematic review of cardiovascular prognostic studies
Creators: name: Romin Pajouheshnia
name: Damen, Johanna
name: Groenwold, Rolf
name: Moons, Karel
name: Peelen, Linda
Publisher: name: Figshare
Year: 2017
Subjects: subject: Biotechnology
subject: 69999 Biological Sciences not elsewhere classified
subject: FOS: Biological sciences
subject: 80699 Information Systems not elsewhere classified
subject: FOS: Computer and information sciences
subject: 19999 Mathematical Sciences not elsewhere classified
subject: FOS: Mathematics
subject: Cancer
subject: Science Policy

description: List of items for data extraction. (DOCX 17Â kb)
Xysticus thessalicus Simon 1916
Creators: name: Naumova, Maria
name: Blagoev, Gergin
name: Deltshev, Christo
Publisher: name: Zenodo
Year: 2021
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Arachnida
Araneae
Thomisidae
Xysticus
Xysticus thessalicus

description: Xysticus thessalicus Simon, 1916
Figs 25A–C
Material. 1 ♀ (IBER), Slavyanka Mts, Lehovo village, N 41.4111 ˚, E 23.4986 ˚, 544 m, 18.05.2009, M. Naumova leg., dry meadow.
Remarks. Reported from Albania, Croatia, Greece, Israel and Turkey (World Spider Catalog 2021). New photographs of the female habitus (Fig. 25A), epigyne (Fig. 25B) and vulva (Fig. 25C) are presented.
description: Published as part of Naumova, Maria, Blagoev, Gergin & Deltshev, Christo, 2021, Fifty spider species new to the Bulgarian fauna, with a review of some dubious species (Arachnida: Araneae), pp. 228-257 in Zootaxa 4984 (1) on page 253, DOI: 10.11646/zootaxa.4984.1.18, http://zenodo.org/record/4927030
Current circulation near additional energy degeneracy points in quadratic Fermionic networks
Creators: name: Upadhyay, Vipul
name: Marathe, Rahul
Publisher: name: arXiv
Year: 2024
Subjects: subject: Statistical Mechanics (cond-mat.stat-mech)
subject: FOS: Physical sciences

description: We study heat and particle current circulation (CC) in quadratic Fermionic systems analysed using a general dissipative Lindbladian master equation. It was observed in an earlier study (Upadhyay et al. Phys. Rev. E 107, 034120 (2023)), that CC occurs near the additional energy degeneracy point (AEDP) in Fermionic systems which have some form of asymmetry. We find general analytical expression to support this observation for quadratic Fermionic networks. We then apply these ideas to the Su-Schrieffer-Heeger (SSH) model with periodic boundary conditions and a tight binding model with unequal hopping strengths in the upper and lower branches. In both these cases, we find the specific conditions required for observing CC and study the behavior of these currents with various system parameters. We find that having unequal number of Fermionic sites in the upper and lower branches is enough for generating CC in the SSH model. However, this asymmetry is not adequate for the tight-binding model and we require unequal hopping strengths in the upper and lower branches to induce CC in this model. We also compare our results with the exact results obtained via the Non-Equilibrium Green Function (NEGF) formalism, and observe that the relationship between AEDP and CC also holds for the exact results. Finally, we observe that for certain system parameters, the onset point of particle and heat CC are not the same. Based on all these observations, we describe how carefully examining the energy spectrum of the system gives a great deal of information about the possibility and behavior of CC in Fermionic systems with asymmetries.
description: 19 pages, 9 figures, Accepted for publication in J. Stat. Mech.: Theory and Experiments (2024)
NetMind: Adaptive RAN Baseband Function Placement by GCN Encoding and Maze-solving DRL
Creators: name: Li, Haiyuan
name: Li, Peizheng
name: Assis, Karcius Day
name: Aijaz, Adnan
name: Shen, Sen
name: Nejabati, Reza
name: Yan, Shuangyi
name: Simeonidou, Dimitra
Publisher: name: arXiv
Year: 2024
Subjects: subject: Networking and Internet Architecture (cs.NI)
subject: FOS: Computer and information sciences

description: The disaggregated and hierarchical architecture of advanced RAN presents significant challenges in efficiently placing baseband functions and user plane functions in conjunction with Multi-Access Edge Computing (MEC) to accommodate diverse 5G services. Therefore, this paper proposes a novel approach NetMind, which leverages Deep Reinforcement Learning (DRL) to determine the function placement strategies in RANs with diverse topologies, aiming at minimizing power consumption. NetMind formulates the function placement problem as a maze-solving task, enabling a Markov Decision Process with standardized action space scales across different networks. Additionally, a Graph Convolutional Network (GCN) based encoding mechanism is introduced, allowing features from different networks to be aggregated into a single RL agent. That facilitates the RL agent's generalization capability and minimizes the negative impact of retraining on power consumption. In an example with three sub-networks, NetMind achieves comparable performance to traditional methods that require a dedicated DRL agent for each network, resulting in a 70% reduction in training costs. Furthermore, it demonstrates a substantial 32.76% improvement in power savings and a 41.67% increase in service stability compared to benchmarks from the existing literature.
description: This work has been accepted by IEEE Wireless Communications and Networking Conference (WCNC) 2024
Claudecypria Almeida 2023
Creators: name: Meisch, Claude
name: Smith, Robin J.
name: Martens, Koen
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Ostracoda
Podocopida
Candonidae
Claudecypria

description: Claudecypria Almeida et al., 2023
* Claudecypria mesquitai Almeida et al., 2023: NT
Claudecypria rochei Almeida et al., 2023: NT
description: Published as part of Meisch, Claude, Smith, Robin J. & Martens, Koen, 2024, An updated subjective global checklist of the extant non-marine Ostracoda (Crustacea), pp. 1-144 in European Journal of Taxonomy 974 on page 37, DOI: 10.5852/ejt.2024.974.2767, http://zenodo.org/record/14500383
Pselnophorus albitarsellus Walsingham 1900
Creators: name: Pathania, Prakash C.
name: Das, Apurva
name: Chandra, Kailash
Publisher: name: Zenodo
Year: 2021
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Pterophoridae
Pselnophorus
Pselnophorus albitarsellus

description: 76. Pselnophorus albitarsellus Walsingham, 1900 (Plate 5, Fig. 5)
Pselnophorus albitarsellus Walsingham, 1900; Swinhoe Catalogue Lepidoptera Heterocera, 2: 542.
TL: India.
Distribution: India (South).
description: Published as part of Pathania, Prakash C., Das, Apurva & Chandra, Kailash, 2021, Catalogue of superfamily Pterophoroidea Kuznetsov & Stekolnikov (Lepidoptera) of India, pp. 201-236 in Zootaxa 4915 (2) on page 217, DOI: 10.11646/zootaxa.4915.2.2, http://zenodo.org/record/4454312
title: Interpreting a Seminar for Research and Curriculum Development in Art Education: Context and Significance
Creators: name: Rodriguez, Felix
name: Esola, Lindsay L.
name: Deng, Yang
name: Stankiewicz, Mary Ann
Publisher: name: The Pennsylvania State University Libraries
Year: 2019

description: Published in Transdisciplinary Inquiry, Practice, and Possibilities in Art Education: Proceedings from The Penn State Seminar @50; https://doi.org/10.26209/arted50
Trachelas minor O. Pickard-Cambridge 1872
Creators: name: Naumova, Maria
name: Blagoev, Gergin
name: Deltshev, Christo
Publisher: name: Zenodo
Year: 2021
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Arachnida
Araneae
Corinnidae
Trachelas
Trachelas minor

description: Trachelas minor O. Pickard-Cambridge, 1872
Material. 1 ♂ (IBER), Thracian lowland, Yagodovo village, N 42.1107 ˚, E 24.8510 ˚, 159 m, 21– 26.10.2018, 1 ♀ (IBER), 25.04– 05.05.2019; 1 ♂, 4 ♀ (IBER), 04– 12.10.2019; 1 ♂ (IBER), 13.03.2020; 1 ♀ (IBER), 10.08.2020 V. Genchev leg., in a backyard.
Remarks. Distributed across the Mediterranean to Central Asia, Western Africa and Cyprus (Bosmans et al. 2019).
description: Published as part of Naumova, Maria, Blagoev, Gergin & Deltshev, Christo, 2021, Fifty spider species new to the Bulgarian fauna, with a review of some dubious species (Arachnida: Araneae), pp. 228-257 in Zootaxa 4984 (1) on page 253, DOI: 10.11646/zootaxa.4984.1.18, http://zenodo.org/record/4927030
Comalcandona Kulkoyluoglu & Gibson 2018
Creators: name: Meisch, Claude
name: Smith, Robin J.
name: Martens, Koen
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Ostracoda
Podocopida
Candonidae
Comalcandona

description: Comalcandona Külköylüoğlu & Gibson, 2018
Comalcandona gibsoni Külköylüoğlu, 2019: NA
* Comalcandona tressleri Külköylüoğlu & Gibson, 2018: NA
description: Published as part of Meisch, Claude, Smith, Robin J. & Martens, Koen, 2024, An updated subjective global checklist of the extant non-marine Ostracoda (Crustacea), pp. 1-144 in European Journal of Taxonomy 974 on page 37, DOI: 10.5852/ejt.2024.974.2767, http://zenodo.org/record/14500383
Pseudoxyroptila Hori 1933
Creators: name: Pathania, Prakash C.
name: Das, Apurva
name: Chandra, Kailash
Publisher: name: Zenodo
Year: 2021
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Pterophoridae
Pseudoxyroptila

description: Genus Pseudoxyroptila Hori, 1933
Type species: Xyroptila tectonica Meyrick, 1914; Supplementa Entomologica (Berlin), 3: 46.
description: Published as part of Pathania, Prakash C., Das, Apurva & Chandra, Kailash, 2021, Catalogue of superfamily Pterophoroidea Kuznetsov & Stekolnikov (Lepidoptera) of India, pp. 201-236 in Zootaxa 4915 (2) on page 217, DOI: 10.11646/zootaxa.4915.2.2, http://zenodo.org/record/4454312
Anchusa arvensis M. Bieb.
Creators: name: Konrad Lauber
name: Gerhart Wagner
name: Andreas Gygax
Publisher: name: Haupt Verlag
Year: 2018
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Boraginales
Boraginaceae
Anchusa
Anchusa arvensis

description: Anchusa arvensis (L.) M. Bieb.
Artbeschreibung: Ähnlich wie A. officinalis, aber meist nicht über 50 cm hoch, Stängel etwas fleischig, Blätter am Rand wellig und geschweift gezähnt, Krone hellblau mit weissem Schlund, Kronröhre mit knieförmiger Biegung (nur bei dieser Boraginacea), 6-8 mm lang. Durchmesser des Kronsaums 5-7 mm. Kelch bis fast zum Grund 5teilig.
Blütezeit: 6-9
Standort und Verbreitung in der Schweiz: Äcker, Wegränder, Schuttplätze / kollin-subalpin / GR, VS, MW, J u.a.
Verbreitung global: Ursprünglich west- und zentralasiatisch
Ökologische Zeigerwerte nach Landolt & al. (2010)
BodenfaktorenKlimafaktorenSalztoleranzFeuchtezahl FfrischLichtzahl LhellSalzzeichen--Reaktionszahl Rschwach sauer bis neutral (pH 4.5-7.5)Temperaturzahl Tkollin (Laubmischwälder mit Eichen)Nährstoffzahl NnährstoffreichKontinentalitätszahl Ksubkontinental (niedrige relative Luftfeuchtigkeit, grosse Temperaturschwankungen, eher kalte Winter)
Volksname Deutscher Name: Krummhals, Wolfsauge Nom français: Buglosse des champs Nome italiano: Buglossa minore
description: Published as part of Konrad Lauber, Gerhart Wagner & Andreas Gygax, 2018, Flora Helvetica - Boraginaceae, pp. 800-822 in Flora Helvetica, Bern :Haupt Verlag on page 812
Additional file 13: of Plant pectin acetylesterase structure and function: new insights from bioinformatic analysis
Creators: name: Philippe, Florian
name: Pelloux, Jérôme
name: Rayon, Catherine
Publisher: name: Figshare
Year: 2017
Subjects: subject: Biochemistry
subject: Microbiology
subject: FOS: Biological sciences
subject: Evolutionary Biology
subject: Ecology
subject: 69999 Biological Sciences not elsewhere classified
subject: Plant Biology
subject: 60506 Virology
subject: Computational Biology

description: Structure sequence alignment of bacterial and fungal PAEs with a fungal RGAE. The PAE sequences from some bacteria (paeY, yxiM) and fungi (yesY, rhgT, AN2528) were retrieved from Uniprot and structure-aligned with one fungal rhamnogalacturonan acetylesterase (PDB code: 1PP4) using Expresso and rendered using ESPript3 [72, 73]. Conserved residues are masked in red (absolutely conserved) or yellow. The catalytic triad in 1PP4 is indicated by a red star. Secondary structure elements of 1PP4 are shown at the top. α, β, n and T represent α-helix, β-strand, 310 helix and β-turn, respectively. (XLSX 13.3 kb)
Additional file 6: Figure S4. of Îł-Carboxymuconolactone decarboxylase: a novel cell cycle-related basal body protein in the early branching eukaryote Trichomonas vaginalis
Creators: name: Cheng, Wei-Hung
name: Kuo-Yang Huang
name: Po-Jung Huang
name: Chi-Ching Lee
name: Yeh, Yuan-Ming
name: Fu-Man Ku
name: Lin, Rose
name: Cheng, Mei-Ling
name: Cheng-Hsun Chiu
name: Tang, Petrus
Publisher: name: Figshare
Year: 2017
Subjects: subject: Microbiology
subject: FOS: Biological sciences
subject: Genetics
subject: Molecular Biology
subject: Evolutionary Biology
subject: Ecology
subject: 69999 Biological Sciences not elsewhere classified
subject: Developmental Biology
subject: Cancer
subject: Inorganic Chemistry
subject: FOS: Chemical sciences
subject: 110309 Infectious Diseases
subject: FOS: Health sciences

description: Phylogenetic association of the dualCMD proteins. The Bayesian consensus tree of dualCMDs was inferred from 2 Monte Carlo Markov Chains (MCMC) chains based on the Le Gascuel model in PhyloBayes. Posterior probabilities (PP) were indicated as circles on nodes, and the size of circles represented the PP values (from ~0.5 to 1). Red circles indicate that the organisms have canonical CMD within their genomes. Red asterisks show organisms that possess protocatechuate 3,4-dioxygenase (P3,4O), the first enzyme of the pathway, and canonical CMD. Actinobacteria are shown in purple; Bacteroidetes are shown in light green; Firmicutes are shown in brown; Proteobacteria are shown in blue. Fungal and protistic dualCMDs are shown in red; archaeon dualCMDs are shown in green. Group 1: Actinobacteria, Bacteroidetes, Firmicutes, Fusobacteria, Proteobacteria, other bacteria. Group 2: Archaea, Bacteroidetes, Firmicutes, Fusobacteria, Proteobacteria, other bacteria. (PDF 124 kb)
Highly pathogenic avian H5N1 influenza A virus replication in ex vivo cultures of bovine mammary gland and teat tissues
Creators: name: Imai, Masaki
name: Ueki, Hiroshi
name: Ito, Mutsumi
name: Iwatsuki-Horimoto, Kiyoko
name: Kiso, Maki
name: Biswas, Asim
name: Trifkovic, Sanja
name: Cook, Nigel
name: Halfmann, Peter J.
name: Neumann, Gabriele
name: Eisfeld, Amie J.
name: Kawaoka, Yoshihiro
Publisher: name: Taylor & Francis
Year: 2025
Subjects: subject: Biochemistry
subject: Space Science
subject: Medicine
subject: Evolutionary Biology
subject: FOS: Biological sciences
subject: Environmental Sciences not elsewhere classified
subject: Immunology
subject: FOS: Clinical medicine
subject: Mathematical Sciences not elsewhere classified
subject: Cancer
subject: Mental Health
subject: Infectious Diseases
subject: FOS: Health sciences
subject: Plant Biology
subject: Virology

description: Since early 2024, highly pathogenic avian influenza H5N1 viruses have been causing outbreaks in dairy cattle in the United States. Here, we compared the replicative capacity of A/dairy cattle/Texas/24-008749-001/2024 (H5N1; Cow-H5N1) isolated from a dairy cow, A/chicken/Ghana/AVL-76321VIR7050-39/2021 (H5N1; Chicken-H5N1) isolated from a chicken, and a human H1N1 2009 pandemic virus in ex vivo explant cultures of mammary gland and teat from lactating cows. We also examined the expression of influenza virus receptors in these organs. We observed that human influenza virus receptors are widely distributed throughout the epithelium of alveoli, ducts, and gland cisterns within the mammary gland, and in the teat cistern epithelium of dairy cattle, whereas avian influenza virus receptors are distributed on the alveolar, ductal, and teat cistern epithelium. We also found that Cow-H5N1 virus replicates more efficiently than Chicken-H5N1 or human H1N1pdm viruses in the gland cistern epithelium of dairy cattle. Notably, bovine H5N1 viruses replicated efficiently in the epithelium of the bovine teat cistern. These findings suggest that H5N1 viruses invade the mammary gland through the teat canal, which is easily accessed by viruses.
Anchusa italica Retz.
Creators: name: Konrad Lauber
name: Gerhart Wagner
name: Andreas Gygax
Publisher: name: Haupt Verlag
Year: 2018
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Boraginales
Boraginaceae
Anchusa
Anchusa italica

description: Anchusa italica Retz.
Artbeschreibung: Ähnlich wie A. officinalis, aber bis 1,5 m hoch, Blüten lebhaft azur- bis violettblau, Durchmesser 12-15 mm, Kronröhre 10-15 mm lang, Schlundschuppen pinselartig behaart, Kelch bis fast zum Grund geteilt.
Blütezeit: 5-8
Standort und Verbreitung in der Schweiz: Wegränder, Schuttplätze / kollin / Vereinzelt, meist nur adventiv
Verbreitung global: Mediterran-westasiatisch
Ökologische Zeigerwerte nach Landolt & al. (2010)
BodenfaktorenKlimafaktorenSalztoleranzFeuchtezahl Fsehr trockenLichtzahl LhellSalzzeichen--Reaktionszahl Rneutral bis basisch (pH 5.5-8.5)Temperaturzahl Tsehr warm-kollin (nur an wärmsten Stellen, Hauptverbreitung in Südeuropa)Nährstoffzahl Nmässig nährstoffarm bis mässig nährstoffreichKontinentalitätszahl Ksubkontinental (niedrige relative Luftfeuchtigkeit, grosse Temperaturschwankungen, eher kalte Winter)
Volksname Deutscher Name: Italienische Ochsenzunge Nom français: Buglosse d'Italie Nome italiano: Buglossa azzurra
description: Published as part of Konrad Lauber, Gerhart Wagner & Andreas Gygax, 2018, Flora Helvetica - Boraginaceae, pp. 800-822 in Flora Helvetica, Bern :Haupt Verlag on page 812
Additional file 13: of Plant pectin acetylesterase structure and function: new insights from bioinformatic analysis
Creators: name: Philippe, Florian
name: Pelloux, Jérôme
name: Rayon, Catherine
Publisher: name: Figshare
Year: 2017
Subjects: subject: Biochemistry
subject: Microbiology
subject: FOS: Biological sciences
subject: Evolutionary Biology
subject: Ecology
subject: 69999 Biological Sciences not elsewhere classified
subject: Plant Biology
subject: Virology
subject: Computational Biology

description: Structure sequence alignment of bacterial and fungal PAEs with a fungal RGAE. The PAE sequences from some bacteria (paeY, yxiM) and fungi (yesY, rhgT, AN2528) were retrieved from Uniprot and structure-aligned with one fungal rhamnogalacturonan acetylesterase (PDB code: 1PP4) using Expresso and rendered using ESPript3 [72, 73]. Conserved residues are masked in red (absolutely conserved) or yellow. The catalytic triad in 1PP4 is indicated by a red star. Secondary structure elements of 1PP4 are shown at the top. α, β, n and T represent α-helix, β-strand, 310 helix and β-turn, respectively. (XLSX 13.3 kb)
Additional file 4: of Temporal dynamics in microbial soil communities at anthrax carcass sites
Creators: name: Valseth, Karoline
name: NesbĂ¸, Camilla
name: W. Easterday
name: Turner, Wendy
name: Jaran Olsen
name: Stenseth, Nils
name: Haverkamp, Thomas
Publisher: name: Figshare
Year: 2017
Subjects: 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: 19999 Mathematical Sciences not elsewhere classified
subject: FOS: Mathematics
subject: Infectious Diseases
subject: FOS: Health sciences

description: A text document contained supplementary methods, equations, results and figure (mentioned only in the supplementary information). (DOCX 896Â kb)
Cryptocandona Kaufmann 1900
Creators: name: Meisch, Claude
name: Smith, Robin J.
name: Martens, Koen
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Ostracoda
Podocopida
Candonidae
Cryptocandona

description: Cryptocandona Kaufmann, 1900
Cryptocandona angustissima (Ekman, 1914) Alm 1915: PA
Candona angustissima Ekman, 1914
Cryptocandona brehmi (Klie, 1934) Bronstein 1947: PA
Candona brehmi Klie, 1934
Cryptocandona dudichi (Klie, 1930) Brehm 1953: PA
Candona dudichi Klie, 1930
Cryptocandona kieferi (Klie, 1938) Danielopol 1980: PA
Cryptocandona kieferi kieferi (Klie, 1938) Danielopol 1980
Candona kieferi Klie, 1938
Syn.: Cryptocandona juvavi Brehm, 1953 (fide Meisch 2000)
Cryptocandona kieferi danubialis Namiotko et al., 2005
Cryptocandona kieferi dobrogensis Namiotko et al., 2005
Cryptocandona leruthi (Klie, 1936) Danielopol 1980: PA
Candona leruthi Klie, 1936
Cryptocandona longipes (Ekman, 1908) G.W. Müller 1912: PA
Candona longipes Ekman, 1908
Cryptocandona matris (Sywula, 1976) Danielopol 1980: PA
Candona matris Sywula, 1976
Cryptocandona phreaticola (Klie, 1927) Brehm 1953: PA
Candona phreaticola Klie, 1927
Cryptocandona pygmaea (Ekman, 1908) G.W. Müller 1912: PA
Candona pygmaea Ekman, 1908
Cryptocandona reducta (Alm, 1914) Sars 1925: PA
Candona reducta Alm, 1914
Cryptocandona smithi Karanovic & Lee, 2012: PA
Cryptocandona tsukagoshii Smith, 2011: PA
* Cryptocandona vavrai Kaufmann, 1900: PA
description: Published as part of Meisch, Claude, Smith, Robin J. & Martens, Koen, 2024, An updated subjective global checklist of the extant non-marine Ostracoda (Crustacea), pp. 1-144 in European Journal of Taxonomy 974 on page 38, DOI: 10.5852/ejt.2024.974.2767, http://zenodo.org/record/14500383
Procapperia pelecyntes
Creators: name: Pathania, Prakash C.
name: Das, Apurva
name: Chandra, Kailash
Publisher: name: Zenodo
Year: 2021
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Pterophoridae
Procapperia
Procapperia pelecyntes

description: 75. Procapperia pelecyntes (Meyrick, 1907) (Plate 5, Fig. 4)
Oxyptilus pelecyntes Meyrick, 1907; Transactions of the Entomological Society of London, 1907: 477.
TL: India, Assam.
Distribution: India (Assam, Himachal Pradesh, Meghalaya), China, Sri Lanka (Adamczewski 1951), Japan, Nepal.
Host: Fletcher (1921) reported Scutellaria indica and Scutellaria discolor (Lamiaceae).
description: Published as part of Pathania, Prakash C., Das, Apurva & Chandra, Kailash, 2021, Catalogue of superfamily Pterophoroidea Kuznetsov & Stekolnikov (Lepidoptera) of India, pp. 201-236 in Zootaxa 4915 (2) on page 217, DOI: 10.11646/zootaxa.4915.2.2, http://zenodo.org/record/4454312
Anchusa officinalis L.
Creators: name: Konrad Lauber
name: Gerhart Wagner
name: Andreas Gygax
Publisher: name: Haupt Verlag
Year: 2018
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Boraginales
Boraginaceae
Anchusa
Anchusa officinalis

description: Anchusa officinalis L.
Artbeschreibung: 30-100 cm hoch, ästig, steifhaarig. Blätter lanzettlich, nicht wellig, ganzrandig oder entfernt gezähnt, untere am Grund verschmälert, obere umfassend. Blütenstände end- und seitenständig, mit Tragblättern. Krone rot- bis blauviolett mit samtigen, die Staubblätter überragenden Schlundschuppen. Kronröhre 7-10 mm lang, gerade, Saum +/- ausgebreitet, 5zipflig, Durchmesser 7-10 mm. Kelch im unteren Drittel verwachsen.
Blütezeit: 5-9
Standort und Verbreitung in der Schweiz: Wegränder, Schuttplätze / kollin-montan(-subalpin) / AS, zerstreut AN, M und J
Verbreitung global: Europäisch
Ökologische Zeigerwerte nach Landolt & al. (2010)
BodenfaktorenKlimafaktorenSalztoleranzFeuchtezahl Fmässig trockenLichtzahl LhellSalzzeichen--Reaktionszahl Rneutral bis basisch (pH 5.5-8.5)Temperaturzahl Twarm-kollinNährstoffzahl NnährstoffreichKontinentalitätszahl Ksubkontinental (niedrige relative Luftfeuchtigkeit, grosse Temperaturschwankungen, eher kalte Winter)
Volksname Deutscher Name: Echte Ochsenzunge, Gebräuchliche Ochsenzunge Nom français: Buglosse officinale Nome italiano: Buglossa comune
description: Published as part of Konrad Lauber, Gerhart Wagner & Andreas Gygax, 2018, Flora Helvetica - Boraginaceae, pp. 800-822 in Flora Helvetica, Bern :Haupt Verlag on page 812
Asperugo procumbens L.
Creators: name: Konrad Lauber
name: Gerhart Wagner
name: Andreas Gygax
Publisher: name: Haupt Verlag
Year: 2018
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Boraginales
Boraginaceae
Asperugo
Asperugo procumbens

description: Asperugo procumbens L.
Artbeschreibung: Stängel bis 1 m, liegend, brüchig, mit rückwärts gerichteten Stachelchen. Blätter zu 2 oder mehreren, eilanzettlich, 2-6 cm lang +/- ganzrandig, dünn. Blüten meist einzeln in den Blattwinkeln, +/- sitzend. Krone violett oder blau mit weisslichen Schlundschuppen, trichterförmig, ca. 4 mm lang, den Kelch wenig überragend. Kelch zur Fruchtzeit bis 15 mm lang, 2klappig, mit grossen Zähnen, abwärts gebogen. Teilfrüchte bis 3,5 mm lang, flach, schmal geflügelt.
Blütezeit: 5-8
Standort und Verbreitung in der Schweiz: Umgebung von Ställen, Lägerstellen, Balmen / (kollin-)montan-subalpin / A
Verbreitung global: Ursprüngliche Verbreitung?
Ökologische Zeigerwerte nach Landolt & al. (2010)
BodenfaktorenKlimafaktorenSalztoleranzFeuchtezahl FfrischLichtzahl LhellSalzzeichen--Reaktionszahl Rneutral bis basisch (pH 5.5-8.5)Temperaturzahl Tunter-subalpin und ober-montanNährstoffzahl Nsehr nährstoffreich bis überdüngtKontinentalitätszahl Ksubkontinental (niedrige relative Luftfeuchtigkeit, grosse Temperaturschwankungen, eher kalte Winter)
Volksname Deutscher Name: Niederliegendes Scharfkraut Nom français: Râpette couchée Nome italiano: Buglossa dentata
description: Published as part of Konrad Lauber, Gerhart Wagner & Andreas Gygax, 2018, Flora Helvetica - Boraginaceae, pp. 800-822 in Flora Helvetica, Bern :Haupt Verlag on page 812
Abscondita anceyi
Creators: name: Ho, - Z.
Publisher: name: Zenodo
Year: 2019
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Coleoptera
Lampyridae
Abscondita
Abscondita anceyi

description: Abscondita anceyi (Olivier 1883)
Figs 99, 100
Luciola anceyi Olivier 1883: 330. Bourgeois 1890: 185. McDermott 1966: 99. Chen, 1999: 31; 2003: 173.
Luciola anceyi Olivier. Olivier 1888: 430; 1902: 74; 1913c: 271.
Abscondita anceyi (Olivier). Ballantyne et al. 2013: 1. Fu 2014: 98.
Holotype. Female. CHINA. (MNHN).
Other specimens examined. S.N. = Sorasak Nak-eiam. THAILAND. 20°00’ N, 99°48’ E, Chiang Rai province, Muang district, 457 msl., 2.v.2010, dry evergreen forest, 4 males, 1 female (SN ˗ CRA ˗002) S.N. (NUNHM). 17°04’ N, 98°63’ E, Tak province, Mae Ramat district, 696 msl., 29.iii.2008, dry evergreen forest, 1 male, 2 females (SN ˗ TKA ˗011) S.N. (NUNHM). 16°60’ N, 101°01’ E, Phitsanulok province, Nakhon Thai district, 1,200 msl., 3.vi.2010, lower montane forest, 5 males, 2 females (SN ˗ PLB ˗024) S.N. (NUNHM). 15°55’ N, 98°46’ E, Tak prov- ince, Um Phang district, 552 msl., 27.iii.2007, dry evergreen forest, 1 male (SN ˗ TKA ˗002) S.N. (NUNHM). 15°55’ N, 98°46’ E, 556 msl., 17.iv.2008, dry evergreen forest, 1 male (SN ˗ TKA ˗013), 2 males, 2 females (SN ˗ TKA ˗014) S.N. (NUNHM).
Diagnosis. One of four Abscondita with pale dorsum and black elytral apices (Ballantyne et al. 2013 fig. 2). Distinguished from both Abs. chinensis and Abs. terminalis by the pale terminal abdominal tergites and its larger size (males may reach 13.5 mm and females 16.5 mm); differing from Abs. perplexa in its much larger size and in having a pale abdomen (perplexa usually has dark markings on at least V5). Females macropterous (Ballantyne et al. 2013 fig. 2 C, D). Larvae with short spines over dorsal surface and mandibles with two inner teeth (Ballantyne et al. 2013 figs 2 E, 4; Fu 2014: 100).
Remarks. Fu (2014: 100) illustrated the luminous male and female pupae. Specimens from Thailand are longer than those recorded by Ballantyne et al. (2013). Males were 12.2–13.5 mm long compared to 10.3–12.9 mm long, females 13.6–16.5 mm long to 11.6–14.0 mm long. Females have the abdominal ventrites anterior to the LO brown (yellow in Chinese specimens). Males in the Nak-eiam collection have small pieces to the sides of the aedeagal sheath tergite with a transverse band connecting them. Similar bands are seen in other members of this genus.
description: Published as part of Ho, - Z., 2019, The Luciolinae of S. E. Asia and the Australopacific region: a revisionary checklist (Coleoptera: Lampyridae) including description of three new genera and 13 new species, pp. 1-174 in Zootaxa 4687 (1) on pages 27-29, DOI: 10.11646/zootaxa.4687.1.1, http://zenodo.org/record/3508098
Additional file 6: Figure S4. of Îł-Carboxymuconolactone decarboxylase: a novel cell cycle-related basal body protein in the early branching eukaryote Trichomonas vaginalis
Creators: name: Cheng, Wei-Hung
name: Kuo-Yang Huang
name: Po-Jung Huang
name: Chi-Ching Lee
name: Yeh, Yuan-Ming
name: Fu-Man Ku
name: Lin, Rose
name: Cheng, Mei-Ling
name: Cheng-Hsun Chiu
name: Tang, Petrus
Publisher: name: Figshare
Year: 2017
Subjects: subject: Microbiology
subject: FOS: Biological sciences
subject: Genetics
subject: Molecular Biology
subject: Evolutionary Biology
subject: Ecology
subject: 69999 Biological Sciences not elsewhere classified
subject: Developmental Biology
subject: Cancer
subject: Inorganic Chemistry
subject: FOS: Chemical sciences
subject: Infectious Diseases
subject: FOS: Health sciences

description: Phylogenetic association of the dualCMD proteins. The Bayesian consensus tree of dualCMDs was inferred from 2 Monte Carlo Markov Chains (MCMC) chains based on the Le Gascuel model in PhyloBayes. Posterior probabilities (PP) were indicated as circles on nodes, and the size of circles represented the PP values (from ~0.5 to 1). Red circles indicate that the organisms have canonical CMD within their genomes. Red asterisks show organisms that possess protocatechuate 3,4-dioxygenase (P3,4O), the first enzyme of the pathway, and canonical CMD. Actinobacteria are shown in purple; Bacteroidetes are shown in light green; Firmicutes are shown in brown; Proteobacteria are shown in blue. Fungal and protistic dualCMDs are shown in red; archaeon dualCMDs are shown in green. Group 1: Actinobacteria, Bacteroidetes, Firmicutes, Fusobacteria, Proteobacteria, other bacteria. Group 2: Archaea, Bacteroidetes, Firmicutes, Fusobacteria, Proteobacteria, other bacteria. (PDF 124 kb)
On generalized covering and avoidance properties of finite groups and saturated fusion systems
Creators: name: Zhang, Shengmin
name: Shen, Zhencai
Publisher: name: arXiv
Year: 2024
Subjects: subject: Group Theory (math.GR)
subject: FOS: Mathematics
subject: 20D10, 20D15, 20D20

description: A subgroup $A$ of a finite group $G$ is said to be a $CAP$-subgroup of $G$, if for any chief factor $H/K$ of $G$, either $A H= AK$ or $A\cap H = A \cap K$. Let $p$ be a prime, $S$ be a $p$-group and $\mathcal{F}$ be a saturated fusion system over $S$. Then $\mathcal{F}$ is said to be supersolvable, if there exists a series of $S$, namely $1 = S_0 \leq S_1 \leq \cdots \leq S_n = S$, such that $S_{i+1}/S_i$ is cyclic, and $S_i$ is strongly $\mathcal{F}$-closed for any $i=0,1,\cdots,n$. In this paper, we first introduce the concept of strong $p$-$CAP$-subgroups, and investigate the structure of finite groups under the assumptions that some subgroups of $G$ are partial $CAP$-subgroups or strong $(p)$-$CAP$-subgroups of $G$, and obtain some criteria for a group $G$ to be $p$-supersolvable. After that, we investigate the characterizations for supersolvability of $\mathcal{F}_S (G)$ under the assumptions that some subgroups of $G$ are partial $CAP$-subgroups or strong $(p)$-$CAP$-subgroups of $G$, and obtain some criteria for a fusion system $\mathcal{F}_S (G)$ to be supersolvable. The above results improve some known results and develop some new results about $CAP$-subgroups from fusion systems.
description: Accepted by Journal of Algebra
Cubacandona Broodbakker 1983
Creators: name: Meisch, Claude
name: Smith, Robin J.
name: Martens, Koen
Publisher: name: Zenodo
Year: 2024
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Ostracoda
Podocopida
Candonidae
Cubacandona

description: Cubacandona Broodbakker, 1983
* Cubacandona cubensis (Danielopol, 1978) Broodbakker 1983a: NT
Candonopsis cubensis Danielopol, 1978
description: Published as part of Meisch, Claude, Smith, Robin J. & Martens, Koen, 2024, An updated subjective global checklist of the extant non-marine Ostracoda (Crustacea), pp. 1-144 in European Journal of Taxonomy 974 on page 38, DOI: 10.5852/ejt.2024.974.2767, http://zenodo.org/record/14500383
Borago officinalis L.
Creators: name: Konrad Lauber
name: Gerhart Wagner
name: Andreas Gygax
Publisher: name: Haupt Verlag
Year: 2018
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Boraginales
Boraginaceae
Borago
Borago officinalis

description: Borago officinalis L.
Artbeschreibung: 20-70 cm hoch, stechend steifhaarig. Stängel fleischig. Blätter lanzettlich, mit gewelltem, unregelmässig gezähntem Rand, plötzlich in einen geflügelten Stiel verschmälert, die unteren bis 10 cm lang. Blütenstand oft weit ausladend doldenartig. Krone himmelblau, seltener lila, mit kurzer Röhre und 5 flach ausgebreiteten, fein zugespitzten Zipfeln, Durchmesser 2-3 cm, Schlundschuppen vorstehend, weiss. Kelchzipfel schmal-lanzettlich, ca. 1,5 cm lang.
Blütezeit: 5-8
Standort und Verbreitung in der Schweiz: Weinberge, Schuttplätze, Buntbrachen, kultiviert und gelegentlich verwildert / kollin-montan /
Verbreitung global: Ursprünglich mediterran-westasiatisch
Ökologische Zeigerwerte nach Landolt & al. (2010)
BodenfaktorenKlimafaktorenSalztoleranzFeuchtezahl Fmässig feuchtLichtzahl LhellSalzzeichen--Reaktionszahl Rschwach sauer bis neutral (pH 4.5-7.5)Temperaturzahl Twarm-kollinNährstoffzahl NnährstoffreichKontinentalitätszahl Ksubozeanisch bis subkontinental (mittlere Luftfeuchtigkeit, mässige Temperaturschwankungen und mässig tiefe Wintertemperaturen)
Volksname Deutscher Name: Borretsch Nom français: Bourrache officinale Nome italiano: Borragine comune
description: Published as part of Konrad Lauber, Gerhart Wagner & Andreas Gygax, 2018, Flora Helvetica - Boraginaceae, pp. 800-822 in Flora Helvetica, Bern :Haupt Verlag on page 812
Additional file 1: of Determinants of uptake of hepatitis B testing and healthcare access by migrant Chinese in the England: a qualitative study
Creators: name: Lee, Andrew
name: Vedio, Alicia
name: Liu, Eva
name: Horsley, Jason
name: Jesurasa, Amrita
name: Salway, Sarah
Publisher: name: Figshare
Year: 2017
Subjects: subject: Medicine
subject: Cell Biology
subject: Sociology
subject: FOS: Sociology
subject: 69999 Biological Sciences not elsewhere classified
subject: FOS: Biological sciences
subject: Developmental Biology
subject: Science Policy

description: Vignette and Focus Group Discussion Guide. Example of vignette used for focus group discussions, as well as discussion questions used in all the focus groups. (DOCX 20Â kb)
On the location of the monograph "The Lidov-Kozai oscillation and Hugo von Zeipel"
Creators: name: Ito, Takashi
Publisher: name: figshare
Year: 2024
Subjects: classificationCode: 510107
subject: Planetary science (excl. solar system and planetary geology)

description: In the spring of 2022, the publisher of this monograph (Terrapub) went bankrupt and the official website disappeared. Since there is no printed version of this monograph series, there is currently no way to access our article (Takashi Ito and Katsuhito Ohtsuka, "The Lidov-Kozai oscillation and Hugo von Zeipel", Monogr. Environ. Earth Planets, 7 (1), 1-113, 2019) published in this monograph. Naturally, the DOI for our article is also not linked anywhere. There is no hope that the publisher's website will be restored, and we have no idea when the DOI information for this monograph will be reinstated.As a temporary solution to this problem, we have placed the PDF files of the main text and its supplementary material of our article here. Ever since the publisher ceased to exist in the spring of 2022, no one has taken over its business. Therefore, the publishing contract between the authors and the original publisher regarding the copyright of this monograph has also expired. Based on this fact, we declare that it is not necessary to obtain the consent of the original publisher (which does not exist anymore) to reprint this monograph; in other words, it is no longer possible to obtain their consent by any means.On ResearchGate:main text and supplementary informationOn the author's homepage:A whole archive of the publisher's webpagePDF main textPDF supplementary informationPreprint on arXiv:astro-ph > arXiv:1911.03984A poster presented at EPSC 2020 (id. EPSC2020-269) is attached in this material followed by the monograph contents.
Brunnera macrophylla I. M. Johnst.
Creators: name: Konrad Lauber
name: Gerhart Wagner
name: Andreas Gygax
Publisher: name: Haupt Verlag
Year: 2018
Subjects: Biodiversity
Taxonomy
Plantae
Tracheophyta
Magnoliopsida
Boraginales
Boraginaceae
Brunnera
Brunnera macrophylla

description: Brunnera macrophylla (Adams) I. M. Johnst.
Artbeschreibung: 10-50 cm hoch, nur oben verzweigt, abstehend rauhaarig. Untere Blätter herzförmig, 5-20 cm lang, gestielt, obere eiförmig, sitzend. Blüten in endständiger Rispe, 2-7 mm lang gestielt, ohne Tragblätter. Krone blau, mit ca. 1 mm langer Röhre und ausgebreitetem 5teiligem Saum, Durchmesser 4-9 mm. Teilfrüchte länglich-eiförmig, kahl, an der Basis mit kragenartigem Ring (bei Myosotis und Omphalodes kein solcher Ring).
Blütezeit: 4-5
Standort und Verbreitung in der Schweiz: Kultiviert und gelegentlich verwildert /
Verbreitung global: Stammt aus dem Kaukasus
Ökologische Zeigerwerte nach Landolt & al. (2010)
BodenfaktorenKlimafaktorenSalztoleranzFeuchtezahl Fmässig feuchtLichtzahl LschattigSalzzeichen--Reaktionszahl Rschwach sauer bis neutral (pH 4.5-7.5)Temperaturzahl Tkollin (Laubmischwälder mit Eichen)Nährstoffzahl Nmässig nährstoffarm bis mässig nährstoffreichKontinentalitätszahl Ksubozeanisch (hohe Luftfeuchtigkeit, geringe Temperaturschwankungen, eher milde Winter)
Volksname Deutscher Name: Kaukasusvergissmeinnicht Nom français: Myosotis du Caucase Nome italiano: Nontiscordardimé del Caucaso
description: Published as part of Konrad Lauber, Gerhart Wagner & Andreas Gygax, 2018, Flora Helvetica - Boraginaceae, pp. 800-822 in Flora Helvetica, Bern :Haupt Verlag on page 812
On the location of the paper "The Lidov-Kozai oscillation and Hugo von Zeipel"
Creators: name: Ito, Takashi
Publisher: name: figshare
Year: 2024
Subjects: classificationCode: 510107
subject: Planetary science (excl. solar system and planetary geology)

description: In the spring of 2022, the publisher of this monograph (Terrapub) went bankrupt and the official website disappeared. Since there is no printed version of this monograph series, there is currently no way to access any of our paper (Takashi Ito and Katsuhito Ohtsuka, "The Lidov-Kozai oscillation and Hugo von Zeipel", Monogr. Environ. Earth Planets, 7 (1), 1-113, 2019) published in this monograph. Naturally, the DOI for our paper is also not linked anywhere. We have no idea if this publisher's website will be restored or when the DOI information will be corrected.As a temporary solution to this problem, we have placed the PDF files of the main text and its supplementary material of this paper at the following sites so that interested readers can access our paper.On ResearchGate:main text and supplementary informationOn the author's homepage:A whole archive of the publisher's webpagePDF main textPDF supplementary informationPreprint on arXiv:astro-ph > arXiv:1911.03984A poster presented at EPSC 2020 (id. EPSC2020-269) is attached in this material followed by the monograph contents.
Pseudoxyroptila oenophanes
Creators: name: Pathania, Prakash C.
name: Das, Apurva
name: Chandra, Kailash
Publisher: name: Zenodo
Year: 2021
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Insecta
Lepidoptera
Pterophoridae
Pseudoxyroptila
Pseudoxyroptila oenophanes

description: 77. Pseudoxyroptila oenophanes (Meyrick, [1908]) (Plate 5, Fig. 6)
Xyroptila oenophanes Meyrick, [1908]; Transactions of the Entomological Society of London 1907: 480.
Xyroptila tectonica Meyrick, 1914; Supplementa Entomologica (Berlin), 3: 46.
TL: India.
Distribution: India (Maharashtra), Bhutan, Indonesia, Malaysia, Myanmar, Taiwan, Vietnam.
Host: Bridelia tomentosa (Euphorbiaceae).
Illustrations: Wing venation and genitalia (Gielis 1993: figs 99, 160, 223).
description: Published as part of Pathania, Prakash C., Das, Apurva & Chandra, Kailash, 2021, Catalogue of superfamily Pterophoroidea Kuznetsov & Stekolnikov (Lepidoptera) of India, pp. 201-236 in Zootaxa 4915 (2) on page 217, DOI: 10.11646/zootaxa.4915.2.2, http://zenodo.org/record/4454312
Outlier Accommodation for GNSS Precise Point Positioning using Risk-Averse State Estimation
Creators: name: Hu, Wang
name: Uwineza, Jean-Bernard
name: Farrell, Jay A.
Publisher: name: arXiv
Year: 2024
Subjects: subject: Systems and Control (eess.SY)
subject: FOS: Electrical engineering, electronic engineering, information engineering

description: Reliable and precise absolute positioning is necessary in the realm of Connected Automated Vehicles (CAV). Global Navigation Satellite Systems (GNSS) provides the foundation for absolute positioning. Recently enhanced Precise Point Positioning (PPP) technology now offers corrections for GNSS on a global scale, with the potential to achieve accuracy suitable for real-time CAV applications. However, in obstructed sky conditions, GNSS signals are often affected by outliers; therefore, addressing outliers is crucial. In GNSS applications, there are many more measurements available than are required to meet the specification. Therefore, selecting measurements to avoid outliers is of interest. The recently developed Risk-Averse Performance-Specified (RAPS) state estimation optimally selects measurements to minimize outlier risk while meeting a positive semi-definite constraint on performance; at present, the existing solution methods are not suitable for real-time computation and have not been demonstrated using challenging real-world data or in Real-time PPP (RT-PPP) applications. This article makes contributions in a few directions. First, it uses a diagonal performance specification, which reduces computational costs relative to the positive semi-definite constraint. Second, this article considers GNSS RT-PPP applications. Third, the experiments use real-world GNSS data collected in challenging environments. The RT-PPP experimental results show that among the compared methods: all achieve comparable performance in open-sky conditions, and all exceed the Society of Automotive Engineers (SAE) specification; however, in challenging environments, the diagonal RAPS approach shows improvement of 6-19% over traditional methods. Throughout, RAPS achieves the lowest estimation risk.
description: 7 pages,2 figures, Accepted by 2024 American Control Conference