Find research datasets worth reusing

opencc-by-4.0Dec 2022View details →

Fig. 6 in Identity Of Species Assigned To The Genus Cephalia (Diptera, Tephritoidea)

Fig. 6. Myrmecothea myrmecoides (holotype ♂ of Cephalia myrmecoides Loew, 1860) (Ulidiidae), MCZ (photos by V. Korneyev, 2001): a — habitus right view; b — labels; c — head; d, e — left and right wing, respectively.

opencc-by-4.0Dec 2022View details →

Fig. 9 in Identity Of Species Assigned To The Genus Cephalia (Diptera, Tephritoidea)

Fig. 9. Cephalia, non-type ♂, NHMW (photos by V. Korneyev, 2017): a — epandrium, postero-ventrally; b — hypandrium, ventrally; c — ejaculatory apodeme; d — phallus, detached.

opencc-by-4.0Mar 2024View details →

Fig. 81. Wagner assigned these 2 in Cochlostoma Jan, 1830 revised: an overview of the subgenus Turritus Westerlund, 1883 and its species (Caenogastropoda, Cochlostomatidae)

Fig. 81. Wagner assigned these 2 specimens to two different species. A. Cochlostoma (T.) braueri latestriatum (Wagner, 1897), probably ♂, Vaganski Vrh, HR (NHMW-66398). B. C. (T.) elegans imoschiensis, ♀, Imoski, Dalmatia, HR (RNHM-W34514).

opencc-by-4.0Sep 2022View details →

Automatic Classification of Final Assignments at the Nuclear Polytechnic Library

This study aimed to look for a method to automatically classify the final projects of Indonesian Nuclear Technology Polytechnic students.

opencc-by-4.0Dec 2023View details →

F I G U R E 4 Assigned ancestry plot using AIC criteria determining optimal K in Riverscape genetics of the orangethroat darter complex

F I G U R E 4 Assigned ancestry plot using AIC criteria determining optimal K of 5. Each color corresponds to a distinct genetic cluster, and each bar represents an individual's assigned ancestry to each cluster. Names above chart correspond to river basin (HUC6). EB—E. burri, EP— E. pulchellum, ES—E. spectabile, and EU—E. uniporum. Glaciated and unglaciated correspond to areas that were/were not covered in ice during the last glacial maximum.

opencc-by-4.0Mar 2024View details →

Figure 4. Structure assignment probability plots for K in Revised taxonomy of eastern North Pacific killer whales ( Orcinus orca ): Bigg's and resident ecotypes deserve species status

Figure 4. Structure assignment probability plots for K = 3 groups from (a) 26 microsatellites: offshore (n = 5), resident (n = 250), Bigg's (n = 116) samples genotyped at ≥ 20 loci) (56; unpublished); (b) 3340 RADseq SNPs (polymorphic in sample set): offshore (n = 7), resident (n = 52) and Bigg's (n = 37) populations [57,62]. Vertical bars represent the individual assignment probability for each group inferred by Structure (groups identified by shading), with samples sorted by a priori ecotype assignment. See electronic supplementary material for methods and data set information.

opencc-by-4.0Aug 2021View details →

Automated metabolic assignment: Semi-supervised learning in metabolic analysis employing two dimensional Nuclear Magnetic Resonance (NMR)

This dataset is related to the paper “Automated metabolic assignment: Semi-supervised learning in metabolic analysis employing two dimensional Nuclear Magnetic Resonance (NMR)”. https://www.sciencedirect.com/science/article/pii/S2001037021003792?via%3Dihub The dataset comprises horizontal and vertical frequencies of 2D NMR TOCSY of breast cancer-tissue sample. 2D TOCSY was acquired by employing a broadband high resolution 600.13 MHz (B0 = 14.1 T) NMR Bruker spectrometer (AVANCE III 600 with the Bruker magnet ASCEND 600) supported with the room temperature probe (BBO model-Bruker) and Magic Angle Spinning (MAS) probehead. 1D and 2D NMR spectra acquisition and processing were achieved by using the TopSpin software package 3.6. There are two files: BreastCancerMetabolites.csv: First column: numerical labels of the metabolites. Each number represent a metabolite. In total, there are 27 metabolites with multiple multiplets per metabolite. Second and third column: Horizontal and vertical frequencies for each metabolite. Labels.csv: The corresponding metabolites names.

Fig. 4. A in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 4. A maximum-likelihood phylogenetic tree of the genus Hymenolepis. The tree was made with sequences of mitochondrial cox1 (456 nucleotide sites) under the substitutional model GTR+G+I. The isolates of this study (18AK285, 19AK270, H22B, JA173, JA175, JA220, and JA244) are shown in bold face. The DNA accession number of each taxon is shown in parenthesis. Rodentolepis nana (accession no. LC063187) was used as an outgroup taxon.

Fig. 8. A in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 8. A maximum-likelihood phylogenetic tree of the genus Catenotaenia. The tree was made with 28S rDNA sequences (1208 nucleotide sites) under the substitutional model GTR+G. The isolates of this study (AMU, JA212, and JA317) are shown in bold face. The DNA accession number of each taxon is shown in parenthesis. Hymenolepis diminuta (accession no. AY157181) was used as an outgroup taxon.

Fig. 3 in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 3. Adult tapeworms of Hymenolepis sp. 1, Arostrilepis tenuicirrosa, and Microsomacanthus sp. A, Scolex of Hymenolepis sp. 1; B, mature proglottids of Hymenolepis sp. 1; C, scolex of A. tenuicirrosa; D, mature proglottid of A. tenuicirrosa; E, gravid proglottid of A. tenuicirrosa; F, whole body of Microsomacanthus sp.; G, scolex of Microsomacanthus sp.; H, mature proglottids of Microsomacanthus sp. Scale bars: A, C, G, 200 µm; B, D, 500 µm; E, 1 mm; F, 2 mm; G, 100 µm.

Fig. 6 in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 6. Adult tapeworms of Paranoplocephala kalelai, Catenotaenia sp., and Raillietina sp. A, Scolex of P. kalelai; B, mature proglottid of P. kalelai; C, gravid proglottid of P. kalelai; D, scolex of Catenotaenia sp.; E, mature proglottid Catenotaenia sp.; F, gravid proglottids of Catenotaenia sp.; G, scolex of Raillietina sp.; H, mature proglottids of Raillietina sp. Scale bars: A–C, E, H, 500 µm; D, G, 200 µm; F, 1 mm.

Fig. 5. A in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 5. A maximum-likelihood phylogenetic tree of the genus Arostrilepis. The tree was made with sequences of mitochondrial cytb (558 nucleotide sites) under the substitutional model GTR+G+I. The isolates of this study (19AK170, 19AK439, 19AK454, and 19AK459) are shown in bold face. The DNA accession number of each taxon is shown in parenthesis. Hymenolepis diminuta (accession no. AF314223) was used as an outgroup taxon.

Fig. 2. A in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 2. A maximum likelihood phylogenetic tree of the families Hymenolepididae, Anoplocephalidae, Catenotaeniidae, and Davaineidae. The tree was made with sequences of 28S rDNA (1137 nucleotide sites) under the substitutional model GTR+G. The isolates of this study (19AK270, JA175, 19AK170, JA313, 19AK378, AMU, and Para33SI) are shown in bold face. The DNA accession number of each taxon is shown in parenthesis. Bootstrap percentages are shown on each node. Scale bar indicates the number of substitutions per nucleotide site. Dibothriocephalus nihonkaiensis (accession no. LC474508) was used as an outgroup taxon.

Fig. 1 in Cestode fauna of murid and cricetid rodents in Hokkaido, Japan, with assignment of DNA barcodes

Fig. 1. Maps of the Japanese Archipelago and Hokkaido. Arrows indicate the southward and northward movements of terrestrial mammals in the Pleistocene glacial epoch. Rodent sampling sites are shown as open circles.

opencc-by-4.0Nov 2021View details →

Supplementary materials for the paper "Hyperstyle : A Tool for Assessing the Code Quality of Solutions to Programming Assignments"

The set of the artefacts for a SIGCSE-2022 paper. The SIGCSE_atrifacts.pdf document contains detailed information about each folder, also this document has supplementary materials. Folders: - comparison. This folder contains a public dataset in Java for comparison of our code assessment tool with the Tutor tool. - dynamics. This folder contains two datasets of Python and Java public submissions from Stepik and Hyperskill platforms to check the influence of our tool on students code style. - plots. This folder contains examples of charts that were plotted to analyze the tool thresholds. Supplementary materials: - Examples of code quality issues categories. This section in the document contains code snippets with examples of issues for each code quality issue category for Python and Java. - List of available subcategories in the tool. - Tables with penalty coefficients for detection of recurring errors algorithm - Examples of charts that were plotted to analyze the tool thresholds. This section is the same with the plots folder.

opencc-by-4.0Mar 2022View details →

Link Compustat – USPTO Patent Assignment Dataset

This page provides the data resulting from linking assignees and assignors in the USPTO Patent Assignment Dataset to Compustat gvkeys. We work with a version of the USPTO PAD that was gracefully shared with us by Stuart Graham. Such version precedes by one year the first release available at the USPTO website (https://www.uspto.gov/ip-policy/economic-research/research-datasets/patent-assignment-dataset). The version that we use covers 5,534,135 transactions recorded at the USPTO between January 1970 and January 2013 (inclusive). While the first transaction date is January 1970, the number of transactions recorded in the initial years is negligible. Data coverage seems sufficient for the years 1981-2012.   If you use the code or data, please cite the following two papers:   Arque-Castells, P., and Spulber, D. (2022). Measuring the Private and Social Returns to R&D: Unintended Spillovers versus Technology Markets. Journal of Political Economy. <a href="https://doi.org/10.1086/719908">https://doi.org/10.1086/719908</a>   Arqué Castells, Pere and Spulber, Daniel F., Firm Matching in the Market for Technology: Business Stealing and Business Creation (September 17, 2021). Northwestern Law & Econ Research Paper No. 18-14, Available at SSRN: https://ssrn.com/abstract=3041558 or <a href="http://dx.doi.org/10.2139/ssrn.3041558">http://dx.doi.org/10.2139/ssrn.3041558</a>

Fig. 9 in Pyrgotid Flies Assigned To Apyrgota. Iii. Species Of Afropyrgota Gen. N. And Tylotrypes (Diptera, Pyrgotidae)

Fig. 9. Afropyrgota, ♀ abdominal sternites, macerated, ventral view: 1 — A. copelandi sp. n.; 2 — A. marshalli; 3 — A. uzungwa sp. n. Рис. 9. Afropyrgota, ♀ брюшные стерниты ♀, мацерированные, вид снизу: 1 — A. copelandi sp. n.; 2 — A. marshalli; 3 — A. uzungwa sp. n.

Fig. 10 in Pyrgotid Flies Assigned To Apyrgota. Iii. Species Of Afropyrgota Gen. N. And Tylotrypes (Diptera, Pyrgotidae)

Fig. 10. Tylotrypes: 1–3 — T. fuscipes (Wulp) (1 — holotype Ơ, RMNH, habitus left; 2 — non-type ♀, Taiwan, CMNH, habitus left; 3 — same, mid femur, anterior); 4–12 — T. immsi Bezzi (4 — holotype, ♀, India, BMNH, habitus left; 5 — same, face, anterior; 6 — non-type ♀, Nepal, CNC, macerated oviscape, left; 7–8 — aculeus, ventral and lateral; 9 — same, spermatheca; 10 — non-type Ơ, macerated epandrium and hypandrium, right; 11, 12 — phallus glans, lateral and ventral); 13 — T. longa (Shi), holotype ♀, China, IZAS, habitus left (photo L.-h. Wang, modified); 14, 15 — T. sp., ♀, Thailand, ZSSM (14 — habitus left, 15 — head, anterolateral view). fo — femoral organ; mvl — medioventral lobe; opc — ovipositor callus; phg — phallic guide. Рис. 10. Tylotrypes: 1–3 — T. fuscipes (Wulp) (1 — голотип Ơ, RMNH, общий вид слева; 2 — нетиповая ♀, Тайвань, CMNH, общий вид слева; 3 — то же, среднее бедро, спереди); 4–12 — T. immsi Bezzi (4 — голотип ♀, Индия, BMNH, общий вид слева; 5 — то же, лицо, спереди; 6 — нетиповая ♀, Непал, CNC, мацерированый основной членик яйцеклада, вид слева; 7, 8 — акулеус, вид снизу и вид сбоку; 9 — то же, сперматека; 10 — нетиповой Ơ, мацерированые эпандрий и гипандрий вид справа; 11–12 — гланс фаллюса, вид сбоку и вид снизу); 13 — T. longa (Shi), голотип ♀, Китай, IZAS, общий вид слева (фото Л.-Х. Ваня, с изменениями); 14, 15 — T. sp., ♀, Таиланд, ZSSM (14 — общий вид слева, 15 — голова, вид спереди и сбоку). fo — феморальный орган; mvl — медиовентральная лопасть; opc — мозоль основного членика яйцеклада; phg — направляющая лопасть.

Fig. 7 in Pyrgotid Flies Assigned To Apyrgota. Iii. Species Of Afropyrgota Gen. N. And Tylotrypes (Diptera, Pyrgotidae)

Fig. 7. Afropyrgota uzungwa sp. n., ♀: 1 — holotype, lateral view; 2, 3 — head (2 — left, 3 — anterior); 4 — mesonotum dorsal; 5 — wing; 6 — fore leg, posterior; 7 — mid leg, anterior; 8 — hind leg, anterior and abdomen, ventrolateral. Scale bar 5 mm. Рис. 7. Afropyrgota uzungwa sp. n., ♀: 1 — голотип, вид сбоку; 2–4 — голова (2 — вид слева, 3 — anterior); 4 — среднеспинка сверху; 5 — крыло; 6 — передняя нога, вид сзади; 7 — средняя нога, вид спереди; 8 — задняя нога, вид спереди и брюшко, вид снизу и сбоку. Масштабная линейка 5 мм.

Fig. 6 in Pyrgotid Flies Assigned To Apyrgota. Iii. Species Of Afropyrgota Gen. N. And Tylotrypes (Diptera, Pyrgotidae)

Fig. 6. Afropyrgota ota sp. n., ♀: 1 — holotype, lateral view; 2–4 — head (2 — left, 3 — anterior, 4 — dorsal view); 5 — wing; 6 — mid leg, anterior; 7 — prosternum, anteroventral; 8 — paratype abdomen, lateral view. Рис. 6. Afropyrgota ota sp. n., ♀: 1 — голотип, вид сбоку; 2–4 — голова (2 — вид слева, 3 — спереди, 4 — сверху); 5 — крыло паратипа; 6 — средняя нога, спереди; 7 — простернум, спереди и снизу; 8 — брюшко паратипа, вид сбоку.