cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.15468/unqmma
title: Redescription of Iphione ovata Kinberg, 1856 and confirmation of its Indian Ocean-Eastern Pacific distribution (Annelida, Aphroditiformia, Iphionidae)

description: This dataset contains the digitized treatments in Plazi based on the original journal article Piotrowski, Christina N., Bolick, Holly, Harris, Leslie, Paulay, Gustav, Carrera-Parra, Luis F., Salazar-Vallejo, Sergio I. (2024): Redescription of Iphione ovata Kinberg, 1856 and confirmation of its Indian Ocean-Eastern Pacific distribution (Annelida, Aphroditiformia, Iphionidae). Zoosystema 46 (1): 1-22, DOI: 10.5252/zoosystema2024v46a1, URL: https://sciencepress.mnhn.fr/sites/default/files/articles/pdf/zoosystema2024v46a1.pdfABSTRACTIphione Kinberg, 1856 includes tropical marine scaleworm species which live in rocky bottoms, often on the undersurface of coral rubble or rocks, and superficially resemble chitons. The most widely distributed species known is Iphione ovata Kinberg, 1856, originally described from Hawaii and recorded from the Red Sea and Indian Ocean to Western Mexico in the Eastern Pacific. A similar species, I. spinosa Kinberg, 1858, was described from South Africa based on a single specimen, which differed from the Hawaiian I. ovata by its fewer and larger elytral macrotubercles. The examination of over 100 specimens of different size and from various localities has permitted us to clarify ontogenetic variability in I. ovata. Certain specimens studied from the Red Sea to Hawaii and Southeastern Polynesia were sequenced for cytochrome c oxidase I and genetic variation of I. ovata was confined to a single genetic lineage confirming the wide range of the species and lack of cryptic lineages. Based on the available evidence, we confirm the wide distribution of I. ovata along the Indian and Pacific Oceans and include as junior synonyms I. spinosa and I. reticulata Amoureux, Rullier & Fishelson, 1978, originally described from the Red Sea with one small juvenile. A key for identifying all Iphione species from Hawaii is included.
DOI: 10.57992/nmrxiv.p153
title: A Straightforward Synthesis of a Diene from a Homoallylic Bromide to Access Cycloadducts to Elucidate Michael Acceptors as Antimicrobial Motifs - NMR Data

description: A Straightforward Synthesis of a Diene from a Homoallylic Bromide to Access Cycloadducts to Elucidate Michael Acceptors as Antimicrobial Motifs
DOI: 10.57992/nmrxiv.p153.s1525
title: JUV-042_time1_310PM_100mg_diene_113mg_pBQ_CDCl3_01_28_2025
DOI: 10.57992/nmrxiv.p153.s1525.d6735
title: JUV-042_time1_310PM_100mg_diene_113mg_pBQ_CDCl3_01_28_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1526
title: JUV-042_time2_345PM_100mg_diene_113mg_pBQ_CDCl3_01_28_2025
DOI: 10.57992/nmrxiv.p153.s1526.d6736
title: JUV-042_time2_345PM_100mg_diene_113mg_pBQ_CDCl3_01_28_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1523
title: JUV-058_blank_305PM_diketone_CDCl3_02_13_2025
DOI: 10.57992/nmrxiv.p153.s1523.d6726
title: JUV-058_blank_305PM_diketone_CDCl3_02_13_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1524
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL
DOI: 10.57992/nmrxiv.p153.s1524.d6727
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[10]

description: 10
DOI: 10.57992/nmrxiv.p153.s1524.d6728
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[11]

description: 11
DOI: 10.57992/nmrxiv.p153.s1524.d6729
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[12]

description: 12
DOI: 10.57992/nmrxiv.p153.s1524.d6730
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[13]

description: 13
DOI: 10.57992/nmrxiv.p153.s1524.d6731
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[14]

description: 14
DOI: 10.57992/nmrxiv.p153.s1524.d6732
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[15]

description: 15
DOI: 10.57992/nmrxiv.p153.s1524.d6733
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[16]

description: 16
DOI: 10.57992/nmrxiv.p153.s1524.d6734
title: 4_Riley_product_JUV-066Boy_Row2_Tubes1-4_tricycle_SeO2_EtOH_H2O_70C_02_28_2025_FULL[9]

description: 9
DOI: 10.57992/nmrxiv.p153.s1528
title: JUVI-030_time2_905AM_diketone_NAC_TEA_d6-DMSO_05_09_2025
DOI: 10.57992/nmrxiv.p153.s1528.d6738
title: JUVI-030_time2_905AM_diketone_NAC_TEA_d6-DMSO_05_09_2025[1]

description: 1
DOI: 10.15468/d6mfa7
title: Raising Thalictrum uncatum var. angustialatum (Ranunculaceae) from China to T. angustialatum as an independent species based on evidence from morphology, geographical distribution, cytology and molecular systematics

description: This dataset contains the digitized treatments in Plazi based on the original journal article Zeng, You-Pai, Yuan, Qiong, Yang, Qin-Er (2022): Raising Thalictrum uncatum var. angustialatum (Ranunculaceae) from China to T. angustialatum as an independent species based on evidence from morphology, geographical distribution, cytology and molecular systematics. Phytotaxa 572 (1): 25-42, DOI: 10.11646/phytotaxa.572.1.2, URL: http://dx.doi.org/10.11646/phytotaxa.572.1.2AbstractCritical observations on living plants in the wild revealed remarkable differences in floral and achene characters between Thalictrum uncatum var. angustialatum (Ranunculaceae) and its type variety, T. uncatum var. uncatum, both from China. Their geographical distributions are basically independent, only slightly overlapping in western Sichuan and northwestern Yunnan. Moreover, T. uncatum var. angustialatum was found to be a tetraploid with the chromosome number of 2 n = 4 x = 28, whereas T. uncatum var. uncatum a diploid with 2 n = 2 x = 14. Furthermore, molecular phylogenetic analyses indicated that T. uncatum var. angustialatum was more closely related to T. sinomacrostigma, also a tetraploid, than to T. uncatum var. uncatum. Evidence from morphology, geographical distribution, cytology and molecular systematics, therefore, all indicates that T. uncatum var. angustialatum may better be raised to the specific rank as an independent species of its own, i.e. T. angustialatum. A full description is provided for T. angustialatum.
DOI: 10.57992/nmrxiv.p153.s1527
title: JUVI-030_time1_615PM_add_TEA_NAC_diketone_d6-DMSO_05_08_2025
DOI: 10.57992/nmrxiv.p153.s1529
title: JUVI-030_time0_550PM_add_NAC_diketone_d6-DMSO_05_08_2025
DOI: 10.57992/nmrxiv.p153.s1529.d6739
title: JUVI-030_time0_550PM_add_NAC_diketone_d6-DMSO_05_08_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1527.d6737
title: JUVI-030_time1_615PM_add_TEA_NAC_diketone_d6-DMSO_05_08_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1530
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL
DOI: 10.57992/nmrxiv.p153.s1530.d6740
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1530.d6741
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[2]

description: 2
DOI: 10.57992/nmrxiv.p153.s1530.d6742
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[3]

description: 3
DOI: 10.57992/nmrxiv.p153.s1530.d6743
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[4]

description: 4
DOI: 10.57992/nmrxiv.p153.s1530.d6744
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[5]

description: 5
DOI: 10.57992/nmrxiv.p153.s1530.d6745
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[6]

description: 6
DOI: 10.57992/nmrxiv.p153.s1530.d6746
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[7]

description: 7
DOI: 10.57992/nmrxiv.p153.s1530.d6747
title: 2_E2_product_JUV-041A_bromide_DBU_PhMe_heat_100C_overnight_water_workup_01_28_2025_FULL[8]

description: 8
DOI: 10.57992/nmrxiv.p153.s1532
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL
DOI: 10.57992/nmrxiv.p153.s1532.d6749
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[10]

description: 10
DOI: 10.57992/nmrxiv.p153.s1532.d6750
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[11]

description: 11
DOI: 10.57992/nmrxiv.p153.s1532.d6751
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[12]

description: 12
DOI: 10.57992/nmrxiv.p153.s1532.d6752
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[13]

description: 13
DOI: 10.57992/nmrxiv.p153.s1532.d6753
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[14]

description: 14
DOI: 10.57992/nmrxiv.p153.s1532.d6754
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[15]

description: 15
DOI: 10.57992/nmrxiv.p153.s1532.d6755
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[16]

description: 16
DOI: 10.57992/nmrxiv.p153.s1532.d6756
title: 1_Bromide_JUV-052Boy_Fractions1_2_work_up_then_distill_isopulegol_NBS_PPh3_THF_02_06_2025_FULL[9]

description: 9
DOI: 10.57992/nmrxiv.p153.s1531
title: JUV-058_time2_520PM_diketone_dTFA_CDCl3_02_13_2025
DOI: 10.57992/nmrxiv.p153.s1531.d6748
title: JUV-058_time2_520PM_diketone_dTFA_CDCl3_02_13_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1533
title: JUV-042_time3_530PM_heat_60C_1hr_100mg_diene_113mg_pBQ_CDCl3_01_28_2025
DOI: 10.57992/nmrxiv.p153.s1533.d6757
title: JUV-042_time3_530PM_heat_60C_1hr_100mg_diene_113mg_pBQ_CDCl3_01_28_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1534
title: JUVI-030_blank_20mg_diketone_d6-DMSO_05_08_2025
DOI: 10.57992/nmrxiv.p153.s1534.d6758
title: JUVI-030_blank_20mg_diketone_d6-DMSO_05_08_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1535
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL
DOI: 10.57992/nmrxiv.p153.s1535.d6759
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1535.d6760
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[10]

description: 10
DOI: 10.57992/nmrxiv.p153.s1535.d6761
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[2]

description: 2
DOI: 10.57992/nmrxiv.p153.s1535.d6762
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[3]

description: 3
DOI: 10.57992/nmrxiv.p153.s1535.d6763
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[4]

description: 4
DOI: 10.57992/nmrxiv.p153.s1535.d6764
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[5]

description: 5
DOI: 10.57992/nmrxiv.p153.s1535.d6765
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[6]

description: 6
DOI: 10.57992/nmrxiv.p153.s1535.d6766
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[7]

description: 7
DOI: 10.57992/nmrxiv.p153.s1535.d6767
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[8]

description: 8
DOI: 10.57992/nmrxiv.p153.s1535.d6768
title: 6_hydroalkoxJUVI-034_PTLC2_high_Br_pBQ_Fe(acac)3_PhSiH3_EtOH_THF_80C_6h_05_20_2025_FULL[9]

description: 9
DOI: 10.57992/nmrxiv.p153.s1536
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL
DOI: 10.57992/nmrxiv.p153.s1536.d6769
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[10]

description: 10
DOI: 10.57992/nmrxiv.p153.s1536.d6770
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[11]

description: 11
DOI: 10.57992/nmrxiv.p153.s1536.d6771
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[12]

description: 12
DOI: 10.57992/nmrxiv.p153.s1536.d6772
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[13]

description: 13
DOI: 10.57992/nmrxiv.p153.s1536.d6773
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[14]

description: 14
DOI: 10.57992/nmrxiv.p153.s1536.d6774
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[15]

description: 15
DOI: 10.57992/nmrxiv.p153.s1536.d6775
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[8]

description: 8
DOI: 10.57992/nmrxiv.p153.s1536.d6776
title: 0_JUV-023_isopulegol_CDCl3_01_15_2025_FULL[9]

description: 9
DOI: 10.57992/nmrxiv.p153.s1537
title: JUV-042_time4_removed_from_heat_at_940AM_taken_at_115PM_diene_pBQ_CDCl3_heat_60C_overnight_01_29_2025
DOI: 10.57992/nmrxiv.p153.s1537.d6777
title: JUV-042_time4_removed_from_heat_at_940AM_taken_at_115PM_diene_pBQ_CDCl3_heat_60C_overnight_01_29_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1539.d6779
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[10]

description: 10
DOI: 10.57992/nmrxiv.p153.s1539.d6780
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[11]

description: 11
DOI: 10.57992/nmrxiv.p153.s1539.d6781
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[12]

description: 12
DOI: 10.57992/nmrxiv.p153.s1539.d6782
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[13]

description: 13
DOI: 10.57992/nmrxiv.p153.s1539.d6783
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[14]

description: 14
DOI: 10.57992/nmrxiv.p153.s1539.d6784
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[15]

description: 15
DOI: 10.57992/nmrxiv.p153.s1539.d6785
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[16]

description: 16
DOI: 10.57992/nmrxiv.p153.s1538
title: JUV-058_time3_935AM_diketone_dTFA_CDCl3_02_14_2025
DOI: 10.57992/nmrxiv.p153.s1538.d6778
title: JUV-058_time3_935AM_diketone_dTFA_CDCl3_02_14_2025[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1539.d6786
title: 3_DA_BQ_JUV-057Boy_Row2_diene_pBQ_DCM_39C_1hr_02_13_2025_FULL[9]

description: 9
DOI: 10.57992/nmrxiv.p153.s1540.d6787
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[1]

description: 1
DOI: 10.57992/nmrxiv.p153.s1540.d6788
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[2]

description: 2
DOI: 10.57992/nmrxiv.p153.s1540.d6789
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[3]

description: 3
DOI: 10.57992/nmrxiv.p153.s1540.d6790
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[4]

description: 4
DOI: 10.57992/nmrxiv.p153.s1540.d6791
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[5]

description: 5
DOI: 10.57992/nmrxiv.p153.s1540.d6792
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[6]

description: 6
DOI: 10.57992/nmrxiv.p153.s1540.d6793
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[7]

description: 7
DOI: 10.57992/nmrxiv.p153.s1540.d6794
title: 1_diene_JUV-023Boy_Rxn1_one_high_spot_Row1_Tubes10-12_isopulegol_POCl3_pyridine_pBQ_01_15_2025_FULL[8]

description: 8
DOI: 10.15468/ggfs46
title: Nor-hopanes from Zanha africana root bark with toxicity to bruchid beetles

description: This dataset contains the digitized treatments in Plazi based on the original journal article Stevenson, Philip C., Green, Paul W. C., Veitch, Nigel C., Farrell, Iain W., Kusolwa, Paul, Belmain, Steven R. (2016): Nor-hopanes from Zanha africana root bark with toxicity to bruchid beetles. Phytochemistry 123: 25-32, DOI: 10.1016/j.phytochem.2016.01.008, URL: http://dx.doi.org/10.1016/j.phytochem.2016.01.008
DOI: 10.15468/2678dx
title: A New Species of Notionotus Spangler, 1972 (Coleoptera: Hydrophilidae: Enochrinae) from Central America

description: This dataset contains the digitized treatments in Plazi based on the original journal article González-Rodríguez, Liza M., Short, Andrew Edward Z. (2023): A New Species of Notionotus Spangler, 1972 (Coleoptera: Hydrophilidae: Enochrinae) from Central America. The Coleopterists Bulletin 77 (3): 428-431, DOI: 10.1649/0010-065X-77.3.428, URL: http://dx.doi.org/10.1649/0010-065x-77.3.428ABSTRACTThe water scavenger beetle genus Notionotus Spangler, 1972 currently contains 18 described species in the Neotropical region.A recent review of museum material revealed a new species from Costa Rica, which we here describe as Notionotus hamus GonzÁlez-RodrÍguez and Short, new species. Habitus and genitalia images are provided as well as a key to the species of the genus that occur in Central America.
DOI: 10.15468/p4vdrg
title: A new species of the genus Dulichiella (Crustacea, Amphipoda, Melitidae) from the continental shelf of the Southern Sea, Korea, with comparison to the previously recorded D. appendiculata

description: This dataset contains the digitized treatments in Plazi based on the original journal article Choi, Jae-Hong, Kim, Kyung-Won, Kim, Young-Hyo (2025): A new species of the genus Dulichiella (Crustacea, Amphipoda, Melitidae) from the continental shelf of the Southern Sea, Korea, with comparison to the previously recorded D. appendiculata. Zootaxa 5696 (1): 102-112, DOI: 10.11646/zootaxa.5696.1.6, URL: https://doi.org/10.11646/zootaxa.5696.1.6AbstractThis study aims to discover and document amphipods from Korea, contributing to the clarification of Korean amphipod taxonomy. As part of this effort, a new species of the melitid amphipod genus Dulichiella has been collected from the Southern Sea of Korea. Previously, only one species, D. appendiculata (Say, 1818) was reported in Korea. The new species, D. tridentata sp. nov. is morphologically characterized by a distolateral crown with three teeth on palm of gnathopod 2 and by the dorsal teeth formula of pleonite 1 to urosomite 3 of 7-7-7-5-4-2. However, it can be distinguished from its congeners by several characteristics, including the number of setae of cephalic lobe; the number of ventral margin robust setae of antenna 1; the number of accessory teeth on dactyli of pereopods 3–7; the shape of the palmer corner of gnathopod 2; and the posterior serrations of epimeral plate 3. This study provides a detailed illustration and comparison of D. tridentata sp. nov. with related species, particularly D. appendiculata s.l. recorded from Korea, along with a key to Dulichiella species that possess three teeth on the distolateral crown of the propodus of gnathopod 2.
DOI: 10.15468/b7ejh2
title: A new species of bristletails of the genus Coryphophthalmus Verhoeff, 1910 (Microcoryphia: Machilidae) from Krasnodar Region, Russia

description: This dataset contains the digitized treatments in Plazi based on the original journal article Kaplin, V. G., Koval, A. G. (2021): A new species of bristletails of the genus Coryphophthalmus Verhoeff, 1910 (Microcoryphia: Machilidae) from Krasnodar Region, Russia. Caucasian Entomological Bulletin (Caucas. entomol. bull.) 17 (1): 155-161, DOI: 10.23885/181433262021171-155161, URL: http://dx.doi.org/10.23885/181433262021171-155161Abstract. The Southern European-Caucasian genus Coryphophthalmus Verhoeff, 1910 with relatively long and thin ovipositor, lacking long setae, includes two subgenera, Coryphophtalmus s. str. and Verhoeffius Kaplin, 2019 with 2 + 2 eversible vesicles on urites II–IV and II– V, respectively. A new bristletail species, Coryphophthalmus aureaocellus Kaplin, sp. n., is described from Sochi National Park (Russia) and belongs to the subgenus Coryphophthalmus s. str. including 36 species. Coryphophthalmus aureaocellus sp. n. differs from other species of this subgenus by the colouration and the structure of paired ocelli, the ratio of length of cerci and body, the chaetotaxy of male labial and maxillary palps, the ratio of length of the 3 rd tarsomere of the hind tarsus to its total length, the ratio of the length of urostyli to urocoxites.
DOI: 10.15468/ngqvtj
title: Fossil Woods From Bozovici (Sw Romania)

description: This dataset contains the digitized treatments in Plazi based on the original journal article Iamandei, Stanila, Iamandei, Eugenia, Stoia, Tiberiu (2020): Fossil Woods From Bozovici (Sw Romania). Acta Palaeontologica Romaniae 16 (1): 3-17, DOI: 10.35463/j.apr.2020.01.01, URL: http://dx.doi.org/10.35463/j.apr.2020.01.01Abstract A palaeoxylotomical study was done on several samples from a private collection of petrified wood found in Bozovici area, which were taxonomically identified. Bozovici area is a small Badenian depression filled by coarse continental deposits, with some interbedded coal and volcanic tuffs. The frequent lateral facies variations and the few fossils of fresh water fauna make difficult a stratigraphic correlation of these deposits. Those samples of fossil wood were identified as remains of Glyptostroboxylon rudolphii Dolezych et Van der Burgh and Spiroplatanoxylon densiradiatum (Petrescu) Süss and an extended discussion concerning the systematics of these taxa was made. Advanced studies on more numerous samples coming from Bozovici area could contribute to a better palaeoenvironmental and palaeoclimatic reconstruction of that area, during Badenian time.
DOI: 10.15468/g5xzs7
title: Taxonomic notes on some species of Campanula, sect. Oreocodon

description: This dataset contains the digitized treatments in Plazi based on the original journal article Zeraatkar, Amin, Nasab, Farzaneh Khajoei (2023): Taxonomic notes on some species of Campanula, sect. Oreocodon. Phytotaxa 618 (3): 283-290, DOI: 10.11646/phytotaxa.618.3.6, URL: http://dx.doi.org/10.11646/phytotaxa.618.3.6AbstractBased on detailed studies of the protologues, types, herbarium specimens, and comparison with living specimens, Campanula hystricula and C. escalerae are reduced under Asyneuma persicum and Campanula perpusilla, respectively. In this publication, we have provided sufficient morphological evidence for the separation of C. persepolitana and C. perpusilla species. In addition, the morphological descriptions are improved by us. The first photographic documentary on living plants and information about habitat, ecology, phenology, and notes on morphological affinities of C. persepolitana and C. perpusilla, are provided to help them better understand. Distribution maps of the species mentioned are also provided.