cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.17632/r25wxy79dz.1
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r96vch87fj.3
title: Do humans over-imitate robots?

description: Imitation plays a significant role in cultural knowledge transmission and in learning. The tendency to imitate causally irrelevant actions is termed over-imitation. Over-imitation is considered a social phenomenon unique to humans and has been investigated mainly in preschool-aged children. However, it is currently unknown whether children over-imitate if the model is not human. Here, we present a data set of the investigation if over-imitation occurs with a robot model. We tested whether 5-to-6-year-old children (boys = 1, girls = 0) over-imitate a humanoid robot in a similar manner as a human model (over-imitation: oi.score = 1, no over-imitation: oi.score = 0). Preschoolers were randomly assigned to watch either a human (condition = 1) or a robot (condition = 2) retrieve a reward out of a puzzle box, using functional and nonfunctional actions. Children saw three demonstrations in three phases and could extract a token themselves after each demonstration. In there first phase they observed an inefficient demonstration (including irrelevant actions), in the second phase the observed a efficient demonstration (only relevant action), and in the third phase they observed once more an inefficient demonstration. We compared the experimental condition also to a baseline condition in which children did not see any prior demonstration (condition = 0). In Version 2 of the dataset we collected a new and bigger sample for the baseline. Children tended to copy whichever strategy was shown to them — an inefficient or efficient one, regardless of who the model was. Thus, children were as likely to imitate the robot as the human. They even imitated the inefficient strategy after having successfully used the most efficient one. Results indicate that children perceive humanoid robots not only as informants but also as social behavioral models.
DOI: 10.21227/j99b-ah65
title: Orchid flower dataset

description: TBA
DOI: 10.21227/sytt-a402
title: Orchid flower dataset

description: TBA
DOI: 10.26300/h8fa-cw47
title: feronia_Athaliana_x_WT_Opumilia_Rep_03
DOI: 10.26300/qsw0-h151
title: feronia_Athaliana_x_WT_Opumilia_Rep_05
DOI: 10.26300/w7hp-r816
title: feronia_Athaliana_x_WT_Opumilia_Rep_04
DOI: 10.17632/r25wxy79dz.2
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r25wxy79dz.3
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r25wxy79dz.4
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r25wxy79dz.5
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r25wxy79dz.6
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r25wxy79dz.7
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.17632/r25wxy79dz.8
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).
DOI: 10.21223/p3/csth9k/hjcxu0
title: Data_Morphological_baseline_characterization_Huancavelica.xls

description: :unav
DOI: 10.21227/vzxn-3197
title: Orchid flower dataset

description: TBA
DOI: 10.17632/hbv7pg45mz.2
title: ASEAN Total Primary Energy Supply (in KTOE)
DOI: 10.21223/p3/csth9k/epav8n
title: Dictionary_Morphological_baseline_characterization_Huancavelica.xls

description: :unav
DOI: 10.26300/3ep3-ec59
title: feronia_Athaliana_x_WT_Athaliana_Rep_04
DOI: 10.26300/423q-wr67
title: feronia_Athaliana_x_WT_Athaliana_Rep_05
DOI: 10.26300/6s44-hh91
title: feronia_Athaliana_x_WT_Athaliana_Rep_01
DOI: 10.26300/8gf1-bm69
title: feronia_Athaliana_x_WT_Athaliana_Rep_03
DOI: 10.26300/wrv4-x091
title: feronia_Athaliana_x_WT_Athaliana_Rep_02
DOI: 10.17632/sdjftk7n5j.1
title: Data for: A multiple hybrid coating of cast Al-Si alloy with good corrosion resistance and superhydrophobic properties
DOI: 10.26300/1m5j-av34
title: feronia_Athaliana_x_WT_Athaliana_Rep_08
DOI: 10.26300/30xg-yg42
title: feronia_Athaliana_x_WT_Athaliana_Rep_07
DOI: 10.26300/c45e-k059
title: feronia_Athaliana_x_WT_Athaliana_Rep_10
DOI: 10.26300/dmkt-q533
title: feronia_Athaliana_x_WT_Opumilia_Rep_01
DOI: 10.26300/g69y-1p12
title: feronia_Athaliana_x_WT_Athaliana_Rep_09
DOI: 10.26300/s6ma-dn35
title: feronia_Athaliana_x_WT_Athaliana_Rep_06
DOI: 10.26300/k2sh-8623
title: feronia_Athaliana_x_WT_Opumilia_Rep_02
DOI: 10.17632/bs5w9gcgxb.1
title: Data for: Effect of Ti2Cu precipitation on antibacterial property of Ti–5Cu alloy

description: Michelle Oyen Editor-in-Chief Materials Science and Engineering: C Dear Editor: I wish to submit a research paper for publication in Materials Science and Engineering: C, titled “Effect of Ti2Cu precipitation on antibacterial property of Ti–5Cu alloy.” The paper was coauthored by Ju-Hui Wu, Chih-Yeh Chao, and Yen-Hao Chang. This study set out to examine the antibacterial effects of Ti alloys to which Cu had been added. We found that the solid-solution treatment of a Ti–5Cu alloy failed to provide an acceptable level of antibacterial activity, but the presence of nano-scale Ti2Cu precipitates led to the alloy exhibiting a relatively high antibacterial activity of &gt; 90%. We believe that our study makes a significant contribution to the literature because this would provide a means of overcoming the serious problem of bacterial infection that remains an issue with the implantation of Ti prostheses. Further, we believe that this paper will be of interest to the readership of your journal because the relationship between heat treatment and the antibacterial property has not been explored in Ti based antibacterial materials. The aim of this work is to study the effects of heat treatment on microstructure and antibacterial property of a Ti-5Cu alloy in order to produce an optimal antibacterial material for clinic application. This manuscript has not been published or presented elsewhere in part or in entirety and is not under consideration by another journal. We have read and understood your journal’s policies, and we believe that neither the manuscript nor the study violates any of these. There are no conflicts of interest to declare. Thank you for your consideration. I look forward to hearing from you. Sincerely, Je-Kang Du Department of Dentistry Kaohsiung Medical University Hospital Kaohsiung 80708 Taiwan Tel: 886-7-3121101 ext. 7003 Fax: 886-7-3157024 E-mail: dujekang@gmail.com
DOI: 10.17632/d9rpcbpyxx.1
title: Data for: A constant Chinese Loess Plateau dust source since the Late Miocene

description: Radiogenic isotope data from the Chinese Loess Plateau and potential source areas.
DOI: 10.17632/r25wxy79dz.10
title: Bastnäsite nanoparticles in carbonatite-syenite-hosted REE deposit

description: SEM images of the bastnäsite in the Maoniuping REE deposit, showing that bastnäsite is associated with fluorite (a). High magnification SEM images of the bastnäsite associated with fluorite (b). The SEM-EDS patterns of bastnäsite associated with fluorite, showing that F (c) and Ca (d) are mainly distributed in fluorite and La (e) and Ce (f) are mainly distributed in bastnäsite. Fl: fluorite; Bsa: bastnäsite. HRTEM image of bastnäsite (a), showing that nanoparticle is abundant in bastnäsite. The EDS image (b) and FFT pattern (c) showing small bastnäsite nanoparticles distributed in the outer surface of bastnäsite crystal. The EDS image (d) and FFT pattern (e) showing large nanoparticles distributed in the interior surface of bastnäsite crystal. The EDS image (f) and FFT pattern (g) showing the composition and lattice characteristics of bastnäsite crystal. Schematic illustration of the process of bastnäsite crystal via random attachment. Under external pressure (tectonic stress), growth and realignment of small nanoparticles occurred in the outer surface of bastnäsite crystal. The tectonic stress and the inherent surface stress induce realignment of large nanoparticles to form bastnäsite crystal. Lattice match was neither observed between the small bastnäsite nanoparticle and large bastnäsite nanoparticle nor between large bastnäsite nanoparticle and the main bastnäsite crystal demonstrate the random attachment pathway. Bastnäsite nanoparticles occurred in different bastnäsite mineral samples (M2-M6), indicating that bastnäsite nanoparticles are widely occurred in the Maoniuping REE deposit. Bastnäsite nanoparticles occurred in fluorite (a). The FFT patterns of bastnäsite nanoparticles (b) and fluorite (c).